Eliminating online censorship: Freenet, Free Haven and Publius

Protecting speech on the global data networks attracts an increasing attention. The efforts and the corresponding abilities of governmental authorities, corporations and copyright enforcement agencies are countered by similar efforts and abilities of researchers and engineers to provide means for anonymous and uncensored communication, as Freenet, Free Haven and Publius. All three of them show a similar design. Content is split up and spread on several servers. When a file is requested, the pieces are reassembled. This design makes it difficult to censor content. All of these systems are not commercial products.

The most advanced system seems to be Publius. Because of being designed by researchers and engineers at the prestigious AT&T Labs, Publius is a strong statement against online censorship. No longer can it be said that taking a firm stand against the use of technologies limiting the freedom of individuals is a position of radical leftists only.

For more information on Publius, see John Schwartz, Online and Unidentifiable? in: The Washington Post, June 30, 2000, http://www.washingtonpost.com/wp-dyn/articles/A21689-2000Jun29.html .

Freenet web site: http://freenet.sourceforge.net

Free Haven web site: http://www.freehaven.net

Publius web site: http://www.cs.nyu.edu/waldman/publius

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Censorship and Free Speech

There is no society - in the past or in the present - free of censorship, the enforced restriction of speech. It is not restricted to authoritarian regimes. Democratic societies too aim at the control of the publication and distribution of information in order to prevent unwanted expressions. In every society some expressions, ideas or opinions are feared. Censored are books, magazines, films and videos, and computer games, e.g.

In defence of its monopoly of truth, the Catholic Church published a blacklist of books not allowed to be read: the Index librorum prohibitorum. As indicated by the fact that every declaration of human rights - including the United Nations' Declaration of Human Rights and the European Convention on Human Rights - embraces free expression, democratic societies censorship is not imposed to protect a monopoly on truth or to foster the prevailing orthodoxy, as it seems. (With the remarkable exceptions of the prohibition of Nazi or Nazi-like publications and censorship practiced during wartime.) On the contrary, it is the point of free speech that we do not know the truth, that truth is something to strive for in a kind of public discourse or exchange intended to contribute to or even to constitute democracy. So "we cannot think coherently about free speech independently of issues about equality." (Susan Dwyer, A Plea to Ignore the Consequences of Free Speech, in: Computer-Mediated Communication Magazine, January 1, 1996, http://www.december.com/cmc/mag/1996/jan/dwyer.html) Racist expressions prove that. There are good reasons for supporting censorship to avoid violations of human dignity, as there are reasons to support unrestricted discussions of all topics.

To a high degree the Protestant Reformation was made possible by the invention of the printing press. Now those who were capable of writing and reading no longer needed to rely on the priests to know what is written in the Bible. They could compare the Bible with the sermons of the priests. This may be one of the reasons why especially in countries with a strong Protestant or otherwise anti-catholic tradition (with the exception of Germany), free speech is held in such high esteem.

There seems to be no alternative: free speech without restriction or censorship. But censorship is not the only kind of restriction of speech. Speech codes as politically correct speech are restrictions, sometimes similar to censorship; copyright, accessibility and affordability of means of communication are other ones. Because of such restrictions different to censorship, we cannot think coherently about free speech independently of issues about social justice. Many campaigns for free speech, the right of free expression are backed by the concept of free speech as unconstrained speech. That is perfectly well understood under the auspices of regimes prominently, which try to silence their critics and restrict access to their publications. But the concept of free speech should not solely focus on such constrains. Thinking of free speech as unconstrained speech, we tend to forget to take into account - to campaign against - these other restrictions. Additionally, free expression understood in that way offers no clue how to practice this freedom of expression and what free speech is good for.

In liberal democratic societies censorship is not justified by recurring to absolute truth. Its necessity is argued by referring to personal integrity. Some kind of expression might do harm to individuals, especially to children, by traumatize them or by disintegrating personal morality. Some published information, such as the names of rape victims, might infringe some people's right on privacy or some, as others say, such as pornographic images or literature, e.g., infringes some people's right on equality (how?).

For more information on the history of censorship see The File Room Project.

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The Privatization of Censorship

According to a still widely held conviction, the global data networks constitute the long desired arena for uncensorable expression. This much is true: Because of the Net it has become increasingly difficult to sustain cultural and legal standards. Geographical proximity and territorial boundaries prove to be less relevant, when it does not affect a document's availability if it is stored on your desktop or on a host some thousand kilometers away. There is no international agreement on non-prohibited contents, so human rights organizations and nazi groups alike can bypass restrictions. No single authority or organization can impose its rules and standards on all others. This is why the Net is public space, a political arena where free expression is possible.

This freedom is conditioned by the design of the Net. But the Net's design is not a given, as Lawrence Lessig reminds us. Originally the design of the Net allowed a relatively high degree of privacy and communication was not controlled directly. But now this design is changing and this invisible agora in electronic space is endangered. Governments - even elected ones - and corporations introduce new technologies that allow us to be identified, monitored and tracked, that identify and block content, and that can allow our behaviour to be efficiently controlled.

When the World Wide Web was introduced, soon small independent media and human rights organizations began to use this platform for drawing worldwide attention to their publications and causes. It seemed to be the dawning of a new era with authoritarian regimes and multinational media corporations on the looser side. But now the Net's design is changing according to their needs.

"In every context that it can, the entertaining industry is trying to force the Internet into its own business model: the perfect control of content. From music (fighting MP3) and film (fighting the portability of DVD) to television, the industry is resisting the Net's original design. It was about the free flow of content; Hollywood wants perfect control instead" (Lawrence Lessig, Cyberspace Prosecutor, in: The Industry Standard, February 2000).

In the United States, Hollywood and AT&T, after its merger with MediaOne becoming the biggest US cable service provider, return to their prior positions in the Seventies: the control of content and infrastructure. If most people will access the Net via set up boxes connected to a TV set, it will become a kind of television, at least in the USA.

For small independent media it will become very hard to be heard, especially for those offering streaming video and music. Increasingly faster data transmissions just apply to download capacities; upload capacities are much - on the average about eight times - lower than download capacities. As an AT&T executive said in response to criticism: "We haven't built a 56 billion dollar cable network to have the blood sucked from our veins" (Lawrence Lessig, The Law in the Code: How the Net is Regulated, Lecture at the Institute for Human Sciences, Vienna, May 29th, 2000).

Consumers, not producers are preferred.

For corporations what remains to be done to control the Net is mainly to cope with the fact that because of the Net it has become increasingly difficult to sustain cultural and legal standards. On Nov 11, 1995 the German prosecuting attorney's office searched Compuserve Germany, the branch of an international Internet service provider, because the company was suspected of having offered access to child pornography. Consequently Compuserve blocked access to more than 200 newsgroups, all containing "sex" or "gay" in their names, for all its customers. But a few days later, an instruction for access to these blocked newsgroups via Compuserve came into circulation. On February 26, 1997, Felix Somm, the Chief Executive Officer of Compuserve Germany, was accused of complicity with the distribution of child and animal pornography in newsgroups. In May 1998 he received a prison sentence for two years. This sentence was suspended against a bail of about 51.000 Euro. The sentence was justified by pointing to the fact that Compuserve Germany offered access to its US parent company's servers hosting child pornography. Felix Somm was held responsible for access to forbidden content he could not know of. (For further information (in German) click here.)

Also in 1995, as an attack on US Vice-President Al Gore's intention to supply all public schools with Internet access, Republican Senator Charles Grassley warned of the lurking dangers for children on the Net. By referring to a Time magazine cover story by Philip Elmer-Dewitt from July 3 on pornography on the Net, he pointed out that 83,5% of all images online are pornographic. But Elmer-Dewitt was wrong. Obviously unaware of the difference between Bulletin Board Systems and the Net, he referred misleadingly to Marty Rimm's article Marketing Pornography on the Information Superhighway, published in the prestigious Georgetown Law Journal (vol. 83, June 1995, pp. 1849-1935). Rimm knew of this difference, of course, and stated it clearly. (For further information see Hoffman & Novak, The Cyberporn debate, http://ecommerce.vanderbilt.edu/cyberporn.debate.html and Franz Wegener, Cyberpornographie: Chronologie einer Hexenjagd; http://www.intro-online.de/c6.html)

Almost inevitably anxieties accompany the introduction of new technologies. In the 19th century it was said that traveling by train is bad for health. The debate produced by Time magazine's cover story and Senator Grassley's attack caused the impression that the Net has multiplied possible dangers for children. The global communication networks seem to be a inexhaustible source of mushrooming child pornography. Later would-be bomb recipes found on the Net added to already prevailing anxieties. As even in industrialized countries most people still have little or no first-hand experience with the Net, anxieties about child pornography or terrorist attacks can be stirred up and employed easily.

A similar and related debate is going on about the glorification of violence and erotic depictions in media. Pointing to a "toxic popular culture" shaped by media that "distort children's view of reality and even undermine their character growth", US right-wing social welfare organizations and think tanks call for strong media censorship. (See An Appeal to Hollywood, http://www.media-appeal.org/appeal.htm) Media, especially films and videos, are already censored and rated, so it is more censorship that is wanted.

The intentions for stimulating a debate on child pornography on the Net were manifold: Inter alia, it served the Republican Party to attack Democrat Al Gore's initiative to supply all public schools with Internet access; additionally, the big media corporations realized that because of the Net they might have to face new competitors and rushed to press for content regulation. Taking all these intentions together, we can say that this still ongoing debate constitutes the first and most well known attempt to impose content regulation on the Net. Consequently, at least in Western countries, governments and media corporations refer to child pornography for justifying legal requirement and the implementation of technologies for the surveillance and monitoring of individuals, the filtering, rating and blocking of content, and the prohibition of anonymous publishing on the Net.

In the name of "cleaning" the Net of child pornography, our basic rights are restricted. It is the insistence on unrestricted basic rights that needs to be justified, as it may seem.

Underlying the campaign to control the Net are several assumptions. Inter alia: The Net lacks control and needs to be made safe and secure; we may be exposed inadvertently to pornographic content; this content is harmful to children. Remarkably, racism seems to be not an issue.

The Net, especially the World Wide Web, is not like television (although it is to be feared this is what it might become like within the next years). Say, little Mary types "Barbie" in a search engine. Click here to see what happens. It is true, sometimes you might have the opportunity to see that pornography is just a few mouse clicks away, but it is not likely that you might be exposed to pornographic content unless you make deliberate mouse clicks.

In reaction to these anxieties, but in absence of data how children use the Internet, the US government released the Communications Decency Act (CDA) in 1996. In consequence the Electronic Frontier Foundation (EFF) launched the famous Blue Ribbon Campaign and, among others, America Online and Microsoft Corporation supported a lawsuit of the American Civil Liberties Union (ACLU) against this Act. On June 26, 1997, the US Supreme Court ruled the CDA as unconstitutional under the provisions of the First Amendment to the Constitution: The Communications Decency Act violated the basic right to free expression. After a summit with the US government industry leaders announced the using of existing rating and blocking systems and the development of new ones for "inappropriate" online resources.

So, after the failing of the CDA the US government has shifted its responsibility to the industry by inviting corporations to taking on governmental tasks. Bearing in the mind the CompuServe case and its possible consequences, the industry welcomed this decision and was quick to call this newly assumed responsibility "self-regulation". Strictly speaking, "self-regulation" as meant by the industry does not amount to the regulation of the behaviour of corporations by themselves. On the opposite, "self-regulation" is to be understood as the regulation of users' behaviour by the rating, filtering and blocking of Internet content considered being inappropriate. The Internet industry tries to show that technical solutions are more favourable than legislation und wants to be sure, not being held responsible and liable for illegal, offensive or harmful content. A new CompuServe case and a new Communications Decency Act shall be averted.

In the Memorandum Self-regulation of Internet Content released in late 1999 by the Bertelsmann Foundation it is recommended that the Internet industry joins forces with governmental institutions for enforcing codes of conduct and encouraging the implementation of filters and ratings systems. For further details on the Memorandum see the study by the Center for Democracy and Technology, An Analysis of the Bertelsmann Foundation Memorandum on Self-Regulation of Internet Content: Concerns from a User Empowerment Perspective.

In fact, the "self-regulation" of the Internet industry is privatized censorship performed by corporations and right-wing NGOs. Censorship has become a business. "Crucially, the lifting of restrictions on market competition hasn't advanced the cause of freedom of expression at all. On the contrary, the privatisation of cyberspace seems to be taking place alongside the introduction of heavy censorship." (Richard Barbrook and Andy Cameron, The Californian Ideology)

While trying to convince us that its technical solutions are appropriate alternatives to government regulation, the Internet industry cannot dispense of governmental backing to enforce the proposed measures. This adds to and enforces the censorship measures already undertaken by governments. We are encouraged to use today's information and communication technologies, while the flow of information is restricted.

According to a report by Reporters Sans Frontières, quoted by Leonard R. Sussman in his essay Censor Dot Gov. The Internet and Press Freedom 2000, the following countries totally or largely control Internet access: Azerbaijan, Belarus, Burma, China, Cuba, Iran, Iraq, Kazakhstan, Kirghizstan, Libya, North Korea, Saudi Arabia, Sierra Leone, Sudan, Syria, Tajikistan, Tunisia, Turkmenistan, Uzbekistan, and Vietnam.

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Anonymity

"Freedom of anonymous speech is an essential component of free speech."

Ian Goldberg/David Wagner, TAZ Servers and the Rewebber Network: Enabling Anonymous Publishing on the World Wide Web, in: First Monday 3,4, 1999

Someone wants to hide one's identity, to remain anonymous, if s/he fears to be holding accountable for something, say, a publication, that is considered to be prohibited. Anonymous publishing has a long tradition in European history. Writers of erotic literature or pamphlets, e. g., preferred to use pseudonyms or publish anonymously. During the Enlightenment books as d'Alembert's and Diderot's famous Encyclopaedia were printed and distributed secretly. Today Book Locker, a company selling electronic books, renews this tradition by allowing to post writings anonymously, to publish without the threat of being perishing for it. Sometimes anonymity is a precondition for reporting human rights abuses. For example, investigative journalists and regime critics may rely on anonymity. But we do not have to look that far; even you might need or use anonymity sometimes, say, when you are a woman wanting to avoid sexual harassment in chat rooms.

The original design of the Net, as far as it is preserved, offers a relatively high degree of privacy, because due to the client-server model all what is known about you is a report of the machine from which information was, respectively is requested. But this design of the Net interferes with the wish of corporations to know you, even to know more about you than you want them to know. What is euphemistically called customer relationship management systems means the collection, compilation and analysis of personal information about you by others.

In 1997 America Online member Timothy McVeigh, a Navy employee, made his homosexuality publicly known in a short autobiographical sketch. Another Navy employee reading this sketch informed the Navy. America Online revealed McVeigh's identity to the Navy, who discharged McVeigh. As the consequence of a court ruling on that case, Timothy McVeigh was allowed to return to the Navy. Sometimes anonymity really matters.

On the Net you still have several possibilities to remain anonymous. You may visit web sites via an anonymizing service. You might use a Web mail account (given the personal information given to the web mail service provider is not true) or you might use an anonymous remailing service which strips off the headers of your mail to make it impossible to identify the sender and forward your message. Used in combination with encryption tools and technologies like FreeHaven or Publius anonymous messaging services provide a powerful tool for countering censorship.

In Germany, in 1515, printers had to swear not to print or distribute any publication bypassing the councilmen. Today repressive regimes, such as China and Burma, and democratic governments, such as the France and Great Britain, alike impose or already have imposed laws against anonymous publishing on the Net.

Anonymity might be used for abuses, that is true, but "the burden of proof rests with those who would seek to limit it. (Rob Kling, Ya-ching Lee, Al Teich, Mark S. Frankel, Assessing Anonymous Communication on the Internet: Policy Deliberations, in: The Information Society, 1999).

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Censored links: Linking as a crime

The World Wide Web is constituted by documents linked with other documents, thus allowing access to referred documents. Censorship affects hyperlinks as well. Say, you publish an essay on racist propaganda on the Net and make link references to neo-nazi web sites. It goes without saying that you do not endorse neo-nazi pamphlets. By linking to these web sites you want your readers to get an idea of what you are writing about. Linking does not necessarily mean approving. Is this not evident?

According to Swiss and German prosecuting attorneys you may have committed a crime without having illegal intentions. From his web site Thomas Stricker, director of the Institute of Computer Systems at the ETH Zurich, has linked to an anti-racist web site with links to racist content in order to draw the attention to the difficulties legal regulation of the Net has to face. Neglecting his intentions, Swiss authorities instituted a criminal action against Stricker.

Another case, reported by the Global Internet Liberty Campaign, proves that not just links to racist resources or to resources with links to such resources are under prosecution. The Motion Picture Association of America sued to prevent Internet users from linking to websites that have DeCSS, a program helping Linux users play DVDs on their computers. The trial is scheduled for December.

References:

Global Internet Liberty Campaign, Hollywood wants end to links, in: GILC Alert 4,4, April 24, 2000, http://www.gilc.org/alert/alert44.html

Wolfgang Näser, Allgemeines zum Thema "Homepage", http://staff-www.uni-marburg.de/naeser/allgem.htm

Florian Rötzer, Ab wann ist ein externer Link auf strafrechtlich relevante Inhalte selbst strafbar?, in: Telepolis, December 1, 1997

Florian Rötzer, Strafverfahren gegen ETH-Professor wegen Links zu rassistischen Websites, in: Telepolis, February 24, 2000

Florian Rötzer, Ab wievielen Zwischenschritten ist ein Link auf eine rechtswidrige Website strafbar, in: Telepolis, February 24, 2000

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ECHELON Intelligence Budget



Until now it was not possible to find out the specific segmenting of intelligence budgets as far as the ECHELON project is concerned. Many experts agree that ECHELON specific costs are woven into the complex budgets of several intelligence units. Money comes also from the host countries and Partners in the UKUSA Agreement.

For further reading:

http://www.usbudget.com/military/

http://www.access.gpo.gov/int/int017.html

http://www.fas.org/irp/budget.html

http://www.fas.org/irp/congress/1995_cr/sen29sep.htm

Refocus Intelligence Priorities:

http://www.fas.org/pub/gen/mswg/msbb98/tt08int.htm

>Approximately $27.6 Billion requested for 1999. The Congress has proposed an increase over the Clinton administration request. Almost all of this effort is devoted to exploiting the disciplines that were of primary importance during the Cold War: imagery intelligence [IMINT], signals intelligence [SIGINT], and human intelligence [HUMINT]. But with the end of the Cold War new disciplines, measurements and signature intelligence [MASINT] and open source intelligence [OSINT] are of far greater relevance to contemporary and emerging security concerns and intelligence needs, ranging from counter-proliferation activities to peace-keeping operations.<

Organization Annual Budget Staff

NRO 6,2 billion $ 1.700

NSA 3,6 billion $ 21.000 (- 40.000?)

CIA 3,1 billion $ 16.000

For comparison: CSE has only a $200-300 million dollar budget.

In 1988 Duncan Campbell wrote (http://www.gn.apc.org/duncan/echelon-dc.htm): >With 15,000 staff and a budget of over £500 million a year (even without the planned Zircon spy satellite), GCHQ is by far the largest part of British intelligence. Successive UK governments have placed high value on its eavesdropping capabilities, whether against Russian military signals or the easier commercial and private civilian targets. Recently published US Department of Defense 1989 budget information has confirmed that the Menwith Hill spy base will be the subject of a major $26 million expansion programme. Information given to Congress in February listed details of plans for a four-year expansion of the main operation building and other facilities at Menwith Hill. Although the testimony referred only to a "classified location", the base can be identified because of references to STEEPLEBUSH. According to this testimony, the new STEEPLEBUSH II project will cost $15 million between now and 1993. The expansion is required to avoid overcrowding and "to support expanding classified missions".<

And another view on the relation between the several intelligence units as far as budget is concerned: "Spying Budget Is Made Public By Mistake", By Tim Weiner The New York Times, November 5 1994

>By mistake, a Congressional subcommittee has published an unusually detailed breakdown of the highly classified "black budget" for United States intelligence agencies. In previously defeating a bill that would have made this information public, the White House, CIA and Pentagon argued that revealing the secret budget would cause GRAVE DAMAGE to the NATIONAL SECURITY of the United States. $3.1 billion for the CIA $10.4 billion for the Army, Navy, Air Force and Marines special-operations units $13.2 billion for the NSA/NRO/DIA <

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ECHELON UKUSA Alliance

The ECHELON project was designed and is coordinated by NSA to intercept ordinary e-mail, fax, telex and telephone communications throughout the global telecommunications networks. Its purpose is the surveillance of non-military targets, such as governments, organizations, businesses and individuals. The goal of the system is to intercept large quantities of communications and analyze the gathered data using sophisticated processing hard- and software to identify and extract messages of interest. The ECHELON processing equipment searches through huge amounts of intercepted communications for keywords. Those keywords contain concepts, names, locations, subjects, personal data of individuals,... The processing computers are known as ECHELON Dictionaries.

Without the investigative publications of James Bamford, Duncan Campbell, Nicky Hager, Jeffrey T. Richelson, William Burrows and others ECHELON would never have made its way to public notice and would have never led to alarming public opinion.

In 1948 the former alliance of USA, UK, Canada, Australia an New Zealand established in World War II was formalized into the UKUSA Signals and Intelligence agreement to aim primarily together against the former USSR, although reades of the agreement say, that it is definitely only signed by the United States and Britain. (Nicky Hager, Secret Power, New Zealand's role in the internatinal spy network, Craig Potton, 1996, p61)

The UKUSA nations also agreed to standardize their terminology, code words, intercept-handling procedures, and indoctrination oaths, for efficiency as well as security. NATO nations and other nations as Japan and Korea later signed on as third parties. Among the first and second parties there is a general agreement not to restrict data, but with the third parties the sharing is much less generous.

Now the functions have shifted to interception ranging from diplomatic communications, to industrial espionage. Keytargets are besides political and military intelligence, terrorism, weapons construction and proliferation and economic intelligence. Rumors are heard that the US intelligence agencies use their foreign stations also for monitoring their allies. It seems that the UKUSA alliance is maintaining around 120 known surveillance stations, some huge and some very small or even functioning fully automatically, but rumors go that the number of small SIGINT surveillance stations might also be as high as 4900.

UKUSA:

>UK-US SIGINT co-operation began in 1940, during World War II close intelligence relationships also between other countries of the Commonwealth and the United States were formed. New Zealand f.e. was involved in submarine operations and served as basis for American troops fighting against Japan in the pacific. In Spring 1941 four representatives (two from the Navy and two from the Army) delivered a model of the Japanese PURPLE machine--used by Japan to encipher diplomatic communications to British codebreakers at Bletchley Park. In return, the British gave the U.S. representatives an assortment of advanced cryptological equipment, including the Marconi-Adcock high-frequency direction finder. (see p312 in James Bamford, The Puzzle Palace, Boston, Houghton Mifflin, 1982). Meanwhile, it was agreed that the British would break Tokyo-London traffic while the Americans broke Tokyo-Washington traffic. The results of the U.S. codebreaking effort that were considered useful to Britain in its war with Germany were passed to London via the British ambassador in Washington.<

(Ronald Lewin, The American Magic: Codes, ciphers and the Defeat of Japan, New York: Farrar, Strauss and Giroux, 1982, p46)

>U.S. entry into the war expanded the exchange of intercepted military traffic because of necessary arrangements for a coordinated attack on diplomatic traffic. Britain's production of such intelligence was labeled ULTRA.<

(Ronald Lewin, The American Magic: Codes, ciphers and the Defeat of Japan, New York: Farrar, Strauss and Giroux, 1982, p47)

>Although ULTRA information was made available to U.S. and British military commanders via Special Liaison Units, the exact nature of its acquisition was initially obscured. It was not until April 1943 that the British revealed to U.S. military intelligence officials the secret--that Britain's codebreaking organization could break the ciphers produced by the German ENIGMA machine used for much of German military communications.< (James Bamford, The Puzzle Palace, Boston, Houghton Mifflin, 1982, p314)

UK-US SIGINT co-operation was formalized on 17 May 1943 with the conclusion of the still-secret, and possibly still-active, BRUSA COMINT agreement. The complete text of BRUSA, including its appendices, was released by the National Security Agency (NSA) in November 1995. Text and appendices are published in Cryptologia, "The BRUSA Agreement of May 17, 1943," 21, no. 1 (Jan. 1997): p30-38. That agreement led to extensive cooperation between the US Army's SIGINT Agency and the British Code and Cipher School.

>The BRUSA Agreement established high-level cooperation on SIGINT matters and covered the exchange of personnel, joint regulations for the handling of ULTRA material, and procedures for its distribution. The joint regulations included strict security provisions that applied to all British and U.S. recipients of ULTRA material.<(James Bamford, The Puzzle Palace, Boston, Houghton Mifflin, 1982, p315)

>Along with the increased cooperation between Britain and the United States, there was increased involvement by the Anglo-Saxon members of the British

Commonwealth--Canada, Australia, and New Zealand--in a wide variety of intelligence activities. U.S.-Canadian cooperation began in October 1941, when the Canadians offered the Federal Communications Commission free access to the product of Canadian monitoring activities. In return, the United States provided Canada with technical direction-finding data that were "invaluable for pinpointing the location of a transmitter." < (Bob Elliot, Scarlet to Green: Canadian Army Intelligence 1903-1963, Toronto, Canadian Military Intelligence Association, 1982, p461)

>Canadian DF stations subsequently made significant contributions to the Allied North Atlantic SIGINT/ocean surveillance network. The Canadian codebreaking agency was also successful in intercepting and decoding German espionage control messages to and from agents in South America, Canada, Hamburg and Lisbon. In addition, messages to and from the Vichy delegation in Ottawa were intercepted and decoded. Further, the peculiarities of radio wave propagation resulted in Canadian monitoring facilities being able to intercept military transmissions originating in Europe that were inaccessible to equipment based in Britain.< (F.H. Hinsley, E.E. Thomas, C.F.G. Ransom, and R.C. Knight, British Intelligence in the Second World War Volume 2, New York: Cambridge University Press, 1981, p. 551ff)

>In addition to its UKUSA participation, Canada's SIGINT relationship to the United States is defined by the CANUS agreement. On September 15, 1950, Canada and the United States exchanged letters formally recognizing the "Security Agreement between Canada and the United States of America" (which was followed exactly two months later by the "Arrangement for Exchange of Information between the U.S., U.K. and Canada'').< (Jeffrey T. Richelson, The U.S. Intelligence Community, Westview Press, 4th ed., 1999, p273)

>It was with respect to Japan, however, that SIGINT cooperation among all five nations reached its highest level. Monitoring stations in Canada, particularly the major one at Halifax, gathered large quantities of coded Japanese transmissions. In April 1942, a combined Allied signals intelligence agency for the Pacific, the Central Bureau of the Allied Intelligence Bureau, was activated in Melbourne with a U.S. Chief and an Australian Deputy Chief.< (Jeffrey T. Richelson, The U.S. Intelligence Community, Westview Press, 4th ed., 1999, p267)

>The extent of cooperation is particularly highlighted in the case of Australian intercept stations. There was an Australian Air Force intercept station at Darwin, a U.S. Army radio intercept station in Townsville, a Royal Australian Navy monitoring station at Darwin, and a British post in Brisbane for the interception and distribution of Japanese radio communications. Additionally, a Canadian Special Wireless Group arrived in Australia on May 18, 1945 to take over the task of intercepting and analyzing Japanese military Morse code signals.< (Bob Elliot, Scarlet to Green: Canadian Army Intelligence 1903-1963, Toronto, Canadian Military Intelligence Association, 1982, p385)

>The intelligence relationship among Australia, Britain, Canada, New Zealand, and the United States that was forged during World War II did not end with the war. Rather, it became formalized and grew stronger. In 1946 a US Liaison Office was set up in London and efforts for joint exchange operations in the beginning Cold War started. It was agreed that solved material was to be exchanged between the two countries.< (Ronald Clark, The Man Who Broke Purple, Boston, Little Brown, 1977, p208)

>1947 saw an event that set the stage for post-World War II signals intelligence cooperation: the formulation and acceptance of the UKUSA

Agreement, also known as the UK-USA Security Agreement or the "Secret Treaty." The primary aspect of the agreement was the division of SIGINT collection

responsibilities among the First Party (the United States) and the Second Parties (Australia, Britain, Canada, and New Zealand.< (Jeffrey T. Richelson, The U.S. Intelligence Community, Westview Press, 4th ed., 1999, p267)



>The UKUSA relationship (and its SIGINT aspect) is more than an agreement to coordinate separately conducted intelligence activities and share the intelligence collected. Rather, the relationship is cemented by the presence of U.S. facilities on British, Canadian, and Australian territory and by joint operations within and outside UKUSA territory and, in the case of Australia, of U.K. and U.S. staff at all DSD facilities.< (Desmond Ball, A Suitable Peace of Real Estate: American Installations in Australia Sydney: Hale & Iremonger, 1980, p40)

>In addition to specifying SIGINT collection responsibilities, the Agreement also concerns access to the collected intelligence and security arrangements for the handling of data. Standardized code words (e.g., UMBRA for signals intelligence, VIPRA, TRINE), security agreements that all employees of the respective SIGINT agencies must sign, and procedures for storing and disseminating code word material are all part of the implementation of the Agreement.< (Duncan Campbell, "The Threat of the Electronic Spies," New Statesman, February 2, 1979)

The liaison and cooperation established with the BRUSA, UKUSA and CANUS Agreements during the 1940s were reinforced by William F. Friedman (the "dean of cryptology") during the 1950s and continued to solidify during the 1960s and 1970s.

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ECHELON Introduction

The end of the Cold War and the fall of the Berlin wall marked the end of a whole fictional genre: the spy novel. But as writers such as John Le Carre and Frederick Forsyth have since moved their field of interest to issues such as Islamic fundamentalism or ethnic separatist struggles against Western superpowers, the legacy of the spy network which was allegedly built for military operations only throughout the Cold War period, promises to outdo all fictional blue prints of espionage thrillers.

Over the past decades and especially throughout the 90s, a series of facts have surfaced, providing considerable evidence that a network of spy agencies, IT industries, governmental officials and research laboratories have developed a vast network which today serves mainly the purpose of industrial espionage. It's name is ECHELON, a highly automated global system and surveillance network for processing data retrieved through interception of communication traffic from all over the world. In the days of the cold war, ECHELON's primary purpose was to keep an eye/ear on the U.S.S.R. In the wake of the fall of the U.S.S.R. ECHELON is officially said to being used to fight terrorism and crimes, but it seems to be evident that the main focus lies in political and economic espionage.

A few people have played key roles in the uncovering of the mechanisms behind the closed doors of Western military operations. And still today, the evidence that has been brought into the sunlight has not forced any official body to give an official statement acknowledging or denying the existence of ECHELON.

ECHELON had been rumored to be in development since 1947, the result of the UKUSA treaty signed by the governments of the United States, the United Kingdom, Canada, Australia and New Zealand.

Only in 1976 the British journalist Duncan Campbell published an article in London based magazine Time Out which was called 'The Eavesdroppers'. This article contained a detailed description of what the GCHQ was and did. Starting from this research, Campbell continued to publish many articles concerning illegal communication interception conducted by the secret services.

But these first suspicions and truths about the nature of the spy network raised little media attention across the world. It was only in 1996, when the New Zealand journalist Nicky Hager published his book 'Secret Power: New Zealand's Role In the International Spy Network' containing detailed notes of meetings and agreements of army officials and private industries, ECHELON began to raise interest and eyebrows of politicians mainly in Europe and the media, mostly in Europe and America.

However, the saga continues and until today, despite official reports, elaborate research and founded claims, the existence of ECHELON has maintained to be one of the secrets of Western superpowers. And on a European level, the subject matter seems to create a divide across most political parties and governments.

Even in 1998, the European Parliament keeps its head down. In the STOA report, Assessment of the Technologies of Political Control, Martin Bangemann sums up the fears and strategies of official bodies dealing with the subject in his closing statement: "I think that there is a difference between someone writing a book, or - if you allow me to say this - a member of parliament who voices a concern and a representative of an institution which can only act within a democratic system if he or she knows something for sure. That level of knowledge we do not have."

Campaigning for the disclosure of ECHELON has been coming a long way. Starting in the early 90s, mainly grassroots activists have been instrumental in raising the public awareness. The most prominent case today is still the American base in Menwith Hill, Yorkshire UK. The community around Menwith Hill, Yorkshire UK has played a central role in pushing for official enquiries concerning the activities of UK based American bases. As there seemed to be a very concrete threat, the "Provision of (...) hazardous storage buildings" [http://www.gn.apc.org/cndyorks/caab/] pointing towards severe safety and heath dangers, the grassroots activists eventually managed to lobby for parliamentary enquiries within the UK. An official spokesman and driving force behind the development has been Glyn Ford, Labour Member of European Parliament for Greater Manchester. Eventually, the issue was taken up by the European Parliament, leading to the STOA report in 1995 and finalised in 1998. The report confirms the existence of the ECHELON system and calls for an investigation into the activities of the NSA in Europe.

The following report of World Information brings together various sources which on the whole indicate the extension and functioning of a network for industrial espionage under the cover of military and governmental operations which would seriously challenge any fictional writing of the cold war era.

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ECHELON Facts

What: A highly automated global system and surveillance network for processing data retrieved through interception of communication traffic from all over the world. In the days of the cold war, ECHELON's primary purpose was to keep an eye/ear on the U.S.S.R. In the wake of the fall of the U.S.S.R. ECHELON is officially said to being used to fight terrorism ann crimes, but it seems to be evident that the main focus lies in political and economic espionage.

When: ECHELON had been rumored to be in development since 1947, the result of the UKUSA treaty signed by the governments of the United States, the United Kingdom, Canada, Australia and New Zealand.



Who: It is coordinated by the NSA, with participation of the CIA, USAF, NSG, GCHQ, DSD, CSE, GCSB. It seems that NSA is the only "contractor" who has access to the whole of information, whereas the other participants only get a comparingly small portion of information.

Where: Headquarters of the ECHELON system are at Fort Meade in Maryland, which is the NSA Headquarter. The NSA operates many interception stations all over the world, with or without the knowledge of the host country.

How: Each station in the ECHELON network has computers that automatically search through millions of intercepted data for containing pre-programmed keywords or fax, telex and email addresses. Every word of every message is

automatically searched. Computers that can search for keywords have existed since at least the 1970s, but the ECHELON system has been designed to interconnect all these computers and allow the stations to function as components of an integrated whole.

The scale of the collection system was described by the former Director of the NSA, Vice Admiral William Studeman, in 1992 (http://www.menwithhill.com/find.html). At that time the NSA's collection system generated about 2 million intercepted messages per hour. Of these, all but about 13,000 an hour were discarded. Of these about 2,000 met forwarding criteria, of which some 20 are selected by analysts, who then write 2 reports for further distribution. Therefore, in 1992 MenwithHillSation was intercepting 17.5 billion messages a year. Of these some 17.5 million may have been studied for analysis.

How much: ECHELON justifies obviousely multi-billion dollar expenses. But no detailed figures are available yet.

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ECHELON Timeline

1948

Formalization of UKUSA agreement.

1949

Establishment of the Armed Forces Security Agency (AFSA) to direct communications intelligence and electronic intelligence activities of the military service signals units (ASA, NSG, AFSS)

1952

President Truman sent out a top secret memorandum to abolish the AFSA and to create the National Security Agency NSA. The main focuses lied on: control, coordination, collection and processing of Communication Intelligence. The NSA was considered to be within, but not a part of the Department of Defense. .(Jeffrey T. Richelson, The U.S. Intelligence Community, Westview Press, 4th ed., 1999, p 31)

1954

The WS-117L program (for the development of reconnaissance satellites for the AirForce an CIA) was approved by President Eisenhower. It also included the development of signal intercept equipment within the framework of the project Pioneer Ferret

1957

Official acknowledgement of NSA in the Government Organization Manual

1961

Establishment of the National Reconnaissance Office NRO as a joint Air Force and CIA operation. Ist existance was classified secret till 1992. Ist tasks werde focused on overseeing and funding the research and development of reconnaissance spacecraft and their sensors, procuring the space systems and their associated ground stations, determinig launch vehicle requirements, operating spacecraft and disseinating the data collected.(Jeffrey T. Richelson, The U.S. Intelligence Community, Westview Press, 4th ed., 1999, p 37)

1972

Scope of NSA's SIGINT activities was redefined in Communication Intelligence and Electronic Intelligence and Communication Security (In the 80s the term changed to Information Security).

Perry Fellwock, former NSA analyst, gives an interview for Ramparts on NSA electronic interception: http://jya.com/nsa-elint.htm

1976

Duncan Campbell published an article in Time Out called "The Eavesdroppers" which was a description of what GCHQ was and did. From that time on Campbell published many articles concerning illiegal communication interception done by the secret services.

1978/79

American Foreign Intelligence Surveillance Act is a law that permits secret buggings and wiretaps of individuals suspected of being agents of a hostile foreign government or international terrorist organization. (http://www.nara.gov/fedreg/eos/e12139.html)

1982

David Burnham, The New York Times, writes:

Washington, Nov 6 --- A Federal appeals court has ruled that the National Security Agency may lawfully intercept messages between United States citizens and people overseas, even if there is no cause to believe they Americans are foreign agents, and then provide summaries of these messages to the Federal Bureau of Investigation.( http://www-douzzer.ai.mit.edu:8080/cm/cm1.html)



1983

James Bamford publishes The Puzzle Palace: A Report on America's Most Secret Agency.

1985

Jeffrey T. Richelson and Desmond Ball bring out The Ties That Bind: Intelligence Cooperation Between the UKUSA Countries

1987

William Burrows publishes Deep Black: Space Espionage and National Security

1988

ECHELON (as terminus) was first revealed by Duncan Campbell in 1988 in a 'New Statesman' article.

1989

Jeffrey T. Richelson brings out The U.S. Intelligence Community

1992

Members of GCHQ became told the London Observer that the ECHELON dictionaries targeted Amnesty International, Greenpeace, Christian institutions and more.

June 1992: FBI produces paper "Law Enforcement REQUIREMENTS for the

surveillance of electronic communications"

1993

A presidential conference with Asian leaders was bugged by US intelligence agencies, as goes the rumour, and information was passed from the White House to big corporate donors.

A BBC documentary about NSA's Menwith Hill facility in England revealed that peace protestors had broken into the installation and stolen part of this glossary, known as "the Dictionary." The documentary alleged that Menwith Hill -- a sprawling installation covering 560 acres and employing more than 1,200 people -- was ECHELON's nerve center.

1994

Spyworld: Inside the Canadian and American Intelligence Establishments

By Mike Frost [NSA trained sigint person] and Michel Gratton

1996

Nicky Hager, Secret Power: New Zealand's Role In the International Spy Network

1997

Further reorganization of NSA INFOSEC activities: Two new groups were introduced. M Group, responsible for assess potential threats to and vulnerabilities of technologies and infrastructures such as telecom systems; W Group, deals with transnational threats.

1997

27 February: A special report by Statewatch published detailed plans for a joint plan drawn up by the Council of the European Union and the US Federal Bureau of Investigations (FBI) to introduce a global system for the surveillance of telecommunications.

4 September: A judge has lambasted British Telecom for revealing detailed information about top secret high capacity cables feeding phone and other messages to and from a Yorkshire monitoring base. BT admitted this week that they have connected three digital optical fibre cables - capable of carrying more than 100,000 telephone calls at once - to the American intelligence base

at Menwith Hill, near Harrogate.

Media all over the world start covering ECHELON.

1998

European Parliament, STOA report, Assessment of the Technologies of Political Control: http://jya.com/stoa-atpc.htm

1999

World Information Org starts collecting the fragmented data about ECHELON.

2000

ECHELON is covered in gobal news channels and investigated by civil liberty groups as well as government councils throughout Europe.

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ECHELON Other involved countries

Other countries, that are said to be involved in ECHELON:

ITALY

UKUSA Third Party

NATO

TURKEY

UKUSA Third Party

NATO

GERMANY

UKUSA Third Party

NATO

JAPAN

UKUSA Third Party

1972 Project COMET, 1982 Weinberger show misuse of japanese technology transfer to russia

GREECE

UKUSA Third Party

NATO

NORWAY

UKUSA Third Party

1950 Genetrix Balloons, 1963 Project South Sea

SIGINT stations are operated by personnel of Norwegian Military Intelligence but were erected by the NSA and operated for them. CIA and NSA personnel were regularly on assignment at those stations.

DENMARK

UKUSA Third Party

NATO

SOUTH KOREA

UKUSA Third Party

?

THAILAND

UKUSA Third Party

?

PAKISTAN





CIA covert assistance to Afghan rebels trough Pakistan, mujaahdeen camps : trainers from CIA, ELINT from Soviet Union and South East Asia,

FINLAND





NSA purchases RADINT from Soviet Union by VKL

ISRAEL

Mossad, AMAN,

CIA, FBI, DIA, NSA, Foreign Technology Division,Foreign

Science and Technology Center

1951 James Jesus Angleton CIA

MEXICO





Soviet embassy interception

PHILLIPINES





?

CHINA





1970 Kissinger,1978 Abramowitz, basic agreement in 1980, CIA informs China about possible threats from Russia and moslem countries, 2 station were built; another joint project: 9 seismic monitoring stations; ILD and CIA conduct operations against soviet-backed forces in Angola, Cambodia, Afghanistan

AUSTRIA

UKUSA Third Party

?, ILETS, Enfopol

Russia





1990 Iraqi Invasion

SOUTH AFRICA





1960

Source: Jeffrey T. Richelson, The U.S. Intelligence Community, (Westview Press, 4th ed., 1999) p278-302

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ECHELON UKUSA Signals Intelligence Agreement Partners

Partner

Agency

Target

Treaty

USA

NSA - CIA, USAF, NSG

Latin America, most of Asia, Russia and Northern China

BRUSA agreement 1943

UK

GCHQ

Soviet Union west of Urals, Africa

BRUSA agreement 1943

AUSTRALIA

DSD

Neighbour countries , southern China, nations of Indochina

UKUSA Alliance since 1948

CANADA

CSE

Polar regions of Russia

UKUSA Alliance since 1948,

CANUS agreement 1950

NEW ZEALAND

GCSB

Western Pacific

UKUSA Alliance since 1948



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ECHELON Main Stations

Location

Country

Target/Task

Relations

MORWENSTOW

UK

INTELSAT, Atlantic, Europe, Indian Ocean

NSA, GCHQ

SUGAR GROVE

USA

INTELSAT, Atlantic, North and South America

NSA

YAKIMA FIRING CENTER

USA

INTELSAT, Pacific

NSA

WAIHOPAI

NEW ZEALAND

INTELSAT, Pacific

NSA, GCSB

GERALDTON

AUSTRALIA

INTELSAT, Pacific

NSA, DSD

















MENWITH HILL

UK

Sat, Groundstation, Microwave(land based)

NSA, GCHQ

SHOAL BAY

AUSTRALIA

Indonesian Sat

NSA, DSD

LEITRIM

CANADA

Latin American Sat

NSA, CSE

BAD AIBLING

GERMANY

Sat, Groundstation

NSA

MISAWA

JAPAN

Sat

NSA

















PINE GAP

AUSTRALIA

Groundstation

CIA

















FORT MEADE

USA

Dictionary Processing

NSA Headquarters

WASHINGTON

USA

Dictionary Processing

NSA

OTTAWA

CANADA

Dictionary Processing

CSE

CHELTENHAM

UK

Dictionary Processing

GCHQ

CANBERRA

AUSTRALIA

Dictionary Processing

DSD

WELLINGTON

NEW ZEALAND

Dictionary Processing

GCSB Headquarters



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ECHELON Interception Targets

Source: http://www.gn.apc.org/duncan/stoa.htm

Subsea Cables:

They provided the first major reliable high capacity international communications systems. Early systems (copper) were very limited in their broadband capacities, modern optical fibber systems can carry up to 5 Gigabit per second of digital information. In the days of copper cables the US started cable tapping operations with specially designed submarines, such as the US Submarine Halibut or USS Parche. Deep sea divers wrapped tapping coils around the cables and laid high capacity recording pods next to the cable in the sea of Okhotsk, USSR. Optical fibre cables do not leak radio signals and therefor cannot be tapped. It is said that there are experiments with optoelectronic repeaters, but their use as a tapping device is not yet officially possible.

The main method of transmitting large quantities of public, business and government communications is still the combination of subsea cables across the oceans and microwave networks over land. After the undersea cables emerge from the water they are very vulnerable to interception.

Microwave Radio:

It was introduced in the 1950 to provide high capacity inter-city communications for telephony, telegraphy and television. Microwave radio relay communications utilize low power transmitters and parabolic dish antennas. Relay stations are required every 30-50km in line of sight, usually form hilltop to hilltop. Microwave radio signals are not reflected from the ionosphere, so long distance relay links may require intermediate stations to receive and retransmit the signals. Satellites are also used as relay stations. The worldwide network of interception facilities is still mostly undocumented, because the facilities don't use large aerials and dishes, which are difficult to hide. Interception only requires a building situated along the microwave route or a cable running underground. One of the biggest stations in this context is Menwith Hill, UK.

High Frequency Radio:

Prior to 1960 the HF radio system was the most common means of telecommunication, especially for diplomatic and military purposes. High-frequency radio communication signals travel to receivers over the horizon by bouncing off the ionosphere. A powerful HF radio transmitter can transmit around the whole planet, which is why it is still widely used by military forces, ships and aircraft, as well as diplomatic communications, such as embassies. HF radio transmissions are very vulnerable to reception and interception. VHF and UHF are used extensively for tactical military communications within a country. COMINT (Communication Intelligence) Units mainly used either directional (such as Rhombic Arrays)or omnidirectional antenna arrays for HF radio interception.

The AN/AX-16 PUSHER is a 2-band Wullenweber Circularly Disposed Dipole Array HF/DF system collection system which is a miniaturized version of the Navy's AN/FRD-10 antenna. Used primarily in the United Kingdom where space is a premium, the outer ring of elements is about 400 feet in diameter, half the diameter of the AN/FRD-10.

The AN/FLR-9 circularly disposed antenna array (CDAA), popularly known as elephant cages, have a nominal range between 150 to 5000 kilometers and are omnidirectional in 3 band. They are used to locate and intercept signals ranging from low band, (submarine traffic) to the high band (radio, telephone). AN/FLR-9 antennas were installed at interception stations at: Augsburg, Germany; RAF Chicksands, UK;Clark AFB, Phillipines; Elmendorf AFB, AK; Menwith Hill, UK; Misawa AFB, Japan; San Vito dei Normanni AS, Italy

Communication Satellites:

Satellite Communication Systems allow the high speed transmission of telephone calls, television pictures and news around the globe. This use of satellites was established at the same time as the development of weather satellites - from the 1960's onwards. Groundstations located near to commercial Satellite sites (Inmarsat, Comsat, ..) are perfect for intercepting telecommunications. During the 1970s only two stations were required to monitor all the INTELSAT communications in the world. The GCHQ station in Morwenstow, UK for example is located near to the British Telecom site at Goonhilly, had 2 dishes pointed at the Atlantic and the Indian Ocean INTELSATs (now there are 9 dishes and is also monitoring regional satellites.)and the NSA station at Yakima Firing Center, USA monitored the Pacific INTELSAT. When visited in 1995 the Yakima station already had 5 dishes, pointing westwards over the Pacific Ocean and via INMARSAT2 (for mobile satellite communications), eastwards to the Atlantic INTELSATs. But satellite technology evolved very fast, and the changes in the satellite design forced the construction of at least 2 new stations: Sugar Grove (USA; NSA) and Hongkong (UK; GCHQ) in the late 1970s. By the time INTELSAT introduced the 7th generation of satellite in the mid 1990s, the UKUSA alliance was busy opening more satellite interception stations throughout the world. The most important ones were: Waihopai, NZ; Geraldton, Australia; and upgraded Menwith Hill, UK.

The UKUSA alliance launched especially designed COMINT satellites to provide permanent coverage of selected targets as overhead signals intelligence collectors that can tap directly into land-based telecommunications, but also tap into other satellites. Those spy satellites are developed to intercept communications from orbit above the earth. They move either in orbits that are changeable or are fixated above the equator in geostationary orbit. CANYON and RHYOLITE are the names of typical US spy satellites.

The National Security Agency operates a global network of ground stations for the interception of civil and military satellite communications traffic.

Bad Aibling, Germany, conducts satellite communications interception activities, and is also a downlink station for geostationary SIGINT satellites.

Menwith Hill, located 13 kilometers west of Harrogate, UK, collects against Russian satellite communications under Project MOONPENNY, and is also a

downlink station for geostationary SIGINT satellites, such as VORTEX.

Misawa Air Base, Misawa, Japan, satellite communications intercept activities include collecting against Russian Molniya, Raduga and Gorizont systems under

project LADYLOVE at a facility 6 kilometers northwest of the main airfield, known as the "Hill."

Rosman Communications Research Station, near Rosman, NC, had twelve antennas for satellite communications interception, for communications connectivity with other intelligence facilities, and possibly also for downlinks from geostationary SIGINT satellites. Rosman Research Station, operated by NASA in the 60s as a tracking station and more recently by the National Security Agency of the Department of Defense, will become an astronomy education and

research facility called Pisgah Astronomical Research Institute (PARI).

Additional COMSAT intercept activities are conducted at Geraldton, Australia, and Bude, in Corwall, UK. The Bad Aibling and Menwith Hill facilities are also used for downlink of high altitude SIGINT satellite product, as are facilities at Pine Gap, Australia, and Buckley Air National Guard Base, Colorado.

Other NSA facilities, including: Clark AFB, Philippines; Sinope, Turkey; Heraulion, Greece; Berlin, Germany; and Eielson AFB, AK, have closed, and others, such as San Vito dei Normani, Italy, have transfered to other agencies (in this case, to Air Force Space Command).

Internet:

Internet traffic can be accessed either from international communications links entering the United States, or when it reaches major Internet exchanges. Both methods have advantages. Access to communications systems is likely to be remain clandestine - whereas access to Internet exchanges might be more detectable but provides easier access to more data and simpler sorting methods. Although the quantities of data involved are immense, NSA is normally legally restricted to looking only at communications that start or finish in a foreign country. Unless special warrants are issued, all other data should normally be thrown away by machine before it can be examined or recorded.

Similar considerations affect the World Wide Web, most of which is openly accessible. Web sites are examined continuously by "search engines" which generate catalogues of their contents. "Alta Vista" and "Hotbot" are prominent public sites of this kind. NSA similarly employs computer "bots" (robots) to collect data of interest.

According to a former employee, NSA had by 1995 installed "sniffer" software to collect traffic such as e-mail, file transfers, "virtual private networks" operated over the internet, and some other messages at major Internet exchange points (IXPs). The first two such sites identified, FIX East and FIX West, are operated by US government agencies. They are closely linked to nearby commercial locations, MAE East and MAE West. Three other sites listed were Network Access Points originally developed by the US National Science Foundation to provide the US Internet with its initial "backbone".

Source:

http://www.gn.apc.org/duncan/stoa.htm

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ECHELON and COMSAT

COMSAT Communications Satellite Cooperation

http://www.comsat.com/

Until this decade the U.S.-based Comsat, Intelsat and Inmarsat organizations, in fact, shared nearly all international satellite traffic. So it was easy for NSA to eavesdropping on all communications to and from the United states. Less than 60 miles from Sugar Grove COMSAT runs a station in Etam, West Virginia, where more than half of the commercial, international satellite communication entering and leaving the US each day pass by. COMSAT provides international communications solutions via the global, 19-satellite INTELSAT system and 4-satellite Inmarsat satellite systems .

Through the INTELSAT system, COMSAT provides telecommunications, broadcast and digital networking services between the U.S. and the rest of the world. These services are used by Internet service providers, multinational corporations, telecommunications carriers and U.S. and foreign governments to extend their networks globally.

Inmarsat satellites lie in geostationary orbit 22,223 miles (35,786 km) out in space. Each satellite covers up to one third of the Earth's surface and is strategically positioned above one of the four ocean regions.

Calls are beamed up to the satellite and back down to Earth, where special gateway land earth stations re-route them through the appropriate local or international telephone network. COMSAT operates Earth Stations in each part of the world to route calls efficiently within each ocean region. Earth Stations are located in Santa Paula, California; Southbury, Connecticut; Ankara, Turkey; and Kuantan, Malaysia.

Sugar Grove Naval Communications Facility, near Sugar Grove, WV, may intercept Pacific INTELSAT/COMSAT satellite communications traffic routed through the COMSAT ground station at Etam, WV.

NSG station in Winter Harbor, Maine serves as an excellent platform from which to intercept signals to and from COMSATs Andover station, 125 miles to the west.

On the Westcost, COMSATs northern groundstation is situated in Brewster, near to Yakima, so from the Yakima Research Station the Pacific INTELSAT communications traffic can be intercepted.

The other west-coast station is in Jamesburg, California, not so far away from the Army Security Agency intercept station at Two Rock Ranch.

The international communications network with its limited gateways will probably always be easier to monitor than the large domestic networks like in the US. But the use of microwave and domestic satellites is increasing, and the construction of land lines is decreasing.

Sources:

STOA Report by Duncan Campbell: Interception Capabilities 2000 http://www.gn.apc.org/duncan/stoa.htm

James Bamford, The Puzzle Palace, Boston, Houghton Mifflin, 1982,p222-228

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ECHELON Corporations involved in Intelligence Business

The US intelligence community includes not only government agencies but many very influential private contractors.

"Orbit of Influence: Spy Finance and the Black Budget," written by Robert Dreyfuss in the March-April 1996 issue of The American Prospect provides an excellent introduction to this hitherto under-appreciated subject.

Sources:

http://www.prospect.org/archives/25/25drey.html

http://www.fas.org/irp/contract/index.html

Involved corporations:

The following companies are said to be NSA and NRO contractors and main suppliers of the diverse technologies needed for a global surveillance system.

Lockheed Martin

http://www.lockheedmartin.com/

Core Business Areas: Aeronautical Systems, Space Systems, Systems Integration, Technology Services

Related Non-core Busineess Areas: Global Telecommunications, Commercial IT, Government Services

Sales: $26.2 billion

Sales by customer in '98: U.S. Department of Defense - 54%, Commercial/government/NASA/other - 23%, International - 23%

Employees:Nearly 160,000 employees in the United States, and over 5,500 employees working internationally

Operations:939 facilities in 457 cities and 45 states throughout the U.S.; Internationally, business locations in 56 nations and territories

Headquarters:

Lockheed Martin Corporation

6801 Rockledge Drive

Bethesda, MD 20817

USA

(It is said that Lockhead Martin receives ca. 3,5 billion $ from NRO budget and is well known as a powerful financier of congressional campaigns.)

TRW

http://www.trw.com/trw_profile/

TRW Inc. provides high-technology products and services to the automotive and space, defense & information systems markets. The financial results of the company's operations are reported in two core business segments: Automotive and Space, Defense & Information Systems.

Concerning Intelligence Systems TRW provides a broad range of intelligence collection processing,analysis and reporting systems to the United States government and allied nations. A prime supplier of critical systems and technology to the intelligence community, TRW has been a preferred supplier to this market for over 40 years. The company is applying its systems engineering skills to all phases of the intelligence business including a strong analysis and signal processing base, design, development, deployment and operations support of collection systems operations and full lifecycle support. TRW has a strong SIGINT base and significant IMINT and MASINT program skills as well.

TRW developed a constellation of satellites that provides near continuous tracking and communications service for up to 32 satellites simultaneously. Operating through a dedicated ground station, each Tracking and Data Relay Satellite (TDRS) permits direct two-way communications between the shuttle or other user satellites and the ground. TRW provided seven TDRS satellites to NASA. The oldest, on orbit since 1983, is still functional; the total system operates at 99.97 percent reliability.

The Milstar communications network - a series of advanced satellites linked to group terminals - promises assured command and control to U.S. forces worldwide. TRW is providing the heart of the spaceborne segment: a low date rate payload offering secure, antijam, interoperable voice and data links; and the antenna and digital subsystem for the medium data rate payload, accommodating secure voice and data, imaging and targeting intelligence.

By combining forces with the information technology leader BDM, International, TRW has formed the new organization, TRW Systems & Information Technology Group. The Senior Executive and General Manager is Philip Odeen who has served as President, Chief Executive Officer, and a Director of BDM International, Inc. since May 1992. Mr. Odeen was with Coopers & Lybrand, an international auditing and consulting company, as Vice Chairman, Management Consulting Services from 1991 to 1992, and as Managing Partner from 1978 to 1991. Mr. Odeen has served in a number of government positions, including Director, Program Analysis, National Security Council, and Principal Deputy Assistant Secretary of Defense. He has also servered as the Chairman of the Defense Science Board's task force on privatization.

TRW developed and built RHYOLITE for NSA to eavesdrop electronically on foreign countries, especially the eastern Soviet Union, China and Soviet test ranges in the Pacific. Ist main target was TELINT (telemetry intelligence).But it also reached into the other countries' telecom systems. Each satellite carried antennas for sucking foreign microwave signals. (DB p184)

Rockwell

http://www.rockwell.com/

Rockwell is a world leader in electronic controls and communications. Rockwell has two primary businesses- Rockwell Automation and Avionics & Communications, which includes Rockwell Collins and Rockwell Electronic Commerce.

Annual Sales: $6.8 billion

World Headquarters: Milwaukee, WI

Employees: About 40,000

Rockwell Collins plays a major role in the manufacturing of satellite technologies.

Hughes

http://www.hughes.com/

Hughes Space and Communications Company (HSC) has built nearly 40 percent of the world's commercial communications satellites in operation today.

These spacecraft routinely relay digital communications, telephone calls, video conferences, television news reports, facsimiles, television programming, mobile communications, and direct-to-home entertainment--truly global communications.

Hughes Network Systems Inc. provides telecommunications equipment, satellite ground-based equipment and satellite communications services. With an

estimated worldwide market share in excess of 60 percent, Hughes Network Systems is the world's leading supplier of satellite-based private business

networks, and is a leader in wireless telephone networks and digital cellular mobile systems.

PanAmSat Corporation operates a global network of 19 state-of-the-art satellites that provide broadcast and telecommunications services to hundreds of customers worldwide. PanAmSat's fleet includes the premier cable and broadcast television satellites in the United States, Latin America, the Indian subcontinent and Asia-Pacific. The company offers satellite platforms for direct-to-home television services in Latin America, South Africa, India, Taiwan, and specialized programming in the United States as well as live transmission services for news, sports and special events coverage worldwide. PanAmSat also provides global satellite-based telecommunications services and Internet access and plans to launch seven additional satellite by late 2000.

Hughes Electronics is a global company with 15,000 employees worldwide. The 1998 revenues of Hughes communications and space operations were

$5.96 billion with earnings of $272 million.

Boeing

http://www.boeing.com/

The Boeing Company, after its merger in 1997 with McDonnell Douglas and acquisition in 1996 of the defense and space units of Rockwell International, became the largest aerospace company in the world. Its history mirrors the history of aviation. Boeing is the world's largest manufacturer of commercial jetliners and military aircraft, and the nation's largest NASA contractor. Company revenues for 1996 were $22.7 billion; for 1997 they were $45.8 billion, and for 1998 they reached $56.2 billion.

The company has an extensive global reach with customers in 145 countries, employees in more than 60 countries and operations in 27 states. Worldwide, Boeing and its subsidiaries employ more than 205,000 people -- with major operations in the Seattle-Puget Sound area of Washington state; Southern California; Wichita, Kan.; and St. Louis, Mo.

Boeing is organized into four major business segments: Commercial Airplanes, Space and Communications, Military Aircraft and Missiles, and Shared Services.

In the area of commercial space, Boeing teamed with Teledesic Corp. to create a satellite network that will serve as an "Internet-in-the-sky," by bringing affordable, fiber-quality access to the most remote reaches of the planet. Boeing revolutionized precision navigation by building the first 40 Global

Positioning System satellites and has a contract to build 33 next-generation Global Positioning Satellites. Boeing is teamed with partners from Russia, Ukraine and Norway on the Sea Launch joint venture which will launch satellites from a mobile platform in the Pacific Ocean. Boeing also makes the

Delta II and III expendable launch vehicles and is developing the Delta IV.

E-Systems

http://www.e-systems.com/

General Dynamics

http://www.generaldynamics.com/

General Dynamics is a leader in supplying sophisticated defense systems to the United States and its allies, and in providing advanced business aircraft to corporate, government and individual owners. The company is headquartered in Falls Church, Virginia, and employs approximately 44,000 people in the United States, Canada, Mexico and the United Kingdom.

General Dynamics has four main business segments. Marine Systems designs and builds submarines, surface combatants, auxiliary ships and large commercial vessels. Combat Systems supplies land and amphibious combat machines and systems, including armored vehicles, power trains, turrets, munitions and gun systems. Information Systems and Technology produces signal and information processors and battlespace information management systems, while incorporating the use of commercial technologies for military applications. Aerospace designs manufactures and provides services for large cabin and ultra-long range business aircraft.

UNISYS CORPORATION

http://www.unysis.com/

http://www.federal.unisys.com/

Unisys has more than 33,000 employees and applies information technology in 100 countries. Unisys products range from global information services including systems integration, outsourcing, "repeatable" application solutions, consulting, network integration, remote network management, and multivendor maintenance and support, coupled with enterprise-class servers and associated middleware, to software and storage.

Repeatable solutions are focused on key vertical markets including financial services, transportation, telecommunications, government, publishing and other commercial markets. Headquartered in Blue Bell, Pennsylvania, in the Greater Philadelphia area, Unisys had 1998 annual revenue of $7.2 billion.

Wang - Getronics

http://corp.getronics.com/

Wang merged with Getronics and is now one of the world's top five Information and Communications Technology companies business solutions. The Getronics family has branches in 44 countries, that also includes GetronicsWang (US) and GetronicsOlivetti (Italy and Japan).

PRC

http://www.prc.com/

PRC Inc., a subsidiary of Litton Industries, Inc., has more than 5,300

employees in 80 offices worldwide. Litton PRC is a provider of information technology and systems-based solutions for the public sector and an integrator in the design, development and management of standards-based open systems.

The company's core capabilities are in Functional and IT Outsourcing,

E-Business, and Critical Information and Infrastructure Protection. Litton PRC's services include Systems Integration, Software Engineering, Seat Management, Data Warehousing, BPR, Y2K, Systems Engineering, Data Center Design/Analysis, 911 Computer-Aided Dispatch, Complex Imaging and Records Management, C4ISR, Logistics, Infrastructure Planning, Range Operations, ITMRA/GPRA Planning, Health Informatics, and Enterprise Resource Planning. Markets include Criminal Justice, Weather, DoD, Aerospace, Intel, Healthcare, and Public Safety.

Honeywell

http://www.honeywell.com/

Honeywell employs over 57,500 people in 95 countries working in three businesses, all linked by common control technologies:

Home and Building Control: This business represents about 45 percent of Honeywell's total sales. "We are the worldwide leader in products and services that create comfortable, safe, efficient environments--in homes, office buildings, hospitals, schools, and anywhere else people live and work."

Industrial Control: Honeywell is the world's leading supplier of industrial control systems and components that improve productivity, optimize the use of raw materials, comply with environmental regulations, ensure plant safety, and enhance overall competitiveness. The Industrial Control business accounts for about 31 percent of the company's total sales.

Space and Aviation Control: Honeywell is the world's leading supplier of avionics systems for commercial, military and space markets. This business accounts for about 22 percent of total company sales. Honeywell technology has been on board every manned U.S. space flight since Mercury and is on nearly every commercial aircraft flying today.

Honeywell merged with AlliedSignal Inc. (http://www.alliedsignal.com), which is an advanced technology and manufacturing company serving customers worldwide with aerospace products and services, automotive products, chemicals, fibers, plastics and advanced materials. It is one of the 30 stocks that make up the Dow Jones Industrial Average and is also a component of the Standard & Poor's 500 Index. The company employs 70,400 people in some 40 countries.

GTE

http://www.gte.com/

With 1998 revenues of more than $25 billion, GTE is a leading telecommunications provider with one of the industry's broadest arrays of products and services. In the United States, GTE provides local service in 28 states and wireless service in 17 states, as well as nationwide long-distance, directory, and internetworking services ranging from dial-up Internet access for residential and small-business consumers to Web-based applications for Fortune 500 companies. Outside the United States, the company serves customers on five continents.

In 1982, GTE Mobilnet(R) was formed, and two acquisitions brought GTE Sprint Communications and GTE Spacenet to the fore. The year 1984 marked a year of firsts for GTE: the first GTE satellite launched; the first cellular mobile telephone service; and the first time GTE annual earnings exceeded $1 billion.

In 1994 GTE announces that it would combine its GTE Spacenet business with GTE Government Systems.

MCI WorldCom

http://www.wcom.com/

On October 5, 1999 MCI WorldCom and Sprint announced that the boards of directors of both companies have approved a definitive merger agreement.

MCI WorldCom's strategy is to capitalize on the industry's fastest growing segments: data/Internet, international and U.S. local phone services.

70,000 employees based in more than 65 countries serve the company's 22

million customers, specialized in "local-to-global-to-local" networks with facilities throughout North America, Latin America, Europe and the Asia-Pacific region. The company's long association with the Internet has enabled it to develop an Internet business with nearly $3 billion in annualized revenues; The company serves millions of U.S. business and residential customers over a 45,000-mile, all-fiber high capacity nationwide network, enough fiber to stretch from San Francisco to Washington, D.C. 16 times. UUNET supplements MCI WorldCom's Internet and technology operations.

MCI WorldCom provides fully integrated services over the first pan-European telecommunications network linking major commercial centers throughout the continent -- London, Paris, Frankfurt, Brussels, Amsterdam, Stockholm, Rotterdam and Düsseldorf -- through local city networks connected to its 2,000 (3,218 km) mile trans-continental long distance network.

MCI WorldCom says to triple the size of its all-fiber, high-capacity pan-European network to nearly 7,000 miles (11,263 km) by the end of 1999 through nationwide networks under development in Great Britain, France, Belgium and Germany. The company holds 50 percent ownership in two high capacity trans-Atlantic undersea cables enabling it to connect more than 35,000 buildings in the U.S. and 6,500 buildings in Europe.

Data General

http://www.dg.com/

Data General, with headquarters in Westborough, Massachusetts, is a supplier of servers, storage systems, and services for information systems users

worldwide. The company designs, manufactures, markets, and supports two major

families of open systems, AViiON® servers and CLARiiON® mass storage products,

which represent over 90 percent of current product revenues.

Data General focuses on providing high-end enterprise computing solutions for

businesses of all sizes, healthcare providers, government agencies, and companies in manufacturing, distribution, financial services, and telecommunications in more than 70 countries through a network of subsidiaries, distributors, and representatives. Since the founding in 1968, it has delivered more than 500,000 servers and storage systems worldwide.

Data General merged with EMC Corporation, which is, with 11,200 employees worldwide and over $3.9 billion in annual revenue in 1998, a leading supplier of intelligent enterprise storage and retrieval technology, designing systems for open system, mainframe, and midrange environments. EMC's Enterprise Storage products allow organizations to leverage their growing volumes of information into profitability and competitive advantage.

PSI

http://www.psinet.com/

PSINet is another large provider of IP-based communications services for business. Their services include:

Corporate Internet access and private IP networks

Managed Internet security

Web and database hosting services

Electronic commerce solutions

Voice, fax, live audio-video, and other applications

PSINet delivers these services to small and medium-sized businesses as well as a quarter of the Fortune 500. The customers also include government agencies, educational institutions, and information services companies.

PSINet operates one of the industry's largest and most advance fast-packet Internet access networks. PSINet is the only independent facilities-based ISP in the world.

Headquartered in suburban Washington, D.C., with more than 600 points-of-presence and operations in United States, Canada, Europe, Latin America and Asia.

http://www.spiegel.de/netzwelt/telekommunikation/0,1518,46478,00.html:

PSINet announced at the International Telecommunications Show TELECOM99 in Geneva that it will provide customers in Germany with wireless broadband microwave connections before the millenium. This carrier is more than 2000 times faster than ISDN and offers datarates around 155 Mbit. Radioconnections could be installed in 5 workdays. With this plan it seems that PSINet wants to bypass the monpoly of the still sate-owned telecom corporations in Europe. So the distance between the location of the customer and the next POP (Point of Presence)of PSINet is operated with frequencies in the microwave spectrum (28-38 GHz).

MITRE Corp.

http://www.mitre.org/

In partnership with government clients, MITRE is a not-for-profit corporation working in the public interest. It addresses issues of critical national importance, combining systems engineering and information technology.

MITRE's work is focused within three Federally Funded Research and Development Centers (FFRDCs). One FFRDC performs systems engineering and integration work for Department of Defense C3I. A second performs systems research and development work for the Federal Aviation Administration and other civil aviation authorities. The third FFRDC provides strategic, technical and program management advice to the Internal Revenue Service and the Treasury Department. Mitre Corp. operates sites in the US and Europe at important strategic locations related to the intelligence community.

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Feeding the data body

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Global data bodies - intro

- Education files, insurance files, tax files, communication files, consumption files, medical files, travel files, criminal files, investment files, files into infinity ...

Critical Art Ensemble

Global data bodies

1. Introduction

Informatisation has meant that things that once were "real", i.e. whose existence could be experienced sensually, are becoming virtual. Instead of the real existence of a thing, the virtual refers to its possibility of existence. As this process advances, an increasing identification of the possible with the real occurs. Reality migrates into a dim and dematerialised grey area. In the end, the possible counts for the real, virtualisation creates an "as-if" experience.

The experience of the body is also affected by this process. For example, in bio-technology, the human body and its functions are digitised, which prepares and understanding of the body exlusively in terms of its potential manipulation, the body becomes whatever it could be. But digitisation has not only affected the understanding and the social significance of the body, it has also altered the meaning of presence, traditionally identified with the body. The advance of information and communication technologies (ICTs) has meant that for an increasing number of activities we no longer need be physically present, our "virtual" presence, achieved by logging onto a electronic information network, is sufficient.

This development, trumpeted as the pinnacle of convenience by the ICT industries and governments interested in attracting investment, has deeply problematic aspects as well. For example, when it is no longer "necessary" to be physically present, it may soon no longer be possible or allowed. Online-banking, offered to customers as a convenience, is also serves as a justification for charging higher fees from those unwilling or unable to add banking to their household chores. Online public administration may be expected to lead to similar effects. The reason for this is that the digitalisation of the economy relies on the production of surplus data. Data has become the most important raw material of modern economies.

In modern economies, informatisation and virtualisation mean that people are structurally forced to carry out their business and life their lives in such a way as to generate data.

Data are the most important resource for the New Economy. By contrast, activities which do not leave behind a trace of data, as for example growing your own carrots or paying cash rather than by plastic card, are discouraged and structurally suppressed.

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Data body mealplan

Here is an example of how the data body is fed by routine day-to-day activities, a data body meal plan:

Breakfast: phone calls, drive GPS (global positioning system) equipped car, emerge from surveillance camera equipped subway, go online, send E-mails, complete online registration forms, receive faxes

Lunch: pay lunch with credit card, use your customer card when shopping, use mobile phone, pass through biometric access controls, use smart card

Afternoon snack: visit doctor, file insurance claim

Dinner: respond to TV commercials, complete income tax form, visit chat rooms, use free web mail. Programme phone wake-up call.

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Like that car? The tricks of the data body industry

2. Like that car? The tricks of the data body industry

In the New Economy, data have become a primary resource. Businesses unable to respond to the pressure of informatisation are quickly left behind. "Information is everything" has become the war-cry of the New Economy. More than ever, business companies now collect data related to their customers, their competitors, economic indicators, etc., and compile them in data warehouses. Large amounts of data acquired can be turned into a systematic collection called a data warehouse through data mining techniques. These data can be used for marketing, stock exchange transactions, risk assessment, and many other purposes.

However, there are also many companies that specialise in data body economics as the main line of business. They collect huge amount of data process and enhance them (thereby increasing the value of the data) and offer them on to other companies. Direct marketing companies belong to this category. Direct marketing companies carry out targeted marketing, also called strategic marketing, aimed at individual customers or groups of customers. This process is based on a consumer profile, a collection of data containing personal information such as age, sex, marital status, employment, address, and information about consumer and payment behaviour. Based upon this profile, conclusions regarding possible future consumption are drawn and offers are made.

For example, somebody who has been attracted by a car on display in an airport terminal and completes a card with name and address to participate in a draw reveals a lot of economically valuable information about him / herself. Apart from name and address, and other data that is completed on the card, this person also can be assumed to be a potential car buyer (evidently he / she wants a car) and to be relatively affluent (the poor do not normally travel by plane). The time when you complete the card also provides information: in July and August, you are more likely to be a holiday maker than in November. Possibly in small print somewhere on the ticket you complete you agree to receive more information about this and other products, and you agree also that your data are "electronically processed". The data acquired this way can normally be expected to be much more valuable than the car the is offered in the draw. Most people who completed the cards will not win in the draw, but instead end up on directs marketing data warehouses and one day receive offers of products and services which they never knew they wanted.

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Transparent customers. Direct marketing online



This process works even better on the Internet because of the latter's interactive nature. "The Internet is a dream to direct marketers", said Wil Lansing, CEO of the American retailer Fingerhut Companies. Many services require you to register online, requiring users to provide as much information about them as possible. And in addition, the Internet is fast, cheap and used by people who tend to be young and on the search for something interesting.

Many web sites also are equipped with user tracking technology that registers a users behaviour and preferences during a visit. For example, user tracking technology is capable of identifying the equipment and software employed by a user, as well as movements on the website, visit of links etc. Normally such information is anonymous, but can be personalised when it is coupled with online registration, or when personal identifcation has been obtained from other sources. Registration is often a prerequisite not just for obtaining a free web mail account, but also for other services, such as personalised start pages. Based on the information provided by user, the start page will then include advertisements and commercial offers that correspond to the users profile, or to the user's activity on the website.

One frequent way of obtaining such personal information of a user is by offering free web mail accounts offered by a great many companies, internet providers and web portals (e.g. Microsoft, Yahoo, Netscape and many others). In most cases, users get "free" accounts in return for submitting personal information and agreeing to receive marketing mails. Free web mail accounts are a simple and effective direct marketing and data capturing strategy which is, however, rarely understood as such. However, the alliances formed between direct advertising and marketing agencies on the one hand, and web mail providers on the other hand, such as the one between DoubleClick and Yahoo, show the common logic of data capturing and direct marketing. The alliance between DoubleClick and Yahoo eventually attracted the US largest direct marketing agency, Abacus Direct, who ended up buying DoubleClick.

However, the intention of collecting users personal data and create consumer profiles based on online behaviour can also take on more creative and playful forms. One such example is sixdegrees.com. This is a networking site based on the assumption that everybody on the planet is connected to everybody else by a chain of six people at most. The site offers users to get to know a lot of new people, the friends of their friends of their friends, for example, and if they try hard enough, eventually Warren Beatty or Claudia Schiffer. But of course, in order to make the whole game more useful for marketing purposes, users are encouraged to join groups which share common interests, which are identical with marketing categories ranging from arts and entertainment to travel and holiday. Evidently, the game becomes more interesting the more new people a user brings into the network. What seems to be fun for the 18 to 24 year old college student customer segment targeted by sixdegrees is, of course, real business. While users entertain themselves they are being carefully profiled. After all, data of young people who can be expected to be relatively affluent one day are worth more than money.

The particular way in which sites such as sixdegrees.com and others are structured mean that not only to users provide initial information about them, but also that this information is constantly updated and therefore becomes even more valuable. Consequently, many free online services or web mail providers cancel a user's account if it has not been uses for some time.

There are also other online services which offer free services in return for personal information which is then used for marketing purposes, e.g. Yahoo's Geocities, where users may maintain their own free websites, Bigfoot, where people are offered a free e-mail address for life, that acts as a relais whenever a customer's residence or e-mail address changes. In this way, of course, the marketers can identify friendship and other social networks, and turn this knowledge into a marketing advantage. People finders such as WhoWhere? operate along similar lines.

A further way of collecting consumer data that has recently become popular is by offering free PCs. Users are provided with a PC for free or for very little money, and in return commit themselves to using certain services rather than others (e.g. a particular internet provider), providing information about themselves, and agree to have their online behaviour monitored by the company providing the PC, so that accurate user profiles can be compiled. For example, the Free PC Network offers advertisers user profiles containing "over 60 individual demographics". There are literally thousands of variations of how a user's data are extracted and commercialised when online. Usually this happens quietly in the background.

A good inside view of the world of direct marketing can be gained at the website of the American Direct Marketing Association and the Federation of European Direct Marketing.

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Dos and donts of the data body economy

Do

Don't

use plastic money





pay cash





tansfer money through bank

shop online





buy in small independent shops

consume life style products

display an unpredictable consumer behaviour





complete registration forms





refuse to register or provide erroneous data

have an insurance against everything









accept risk

constantly use mobile communication equipment





prefer face-to-face communication

drive a car equipped with a GPS terminal





use other means of transportation

willingly provide personal information





have privacy concerns



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Online data capturing

Hardly a firm today can afford not to engage in electronic commerce if it does not want to be swept out of business by competitors. "Information is everything" has become something like the Lord's prayer of the New Economy. But how do you get information about your customer online? Who are the people who visit a website, where do they come from, what are they looking for? How much money do they have, what might they want to buy? These are key questions for a company doing electronic business. Obviously not all of this information can be obtained by monitoring the online behaviour of web users, but there are always little gimmicks that, when combined with common tracking technologies, can help to get more detailed information about a potential customer. These are usually online registration forms, either required for entry to a site, or competitions, sometimes a combination of the two. Obviously, if you want to win that weekend trip to New York, you want to provide your contact details.

The most common way of obtaining information about a user online is a cookie. However, a cookie by itself is not sufficient to identify a user personally. It merely identifies the computer to the server by providing its IP number. Only combined with other data extraction techniques, such as online registration, can a user be identified personally ("Register now to get the full benefit of xy.com. It's free!")

But cookies record enough information to fine-tune advertising strategies according to a user's preferences and interests, e.g. by displaying certain commercial banners rather than others. For example, if a user is found to respond to a banner of a particular kind, he / she may find two of them at the next visit. Customizing the offers on a website to the particular user is part of one-to-one marketing, a type of direct marketing. But one-to-one marketing can go further than this. It can also offer different prices to different users. This was done by Amazon.com in September 2000, when fist-time visitors were offered cheaper prices than regular customers.

One-to-one marketing can create very different realities that undermine traditional concepts of demand and supply. The ideal is a "frictionless market", where the differential between demand and supply is progressively eliminated. If a market is considered a structure within which demand / supply differentials are negotiated, this amounts to the abolition of the established notion of the nature of a market. Demand and supply converge, desire and it fulfilment coincide. In the end, there is profit without labour. However, such a structure is a hermetic structure of unfreedom.

It can only function when payment is substituted by credit, and the exploitation of work power by the exploitation of data. In fact, in modern economies there is great pressure to increase spending on credit. Using credit cards and taking up loans generates a lot of data around a person's economic behaviour, while at the same restricting the scope of social activity and increasing dependence. On the global level, the consequences of credit spirals can be observed in many of the developing countries that have had to abandon most of their political autonomy. As the data body economy advances, this is also the fate of people in western societies when they are structurally driven into credit spending. It shows that data bodies are not politically neutral.

The interrelation between data, profit and unfreedom is frequently overlooked by citizens and customers. Any company in a modern economy will apply data collecting strategies for profit, with dependence and unfreedom as a "secondary effect". The hunger for data has made IT companies eager to profit from e-business rather resourceful. "Getting to know the customer" - this is a catchphrase that is heard frequently, and which suggests that there are no limits to what a company may want to about a customer. In large online shops, such as amazon.com, where customer's identity is accurately established by the practice of paying with credit cards, an all business happens online, making it easy for the company to accurately profile the customers.

But there are more advanced and effective ways of identification. The German company Sevenval has developed a new way of customer tracking which works with "virtual domains". Every visitor of a website is assigned an 33-digit identification number which the browser understands as part of the www address, which will then read something like http://XCF49BEB7E97C00A328BF562BAAC75FB2.sevenval.com. Therefore, this tracking method, which is advertised by Sevenval as a revolutionary method capable of tracking the exact and complete path of a user on a website, can not be simple switched off. In addition, the method makes it possible for the identity of a user can travel with him when he / she visits one of the other companies linked to the site in question. As in the case of cookies, this tracking method by itself is not sufficient to identify a user personally. Such an identification only occurs once a customer pays with a credit card, or decides to participate in a draw, or voluntarily completes a registration form.

Bu there are much less friendly ways of extracting data from a user and feeding the data body. Less friendly means: these methods monitor users in situations where the latter are likely not to want to be monitored. Monitoring therefore takes place in a concealed manner. One of these monitoring methods are so-called web bugs. These are tiny graphics, not more than 1 x 1 pixel in size, and therefore invisible on a screen, capable of monitoring an unsuspecting user's e-mails or movements on a website. Leading corporations such as Barnes and Noble, eToys, Cooking.com, and Microsoft have all used web bugs in advertising campaigns. Richard Smith has compiled a web bugs FAQ site that contains detailed information and examples of web bugs in use.

Bugs monitoring users have also been packaged in seemingly harmless toys made available on the Internet. For example, Comet Systems offers cursor images which have been shown to collect user data and send them back to the company's server. These little images replace the customary white arrow of a mouse with a little image of a baseball, a cat, an UFO, etc. large enough to carry a bug collecting user information. The technology is offered as a marketing tool to companies looking for a "fun, new way to interact with their audience".

The cursor image technology relies on what is called a GUID (global unique identifier). This is an identification number which is assigned to a customer at the time of registration, or when downloading a product. Many among the online community were alarmed when in 1999 it was discovered that Microsoft assigned GUIDS without their customer's knowledge. Following protests, the company was forced to change the registration procedure, assuring that under no circumstances would these identification numbers be used for tracking or marketing.

However, in the meantime, another possible infringement on user anonymity by Microsoft was discovered, when it as found out that MS Office documents, such as Word, Excel or Powerpoint, contain a bug that is capable of tracking the documents as they are sent through the net. The bug sends information about the user who opens the document back to the originating server. A document that contains the bug can be tracked across the globe, through thousands of stopovers. In detailed description of the bug and how it works can be found at the Privacy Foundation's website. Also, there is an example of such a bug at the Privacy Center of the University of Denver.

Of course there are many other ways of collecting users' data and creating appropriating data bodies which can then be used for economic purposes. Indeed, as Bill Gates commented, "information is the lifeblood of business". The electronic information networks are becoming the new frontier of capitalism.

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Who are you?

Who are you?

Direct marketing companies have many othe ways of appropriating data bodies. Allowing form regional and national variations, data are obtained from registration cards, telephone directories, social insurance data bass, religious groups, educational institutions, trade unions, registry offices, banks and of course from the date trace left behind in digital environments, e.g. by clicking on an advertising banner. Direct marketing companies collect als this data systemtically and enhance them, i.e. they associate a range of different indicators with a person's name. Techniques used range from simple inferences ("if you are German and your name is Claudia, you are 80 % likely to be between 25 and 33 years old") to complicated data mining programmes such as Knowledge Seeker, Enterprise Miner, or Scenario. Indicators include

    postal address

    sex

    size of household

    age group

    purchasing power

    neighbourhood quality

    size of town

    region

    professional and academic titles

    phone and fax numbers

    e-mail address

    pronness for mail-order purchasing

    number of children

    age of children

    marital status

    purchasing patterns

    investment behaviour

    credit status

    credit history

    convictions

    nature of products and services purchased

    many other social and economic indicators



There can be a hundred or more indicators associated to an individual's name. Direct marketing companies such as Abacus direct and Schober maintain databases that include almost everybody with a social existence. In fact, dirct marketing in increasingly becoming the modern individual's constant companion, starting from birth: in many places, new-born babies receive gift boxes with baby food, toys and other baby products - in return for their personal data.

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Virtual body and data body



The result of this informatisation is the creation of a virtual body which is the exterior of a man or woman's social existence. It plays the same role that the physical body, except located in virtual space (it has no real location). The virtual body holds a certain emancipatory potential. It allows us to go to places and to do things which in the physical world would be impossible. It does not have the weight of the physical body, and is less conditioned by physical laws. It therefore allows one to create an identity of one's own, with much less restrictions than would apply in the physical world.

But this new freedom has a price. In the shadow of virtualisation, the data body has emerged. The data body is a virtual body which is composed of the files connected to an individual. As the Critical Art Ensemble observe in their book Flesh Machine, the data body is the "fascist sibling" of the virtual body; it is " a much more highly developed virtual form, and one that exists in complete service to the corporate and police state."

The virtual character of the data body means that social regulation that applies to the real body is absent. While there are limits to the manipulation and exploitation of the real body (even if these limits are not respected everywhere), there is little regulation concerning the manipulation and exploitation of the data body, although the manipulation of the data body is much easier to perform than that of the real body. The seizure of the data body from outside the concerned individual is often undetected as it has become part of the basic structure of an informatised society. But data bodies serve as raw material for the "New Economy". Both business and governments claim access to data bodies. Power can be exercised, and democratic decision-taking procedures bypassed by seizing data bodies. This totalitarian potential of the data body makes the data body a deeply problematic phenomenon that calls for an understanding of data as social construction rather than as something representative of an objective reality. How data bodies are generated, what happens to them and who has control over them is therefore a highly relevant political question.

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Bureaucratic data bunkers



Among the foremost of the data bunkers government bureaucracies. Bureaucracies are the oldest forms of bunkers and are today deeply engrained in modern societies. Bureaucracies have always had the function of collecting and administering the data of subjects. What make this process more problematic in the age of ICT is that a lot more data can be collected, they can be collected in clandestine ways (e.g. in surveillance situations), and the can be combined and merged using advanced data mining technologies. In addition, there is a greater rationale for official data collecting, as a lot more data is required for the functioning of public administration as in previous periods, as societies rush to adopt increasingly complex technologies, above all ICTs. The increasing complexity of modern societies means that an increasing number of bureaucratic decision is taken, all of which require a calculation process. Complexity, viewed through government spectacles, generates insecurity - a great deal of the bureaucratic activity therefore revolves around the topic of security.

In spite of the anti-bureaucratic rhetoric of most governments, these factors provides the bureaucracies with an increased hold on society. Foremost bureaucratic data bunkers include the following:

    Law enforcement agencies

    Fiscal agencies

    Intelligence agencies

    Social welfare agencies

    Social insurance institutions

    Public health agencies

    Educational institutions



These are agencies that enjoy the privileged protection of the state. Those among them that operate in the field of security are further protected against public scrutiny, as they operate in an area to which democratic reason has no access.

What makes the data repositories of these institutions different from private data bunkers is their "official", i.e. their politically binding and definitive character. CAE speak of the bureaucracy as a "concrete form of uninterruptible, official and legitimised memory."

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Private data bunkers

On the other hand are the data bunkers of the private sector, whose position is different. Although these are fast-growing engines of data collection with a much greater degree of dynamism, they may not have the same privileged position - although one has to differentiate among the general historical and social conditions into which a data bunker is embedded. For example, it can safely be assumed that the databases of a large credit card company or bank are more protected than the bureaucracies of small developing countries.

Private data bunkers include

    Banks

    Building societies

    Credit bureaus

    Credit card companies

    Direct marketing companies

    Insurance companies

    Telecom service providers

    Mail order stores

    Online stores


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Election campaigning and direct marketing

If direct marketing tools works for commercial purposes, why should they not be used in election campaigns? Why not gain people's votes by political statements tailor-cut to suite the attitudes and values of a voter? The Republican Party of Missouri, USA, has already tried it out. As the Washington Post reported on 10 October, 2000, the party purchased personal data from the data body company TransUnion and fed them into a computer programme capable of inferring political likes and dislikes from the kind of social, demographic and economic data warehoused by TransUnion. The software is offered by Map Applications, Inc. and has already been successfully used by the arms lobbying group National Rifle Association. The logic of customised reality of direct marketing is finally beginning to directly affect the democratic process, the consumer merges with the citizen.

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The plastic card invasion

The plastic card invasion.

The tendency of modern data-driven economies is to structure economic activity in such a way that an increasing amount of data is generated. For example, the fact that only a few years ago few people in continental Europe used a credit card, and that now almost everybody who has a bank account also has a credit card, shows that payment by credit card is preferred to anonymous cash transaction. If somebody pays by credit card, there are computers that register the transaction. They record who paid what amount where, and for what purpose. This is valuable information. It allows businesses to "better know their customers". Credit card companies today belong to the largest data repositories anywhere. However, credit card companies have tried to introduce cash cards, or "electronic purses", plastic cards which can be used in lieu of cash in shops - a type of payment, that is not really catching on. In the small town of Ennis, Ireland's "information age town" a field test carried out by Visa, found that people are extremely reluctant to change their cash into bits. "It is just too modern", was the conclusion of an Ennis shopkeeper.

Credit cards may be the most common, but certainly not the only way in which an economic activity produces a data surplus. In the end, the data surplus generated by a credit card is limited to just a few indicators. The tendency of the data body industry is to collect as much data as possible from each single transaction. Therefore, a range of new plastic card applications is emerging.

Most big retailers or service industries, offer customer cards which reward customers with certain discounts or gifts when used frequently. However, the cost of these discounts is easily set off by the value consumer data that is generated each time a card is pulled through the magnetic reading device. Frequent-flyer cards are among the most common plastic data-collecting devices. Often such frequent-flyer cards are also credit cards, in which case travel and consumption data are already combined at the point of sale, creating further rationalisation of the process.

Electronic networks have created a general tendency to move to move marketing decisions to the point of sale, rather than locating them in central locations. This way, the marketing process becomes cheaper and more efficient for the company.

The ideal situation for the data body industry and for government bureaucracy would be a complete centralised storage and management of people's data, and a collection process the pass unnoticed and ensures that the data in question are always current. Many efforts in this direction have been undertaken. One of the most recent such projects is called the smart card. Also referred to as chip cards (because it operates not just with a magnetic stripe but also an computer chip) smart cards are multi-application "intelligent" plastic cards that carry a lot more than the usual information about its holder. For example, a smart card can carry details about right of access to facilities, credit information, social security, and electoral status all in one. Technically there are no limits to the type of information stored on smart cards. In principle it is possible to store an individual's entire data body on a card. Not surprisingly, smart card technologies have been most readily accepted in places with a lack of a privacy protection culture, such as the US, the UK, Spain, and some Latin American Countries.

The Irish town of Ennis, although striving to become "one of the technologically most advanced towns in the world" may have frustrated the expectations of the plastic card industry. Yet this is only a minute, if embarrassing, setback on the path towards global rationalisation of data collection. The economic benefits which the plastic card data collection technologies promises for retailers, E-commerce, marketing and bureaucracies all over the world have given rise to a wealth of research programmes, field tests, projects and government policies, all aimed at promoting the data body economy and adopting it as the business model of the future.

Links to plastic card trade associations:

Card Europe - Association for Smart Card and Related Industries

AIM - Global Trade Association for Automatic Identification and Data Collection

Card Forum

Smart Card Industry Association

Links to plastic card research programmes:

MIT (Massachusetts Institute of Technology)

Ohio University

Pittsburgh University

Cranfield University

Links to publications:

Card Technology Magazine

Links to EU research programmes

ADEPT2

COCLICO

COST219

DISTINCT

SAMPO

SATURN

SOSCARD

Producers

Schlumberger

Gemplus

Bull

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Data bunkers

Personal data are collected, appropriated, processed and used for commercial purposes on a global scale. In order for such a global system to operate smoothly, there a server nodes at which the data streams converge. Among the foremost of these are the data bases of credit card companies, whose operation has long depended on global networking.

On top of credit card companies such as Visa, American Express, Master Card, and others. It would be erroneous to believe that the primary purpose of business of these companies is the provision of credit, and the facilitation of credit information for sale transactions. In fact, Information means much more than just credit information. In an advertisement of 1982, American Express described itself in these terms: ""Our product is information ...Information that charges airline tickets, hotel rooms, dining out, the newest fashions ...information that grows money funds buys and sells equities ...information that pays life insurance annuities ...information that schedules entertainment on cable television and electronically guards houses ...information that changes kroners into guilders and figures tax rates in Bermuda ..."

Information has become something like the gospel of the New Economy, a doctrine of salvation - the life blood of society, as Bill Gates expresses it. But behind information there are always data that need to be generated and collected. Because of the critical importance of data to the economy, their possession amounts to power and their loss can cause tremendous damage. The data industry therefore locates its data warehouses behind fortifications that bar physical or electronic access. Such structures are somewhat like a digital reconstruction of the medieval fortress

Large amounts of data are concentrated in fortress-like structures, in data bunkers. As the Critical Art Ensemble argue in Electronic Civil Disobedience: "The bunker is the foundation of homogeneity, and allows only a singular action within a given situation." All activities within data bunker revolve around the same principle of calculation. Calculation is the predominant mode of thinking in data-driven societies, and it reaches its greatest density inside data bunkers. However, calculation is not a politically neutral activity, as it provides the rational basis - and therefore the formal legitimisation most every decision taken. Data bunkers therefore have an essentially conservative political function, and function to maintain and strengthen the given social structures.

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Databody convergence

In the phrase "the rise of the citizen as a consumer", to be found on the EDS website, the cardinal political problem posed by the databody industry is summarised: the convergence of commercial and political interest in the data body business, the convergence of bureaucratic and commercial data bodies, the erosion of privacy, and the consequent undermining of democratic politics by private business interest.

When the citizen becomes a consumer, the state must become a business. In the data body business, the key word behind this new identity of government is "outsourcing". Functions, that are not considered core functions of government activity are put into the hands of private contractors.

There have long been instances where privately owned data companies, e.g. credit card companies, are allowed access to public records, e.g. public registries or electoral rolls. For example, in a normal credit card transaction, credit card companies have had access to public records in order to verify identity of a customer. For example, in the UK citizen's personal data stored on the Electoral Roll have been used for commercial purposes for a long time. The new British Data Protection Act now allows people to "opt out" of this kind of commercialisation - a legislation that has prompted protests on the part of the data industry: Experian has claimed to lose LST 500 mn as a consequence of this restriction - a figure that, even if exaggerated, may help to understand what the value of personal data actually is.

While this may serve as an example of an increased public awareness of privacy issues, the trend towards outsourcing seems to lead to a complete breakdown of the barriers between commercial and public use of personal data. This trend can be summarised by the term "outsourcing" of government functions.

Governments increasingly outsource work that is not considered core function of government, e.g. cooking meals in hospitals or mowing lawns in public parks. Such peripheral activities marked a first step of outsourcing. In a further step, governmental functions were divided between executive and judgemental functions, and executive functions increasingly entrusted to private agencies. For these agencies to be able to carry out the work assigned to them, the need data. Data that one was stored in public places, and whose handling was therefore subject to democratic accountability. Outsourcing has produced gains in efficiency, and a decrease of accountability. Outsourced data are less secure, what use they are put to is difficult to control.

The world's largest data corporation, EDS, is also among the foremost outsourcing companies. In an article about EDS' involvement in government outsourcing in Britain, Simon Davies shows how the general trend towards outsourcing combined with advances in computer technology allow companies EDS, outside of any public accountability, to create something like blueprints for the societies of the 21st century. But the problem of accountability is not the only one to be considered in this context. As Davies argues, the data business is taking own its own momentum "a ruthless company could easily hold a government to ransom". As the links between government agencies and citizens thin out, however, the links among the various agencies might increase. Linking the various government information systems would amount to further increase in efficiency, and a further undermining of democracy. The latter, after all, relies upon the separation of powers - matching government information systems would therefore pave the way to a kind of electronic totalitarianism that has little to do with the ideological bent of George Orwell's 1984 vision, but operates on purely technocratic principles.

Technically the linking of different systems is already possible. It would also create more efficiency, which means generate more income. The question, then, whether democracy concerns will prevent it from happening is one that is capable of creating

But what the EDS example shows is something that applies everywhere, and that is that the data industry is whether by intention or whether by default, a project with profound political implications. The current that drives the global economy deeper and deeper into becoming a global data body economy may be too strong to be stopped by conventional means.

However, the convergence of political and economic data bodies also has technological roots. The problem is that politically motivated surveillance and economically motivated data collection are located in the same area of information and communication technologies. For example, monitoring internet use requires more or less the same technical equipment whether done for political or economic purposes. Data mining and data warehousing techniques are almost the same. Creating transparency of citizens and customers is therefore a common objective of intelligence services and the data body industry. Given that data are exchanged in electronic networks, a compatibility among the various systems is essential. This is another factor that encourages "leaks" between state-run intelligence networks and the private data body business. And finally, given the secretive nature of state intelligence and commercial data capturing , there is little transparency. Both structures occupy an opaque zone.

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Global hubs of the data body industry

While most data bunkers are restricted to particular areas or contexts, there are others which act as global data nodes. Companies such as EDS (Electronic Data Systems), Experian, First Data Corporation and Equifax operate globally and run giant databases containing personal information. They are the global hubs of the data body economy.

Company

Sales in USD billions

Size of client database in million datasets





Equifax





1,7





360





Experian





1,5





779





Fist Data Corporation





5,5





260





EDS





18,5









(not disclosed)

(Sales and database sizes, 1998)

The size of these data repositories is constantly growing, so it is only a matter of time when everybody living in the technologically saturated part of the world will be registered in one of these data bunkers.

Among these companies, EDS, founded by the former US presidential candidate Ross Perot, known for his right-wing views and direct language, is of particular importance. Not only is it the world's largest data body company, it is also secretive about the size of its client database - a figure disclosed by the other companies either in company publications or upon enquiry. After all, the size of such a data base makes a company more attractive for potential customers.

For many years, EDS has been surrounded by rumours concerning sinister involvement with intelligence agencies. Beyond the rumours, though, there are also facts. EDS has a special division for government services. EDS does business with all military agencies of the US, as well as law enforcement agencies, justice agencies, and many others. The company also maintains a separate division for military equipment In 1984, the company became a subsidiary of General Motors, itself a leading manufacturer of military and intelligence systems. EDS is listed by the Federation of American Scientist's intelligence resource program as contractor to US intelligence agencies, and prides itself, amongst other things, to respond to the "rise of the citizen as a consumer".

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Databody economy and the surveillance state

Databody economy Surveillance state
Promise Reality Promise Reality
universal prosperity universal commercialisation total security total control
frictionless market pacified society political harmony death of democracy


The glamour of the data body economy clouds economic practices which are much less than glamorous. Through the seizure of the data body, practices that in the real political arena were common in the feudal age and in the early industrial age are being reconstructed. The data body economy digitally reconstructs exploitative practices such as slavery and wage labour. However, culturally the data body is still a very new phenomenon: mostly, people think if it does not hurt, it cannot be my body. Exploitation of data bodies is painless and fast. Nevertheless, this can be expected to change once the awareness of the political nature of the data body becomes more widespread. As more and more people routinely move in digitised environments, it is to be expected that more critical questions will be asked and claims to autonomy, at present restricted to some artistic and civil society groups trying to get heard amidst the deafening noise of the commercial ICT propaganda, will be articulated on a more general level.

The more problematic aspect of this development may be something else: the practices of the data body economy, themselves a reconstruction of old techniques of seizure, have begun to re-colonise real political space. Simon Davis, Director of the London-based privacy campaigners Privacy International, one of the foremost critics of modern-day technologies of surveillance and data capturing, has warned against the dangers of a loss of autonomy and undermining of civic rights that are being generated when workplaces are clogged with digital equipment allowing the constant monitoring and surveillance of workers. Unless current trends towards data capturing remain unchecked, the workplace of the future will have many features of the sinister Victorian workhouses that appear Charles Dickens novels, where any claims for autonomy were silenced with references to economic efficiency, and the required discipline imposed by a hierarchy of punishments.

The constant adaptation process required from the modern individual has anonymised and structuralized punishment, which now appears in the guise of error messages and the privatisation of risk.

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Become your own data merchant!

Consumers who are not preoccupied about their data bodies being appropriated by corporations can play an active part in the data body business: they can offer their own personal data on the market and become, in paraphrasing Gate's metaphor of information being the lifeblood of the economy, the blood donors of the information age.

Internet services such as the one offered by I-fay in Germany offer their customers a 40 % share of the profit generated from data vending. As an additional benefit, consumers are promised to always be in control of who acquires their data. I-fay's slogan: be king of your data!

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Introduction

"A man is crazy who writes a secrete
in any other way than one which
will conceal it from the vulgar."
Roger Bacon (~1250 AD)



The essence of human communication is not only the social behavior to give or get messages (of whatever meaning) but also how to give and get them, and to include certain people by excluding others from the process of informing.
e.g. whispering is an effective way of talking to exclude the majority.
What about ways of writing?
Already some of the first written messages in human history obviously found special forms of hiding contents from the so-called others. When the knowledge of writing meant a privilege in a stronger sense as it is true today (in China for a long period writing was forbidden to people not working for the government), the alphabet itself was a kind of cryptography (that is why Catholic churches were painted with pictures explaining the stories of the Bible).

Certainly the methods of deciphering and enciphering improved a lot during the last 4.000 years. In the meantime cryptography has become a topic without end and with less technological limits every day. On the one hand there is the field of biometrics, which is highly related to cryptography but still in its beginnings, on the other hand there emerge so-called infowars, which intend to substitute or at least accompany war and are unthinkable without cryptography.
But there is much more to detect, like the different forms of de- and encoding. And very important, too, there is the history of cryptography that tells us about the basics to make it easier to understand today's issues.

In the actual age of (dis-)information storing and transporting electronic information safely increases its importance. Governments, institutions, economy and individuals rely on the hope that no-one can read or falsify their messages/data as it is much more difficult to detect and proof abuses in electronic media than in elder forms of written communication.

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The Private against the Public?

"The multiple human needs and desires that demand privacy
among two or more people in the midst of social life must
inevitably lead to cryptology wherever men thrive
and wherever they write."

David Kahn, The Codebreakers

In the age of the vitreous man, whose data are not only collected by different institutions but kept under disclosure, out of reach, uncontrollable and unmanageable for the individual, privacy obtains new importance, receives a much higher value again.
The irony behind is that those who long for cryptography in order to preserve more privacy actually have to trust the same people who first created the methods to "produce" something like that vitreous man; of course not the same individual but persons of the same area of science. It is the reign of experts.
So far about self-determination.

for a rather aesthetic view on privacy and cryptography see:
http://www.t0.or.at/franck/d_franck.htm

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Timeline Cryptography - Introduction

Besides oral conversations and written language many other ways of information-transport are known: like the bush telegraph, drums, smoke signals etc. Those methods are not cryptography, still they need en- and decoding, which means that the history of language, the history of communication and the history of cryptography are closely connected to each other
The timeline gives an insight into the endless fight between enciphering and deciphering. The reasons for them can be found in public and private issues at the same time, though mostly connected to military maneuvers and/or political tasks.

One of the most important researchers on Cryptography through the centuries is David Kahn; many parts of the following timeline are originating from his work.

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Another Question of Security

Even with the best techniques it is impossible to invent a cryptographic system that is absolutely safe/unbreakable. To decipher a text means to go through many, sometimes nearly - but never really - endless attempts. For the computers of today it might take hundreds of years or even more to go through all possibilities of codes, but still, finally the code stays breakable. The much faster quantum computers will proof that one day.
Therefore the decision to elect a certain method of enciphering finally is a matter of trust.

For the average user of computers it is rather difficult to understand or even realize the dangers and/or the technological background of electronic transmission of data. For the majority thinking about one's own necessities for encryption first of all means to trust others, the specialists, to rely on the information they provide.
The websites explaining the problems behind (and also the articles and books concerning the topic) are written by experts of course as well, very often in their typical scientific language, merely understandable for laymen. The introductions and other superficial elements of those articles can be understood, whereas the real background appears as untouchable spheres of knowledge.

The fact that dangers are hard to see through and the need for security measures appears as something most people know from media reports, leads directly to the problem of an underdeveloped democracy in the field of cryptography. Obviously the connection between cryptography and democracy is rather invisible for many people. Those mentioned media reports often specialize in talking about the work computer hackers do (sometimes being presented as criminals, sometimes as heroes) and the danger to lose control over the money drawn away from one's bank account, if someone steals the credit card number or other important financial data. The term "security", surely connected to those issues, is a completely different one from the one that is connected to privacy.
It is especially the latter that touches the main elements of democracy.

for the question of security see:
http://www-db.stanford.edu/pub/gio/CS99I/security.html

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Cryptography and Democracy

Cryptography and democracy are clearly related to each other when we talk about teledemocracy. Many answers of civilians to certain state institutions can already be posed on the Internet. Many bureaucratic duties can be fulfilled through the Internet as well. But on February 8th 2000 the worldwide first elections on the Internet were performed. The elections themselves were nothing important, students' elections at the University of Osnabrück, Germany. But the project, called i-vote, with a preparation time of 10 months, wrote history. For a correct result, there existed several different encryption processes at the same time, like the digital signature, a blinding for anonymizing the vote and a virtual election paper that had to be encrypted as well, as simple e-mails could have been traced back.
The question whether teledemocracy can provide us with a more intensive democracy has to be answered within a different field of questions; here the question is rather about the role of cryptography in this area. The use of cryptography in teledemocracy is inevitable, but does it also re-influence cryptography? Or will it influence the different governments' laws again?

The sentence "We are committed to protecting the privacy of your personal information" that can be read as the introduction-sentence at the Free-PC-homepage (http://www.free-pc.com/privacy.tp) poses already the question on how that company can know about personal information. Soon they lift the curtain, telling us that we leave cookies visiting their website - as we do everywhere else. With that information, provided through the cookie, they try to select the appropriate advertisement-sortiment for the individual. Their line of reasoning is that individualized advertisements offer the clients the best and most interesting products without being overruled by not-interesting commercials.
But still we find ourselves overruled by the issue that someone believes to know what is good for us. And our privacy is floating away ...

Human Rights call for the right for privacy. We can go on fighting for privacy but anonymity has disappeared long ago. If we leave cookies and other data by visiting websites, we might be anything but surely not anonymous.
for more information about privacy and Human Rights see:
http://www.privacyinternational.org/survey/
http://www.gilc.org/privacy/survey/

for re-anonymizing see:
http://www.rewebber.de

"The fight for privacy today will always include the fight for unrestricted access to cryptography tools, for at least getting a slight chance that the buying of a book or any other small thing turns into a chain of messages for someone else's purpose, whether it might be governmental or commercial." (Cypherpunk's Manifesto)

for more information on the Cypherpunk's Manifesto see:
http://www.activism.net/cypherpunk/manifesto.html

This year again many conferences on the topic of cryptography take place. For further information see:
http://www.swcp.com/~iacr/events/index.html

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Epilogue

As scientists are working hard on a quantum computer and also on quantum cryptography one can imagine that another revolution in the study of encryption has to be expected within the next years. By then today's hardware and software tools will look extraordinary dull. At the moment it is impossible to foresee the effects on cryptography and democratic developments by those means; the best and the worst can be expected at the same time. A certain ration of pessimism and prosecution mania are probably the right mixture of emotions about those tendencies, as the idea of big brother has come into existence long ago.

At the same time it will - in part - be a decision of the people to let science work against them or not. Acceleration of data-transmission calls for an acceleration of encryption-methods. And this again falls back on us, on an acceleration of daily life, blurring the private and the public for another time.
We live in an intersection, job and private life growing together. Cryptography cannot help us in that case. The privacy in our mind, the virtuality of all private and public lies in the field of democracy, or at least what is - by connection to the Human Rights - regarded as democracy.

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Abstract

What we seem to fear most is to get into a status of insecurity - given that the definitions of the word security vary extremely. Thus methods of securing ideas, people, things or data increase their popularity and necessity tremendously. One of them is cryptography - as well as the prohibition/restriction of cryptography.
Questions whether cryptography is absolutely inevitable or on the contrary supports certain criminals more than the ordinary internet-user, are arising. And as the last developments in international and national law showed, Northern governments are changing opinion about that, due to economic tasks.
Business needs cryptography.
Still, the use of cryptography is no recent invention. Already the first steps in writing or even in human communication itself meant developing codes for keeping secrets at the same time as providing information.

This site gives a timeline for the history of cryptography, provides an introduction into the most important terms of tools and devices connected to that topic, and finally tries to interpret necessities for and ideas against cryptography or in other words leads through the current discussions concerning democracy and governmental fears and doubts regarding the security of data-transmission.

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Cryptography's Terms and background

"All nature is merely a cipher and a secret writing."
Blaise de Vigenère

In the (dis-)information age getting information but at the same time excluding others from it is part of a power-game (keeping the other uneducated). The reason for it eventually has found an argument called security.
Compared to the frequency of its presence in articles, the news and political speeches security seems to be one of the most popular words of the 90's. It must be a long time ago when that word was only used for and by the military and the police. Today one can find it as part of every political issue. Even development assistance and nutrition programs consider it part of its work.
The so-called but also real need for information security is widespread and concerning everybody, whether someone uses information technology or not. In any case information about individuals is moving globally; mostly sensitive information like about bank records, insurance and medical data, credit card transactions, and much much more. Any kind of personal or business communication, including telephone conversations, fax messages, and of course e-mail is concerned. Not to forget further financial transactions and business information. Almost every aspect of modern life is affected.
We want to communicate with everybody - but do not want anybody to know.

Whereas the market already depends on the electronic flow of information and the digital tools get faster and more sophisticated all the time, the rise of privacy and security concerns have to be stated as well.
With the increase of digital communication its vulnerability is increasing just as fast. And there exist two (or three) elements competing and giving the term digital security a rather drastic bitter taste: this is on the one hand the growing possibility for criminals to use modern technology not only to hide their source and work secretly but also to manipulate financial and other transfers. On the other hand there are the governments of many states telling the population that they need access to any kind of data to keep control against those criminals. And finally there are those people, living between enlightening security gaps and at the same time harming other private people's actions with their work: computer hackers.
While the potential of global information is regarded as endless, it is those elements that reduce it.

There is no definite solution, but at least some tools have been developed to improve the situation: cryptography, the freedom to encode those data that one does not want to be known by everybody, and give a possibility to decode them to those who shall know the data.

During the last 80 years cryptography has changed from a mere political into a private, economic but still political tool: at the same time it was necessary to improve the tools, eventually based on mathematics. Hence generally cryptography is regarded as something very complicated. And in many ways this is true as the modern ways of enciphering are all about mathematics.

"Crypto is not mathematics, but crypto can be highly mathematical, crypto can use mathematics, but good crypto can be done without a great reliance on complex mathematics." (W.T. Shaw)

For an introduction into cryptography and the mathematical tasks see:
http://www.sbox.tu-graz.ac.at/home/j/jonny/projects/crypto/index.htm
http://www.ccc.de/CCC-CA/policy.html

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Timeline 1900-1970 AD

1913 the wheel cipher gets re-invented as a strip

1917 William Frederick Friedman starts working as a cryptoanalyst at Riverbank Laboratories, which also works for the U.S. Government. Later he creates a school for military cryptoanalysis

- an AT&T-employee, Gilbert S. Vernam, invents a polyalphabetic cipher machine that works with random-keys

1918 the Germans start using the ADFGVX-system, that later gets later by the French Georges Painvin

- Arthur Scherbius patents a ciphering machine and tries to sell it to the German Military, but is rejected

1919 Hugo Alexander Koch invents a rotor cipher machine

1921 the Hebern Electric Code, a company producing electro-mechanical cipher machines, is founded

1923 Arthur Scherbius founds an enterprise to construct and finally sell his Enigma machine for the German Military

late 1920's/30's more and more it is criminals who use cryptology for their purposes (e.g. for smuggling). Elizabeth Smith Friedman deciphers the codes of rum-smugglers during prohibition regularly

1929 Lester S. Hill publishes his book Cryptography in an Algebraic Alphabet, which contains enciphered parts

1933-1945 the Germans make the Enigma machine its cryptographic main-tool, which is broken by the Poles Marian Rejewski, Gordon Welchman and Alan Turing's team at Bletchley Park in England in 1939

1937 the Japanese invent their so called Purple machine with the help of Herbert O. Yardley. The machine works with telephone stepping relays. It is broken by a team of William Frederick Friedman. As the Japanese were unable to break the US codes, they imagined their own codes to be unbreakable as well - and were not careful enough.

1930's the Sigaba machine is invented in the USA, either by W.F. Friedman or his colleague Frank Rowlett

- at the same time the British develop the Typex machine, similar to the German Enigma machine

1943 Colossus, a code breaking computer is put into action at Bletchley Park

1943-1980 the cryptographic Venona Project, done by the NSA, is taking place for a longer period than any other program of that type

1948 Shannon, one of the first modern cryptographers bringing mathematics into cryptography, publishes his book A Communications Theory of Secrecy Systems

1960's the Communications-Electronics Security Group (= CESG) is founded as a section of Government Communications Headquarters (= GCHQ)

late 1960's the IBM Watson Research Lab develops the Lucifer cipher

1969 James Ellis develops a system of separate public-keys and private-keys

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Timeline 1970-2000 AD

1971 IBM's work on the Lucifer cipher and the work of the NSA lead to the U.S. Data Encryption Standard (= DES)

1976 Whitfield Diffie and Martin Hellman publish their book New Directions in Cryptography, playing with the idea of public key cryptography

1977/78 the RSA algorithm is developed by Ron Rivest, Adi Shamir and Leonard M. Adleman and is published

1984 Congress passes Comprehensive Crime Control Act

- The Hacker Quarterly is founded

1986 Computer Fraud and Abuse Act is passed in the USA

- Electronic Communications Privacy Act

1987 Chicago prosecutors found Computer Fraud and Abuse Task Force

1988 U.S. Secret Service covertly videotapes a hacker convention

1989 NuPrometheus League distributes Apple Computer software

1990 - IDEA, using a 128-bit key, is supposed to replace DES

- Charles H. Bennett and Gilles Brassard publish their work on Quantum Cryptography

- Martin Luther King Day Crash strikes AT&T long-distance network nationwide


1991 PGP (= Pretty Good Privacy) is released as freeware on the Internet, soon becoming worldwide state of the art; its creator is Phil Zimmermann

- one of the first conferences for Computers, Freedom and Privacy takes place in San Francisco

- AT&T phone crash; New York City and various airports get affected

1993 the U.S. government announces to introduce the Clipper Chip, an idea that provokes many political discussions during the following years

1994 Ron Rivest releases another algorithm, the RC5, on the Internet

- the blowfish encryption algorithm, a 64-bit block cipher with a key-length up to 448 bits, is designed by Bruce Schneier

1990s work on quantum computer and quantum cryptography

- work on biometrics for authentication (finger prints, the iris, smells, etc.)

1996 France liberates its cryptography law: one now can use cryptography if registered

- OECD issues Cryptography Policy Guidelines; a paper calling for encryption exports-standards and unrestricted access to encryption products

1997 April European Commission issues Electronic Commerce Initiative, in favor of strong encryption

1997 June PGP 5.0 Freeware widely available for non-commercial use

1997 June 56-bit DES code cracked by a network of 14,000 computers

1997 August U.S. judge assesses encryption export regulations as violation of the First Amendment

1998 February foundation of Americans for Computer Privacy, a broad coalition in opposition to the U.S. cryptography policy

1998 March PGP announces plans to sell encryption products outside the USA

1998 April NSA issues a report about the risks of key recovery systems

1998 July DES code cracked in 56 hours by researchers in Silicon Valley

1998 October Finnish government agrees to unrestricted export of strong encryption

1999 January RSA Data Security, establishes worldwide distribution of encryption product outside the USA

- National Institute of Standards and Technologies announces that 56-bit DES is not safe compared to Triple DES

- 56-bit DES code is cracked in 22 hours and 15 minutes

1999 May 27 United Kingdom speaks out against key recovery

1999 Sept: the USA announce to stop the restriction of cryptography-exports

2000 as the German government wants to elaborate a cryptography-law, different organizations start a campaign against that law

- computer hackers do no longer only visit websites and change little details there but cause breakdowns of entire systems, producing big economic losses

for further information about the history of cryptography see:
http://www.clark.net/pub/cme/html/timeline.html
http://www.math.nmsu.edu/~crypto/Timeline.html
http://fly.hiwaay.net/~paul/cryptology/history.html
http://www.achiever.com/freehmpg/cryptology/hocryp.html
http://all.net/books/ip/Chap2-1.html
http://cryptome.org/ukpk-alt.htm
http://www.iwm.org.uk/online/enigma/eni-intro.htm
http://www.achiever.com/freehmpg/cryptology/cryptofr.html
http://www.cdt.org/crypto/milestones.shtml

for information about hacker's history see:
http://www.farcaster.com/sterling/chronology.htm:

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Timeline 1600 - 1900 AD

17th century Cardinal Richelieu invents an encryption-tool called grille, a card with holes for writing messages on paper into the holes of those cards. Afterwards he removes the cards and fills in the blanks, so the message looks like an ordinary letter. The recipient needs to own the same card

- Bishop John Wilkins invents a cryptologic system looking like music notes. In a book he describes several forms of steganographic systems like secrets inks, but also the string cipher. He mentions the so-called Pig Latin, a spoken way of encryption that was already used by the ancient Indians

- the English scientist, magician and astrologer John Dee works on the ancient Enochian alphabet; he also possesses an encrypted writing that could not been broken until today

1605/1623 Sir Francis Bacon (= Francis Tudor = William Shakespeare?) writes several works containing ideas about cryptography. One of his most important advises is to use ciphers in such a way that no-one gets suspicious that the text could be enciphered. For this the steganogram was the best method, very often used in poems. The attempt to decipher Shakespeare's sonnets (in the 20th century) lead to the idea that his works had been written by Francis Bacon originally.

1671 Leibniz invents a calculating machine that uses the binary scale which we still use today, more advanced of course, called the ASCII code

18th century this is the time of the Black Chambers of espionage in Europe, Vienna having one of the most effective ones, called the "Geheime Kabinettskanzlei", headed by Baron Ignaz von Koch. Its task is to read through international diplomatic mail, copy letters and return them to the post-office the same morning. Supposedly about 100 letters are dealt with each day.

1790's Thomas Jefferson and Robert Patterson invent a wheel cipher

1799 the Rosetta Stone is found and makes it possible to decipher the Egyptian Hieroglyphs

1832 or 1838 Sam Morse develops the Morse Code, which actually is no code but an enciphered alphabet of short and long sounds. The first Morse code-message is sent by telegraph in 1844.

1834 the Braille Code for blind people is developed in today's form by Louis Braille

1844 the invention of the telegraph changes cryptography very much, as codes are absolutely necessary by then

1854 the Playfair cipher is invented by Sir Charles Wheatstone

1859 for the first time a tomographic cipher gets described

1861 Friedrich W. Kasiski does a cryptoanalysis of the Vigenère ciphers, which had been supposed to be uncrackable for ages

1891 Major Etienne Bazeries creates a new version of the wheel cipher, which is rejected by the French Army

1895 the invention of the radio changes cryptography-tasks again and makes them even more important

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Timeline 00 - 1600 AD

3rd cent. Leiden papyrus: medical information gets enciphered to stop abuses

8th cent. - Abu 'Abd al-Rahman al-Khalil ibn Ahmad ibn 'Amr ibn Tammam al Farahidi al-Zadi al Yahmadi finds the solution for a Greek cryptogram by first of all finding out the plaintext behind the encryption, a method which never got out of date. Afterwards he writes a book on cryptography.

- cipher alphabets for magicians are published

1250 the English monk Roger Bacon writes cipher-descriptions. At that time the art of enciphering was a popular game in monasteries

1379 Gabrieli di Lavinde develops the nomenclature-code for Clement VII (114); a code-system made out of ciphers and codes, which kept being irreplaceable until the 19th century

1392 (probably) the English poet Geoffrey Chaucer writes the book The Equatorie of the Planetis, which contains several passages in ciphers made out of letters, digits and symbols

1412 for the first time ciphers including different substitutions for each letter are developed (in Arabic)

~1467 invention of the "Captain Midnight Decoder Badge", the first polyalphabetic cipher (disk); the inventor, Leon Battista Alberti, also called the father of Western cryptography, uses his disk for enciphering and deciphering at the same time

15th/16th century nearly every state, especially England and France, has people working on en- and deciphering for them

1518 the first printed book on cryptology is written by the German monk Johannes Trithemius. He also changes the form of polyalphabetic cipher from disks into rectangulars

1533 the idea to take a pass-phrase as the key for polyalphabetic cipher is realized by Giovan Batista Belaso

1563 Giovanni Battista Porta suggests to use synonyms and misspellings to irritate cryptoanalysts

1585 Blaise de Vigenère has the idea to use former plaintexts or ciphertexts as new keys; he invents the Vigenère tableau. David Kahn points out that this technique had been forgotten soon afterwards (until the end of the 19th century)

1587 Mary, Queen of Scots, is beheaded for the attempt to organize the murder of Queen Elisabeth I., whose agents find out about Mary's plans with the help of decryption

1588 the first book in shorthand is published

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Digital Signatures, Timestamps etc

Most computer systems are far from being secure.
A lack of security - it is said - might hinder the developments of new information technologies. Everybody knows electronic transactions involve a more or less calculated risk. Rumors about insecurity let consumers doubt whether the commodity of e-commerce is bigger or its risks. First of all the market depends on the consumer's confidence. To provide that another application for public key cryptography gets essential: the digital signature, which is used to verify the authenticity of the sender of certain data.
It is done with a special private key, and the public key is verifying the signature. This is especially important if the involved parties do not know one another. The DSA (= Digital Signature Algorithm) is a public-key system which is only able to sign digitally, not to encrypt messages. In fact digital signature is the main-tool of cryptography in the private sector.

Digital signatures need to be given for safe electronic payment. It is a way to protect the confidentiality of the sent data, which of course could be provided by other ways of cryptography as well. Other security methods in this respect are still in development, like digital money (similar to credit cards or checks) or digital cash, a system that wants to be anonymous like cash, an idea not favored by governments as it provides many opportunities for money laundry and illegal transactions.

If intellectual property needs to be protected, a digital signature, together with a digital timestamp is regarded as an efficient tool.

In this context, the difference between identification and authentication is essential. In this context smartcards and firewalls are relevant, too.

A lot of digital transactions demand for passwords. More reliable for authentication are biometric identifiers, full of individual and unrepeatable codes, signatures that can hardly be forged.

For more terms of cryptography and more information see:
http://poseidon.csd.auth.gr/signatures
http://www.dlib.org/dlib/december97/ibm/12lotspiech.html
http://www.cryptography.com/technology/technology.html
http://www.cdt.org/crypto/glossary.shtml
http://www.oecd.org//dsti/sti/it/secur/prod/GD97-204.htm

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Steganography

Ciphers as well as codes are transmitted openly. Everyone can see that they exist. Not so with steganograms.
Steganography is the art and science of communicating in a way which hides the existence of the secret part in that communication. During the Italian Renaissance and the time of the Elizabethan Age in England cryptography was very popular, for political reasons as well as for amusements (see John Dee).
In literature steganography played an important role. Many steganographs of that period have only been deciphered recently like some of the Shakespearean sonnets, which now seem to proof that the actor William Shakespeare was not the author of the famous poems and dramas, but that the latter' name was, and Francis Bacon, or even Francis Tudor, as some ciphers and other sources talk of him as Queen Elisabeth I.'s secret son.

for further details see:
http://home.att.net/~tleary/
http://www.thur.de/ulf/stegano/
http://www2.prestel.co.uk/littleton/gm2_rw.htm

One kind of steganogram is digital watermarking:
Watermarks protect digital images, videos, but also audio and multimedia products. They are made out of digital signals, put into other digital signals. They try to be invisible on first sight and should be nearly impossible to remove. The process of producing watermarks is to overlay some sort of identifying image over the original image (non-digital watermarks, like on money can be seen by holding the paper against light). Copying the image destroys the watermark, which cannot be copied. Any alteration of the original destroys the watermark, too.

Watermarking is one of the typical inventions of cryptography to assist the biggest content owners, but advertised as something necessary and helpful for everybody. Who in fact gets any advantage out of watermarking? The private user most of the time will not really need it except for small entities of pictures maybe.
But the big enterprises do. There is a tendency to watermark more and more information in the Internet, which until now was considered as free and as a cheap method to receive information. Watermarking could stop this democratic development.

for further information see:
http://www.isse.gmu.edu/~njohnson/Steganography

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Key Recovery Systems

As stated before the sense of cryptography is a properly designed cryptosystem making it essentially impossible to recover encrypted data without any knowledge of the used key. The issue of lost keys and the being-locked-out from one's own data as a consequence favors key recovery systems. On the other hand the counter argument is confidentiality: as soon as a possibility to recover a key is provided, the chances for abuses grow.
Finally it is the state that does not want to provide too much secrecy. On the contrary. During the last 20 years endless discussions about the state's necessity and right to restrict private cryptography have taken place, as the governments rarely care for the benefit of private users if they believe in catching essential informations about any kind of enemy, hence looking for unrestricted access to all keys.

The list of "key recovery," "key escrow," and "trusted third-party" as encryption requirements, suggested by governmental agencies, covers all the latest developments and inventions in digital technology.
At the same time the NSA, one of the world's most advanced and most secret enterprises for cryptography, worked hard in getting laws through to forbid the private use of strong encryption in one way or the other. Still, it is also organizations like this one that have to admit that key recovery systems are not without any weaknesses, as the U.S. Escrowed Encryption Standard, the basis for the famous and controversially discussed Clipper Chip, showed. The reason for those weaknesses is the high complexity of those systems.

Another aspect is that key recovery systems are more expensive and certainly much less secure than other systems. So, why should anyone use them?

In that context, one has to understand the legal framework for the use of cryptography, a strict framework in fact, being in high contradiction to the globalised flow of communication.

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Another Question of Security

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So what does cryptography mean?

cryptography:
It is the study of encryption, the art/science to create and use codes and/or ciphers with the purpose of enciphering as well as deciphering.
After a relatively vivid but slow development of cryptography for nearly 4.000 years the inventions of the telegraph, radio and computer had a high impact on the velocity of further inventions concerning encryption.
Most of the time economic, political or military reasons lie behind the necessity of encryption. As visible from the timetable cryptography it is also done for private and individual interests. An extraordinary example for this is the Braille Code, developed as a possibility for blind people to read and write.
A lot of very interesting and intelligent websites about cryptography can be found in the Internet.Some websites offering links to various cryptography-websites are:
http://www.ciia.org/links.htm
http://www.isse.gmu.edu/~njohnson/Security/stegres.htm
http://www.hack.gr/users/dij/crypto/links.html
http://www.achiever.com/freehmpg/cryptology/lessons.html
http://www.iks-jena.de/mitarb/lutz/security/links.html
http://world.std.com/~franl/crypto/
http://home.tu-clausthal.de/~inas/Links.html
http://theory.lcs.mit.edu/~rivest/crypto-security.html
http://www.britannica.com/bcom/eb/article/xref/0,5716,5453,00.html
http://www-personal.umich.edu/~rak/web_sites.html

Further there exists a wide range of web-magazines/newsletters/mailing lists on cryptography, e.g.:
Crypto-Gram Newsletter: http://www.counterpane.com/crypto-gram.html
Journal of Computer Security: http://www.gocsi.com/m_form.htm
Cypherpunks: http://www.inet-one.com/cypherpunks/
Stegano-L: http://www.thur.de/ulf/stegano/sub.html
ZD Internet Magazine: http://www.zdnet.com/

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some essential definitions

some essential definitions in the field of cryptography are:
- cryptoanalysis
- cryptology
- ciphers

"Few false ideas have more firmly gripped the minds of so many intelligent men than the one that, if they just tried, they could invent a cipher that no one could break." (David Kahn)

codes
plaintext
ciphertext
to encipher/encode
to decipher/decode

The variants of encryption systems are endless.
For deciphering there exists always the same game of trial and error (first guessing the encryption method, then the code). A help to do so is pruning. Once, after a more or less long or short period a code/cipher breaks. Monoalphabetic ciphers can be broken easily and of course are no longer used today but for games.

for further information on codes and ciphers etc. see:
http://www.optonline.com/comptons/ceo/01004A.html
http://www.ridex.co.uk/cryptology/#_Toc439908851

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Asymmetric or Public-Key-Cryptosystems

Here the keys for encryption and decryption differ. There needs to exist a private key, which is only known to the individual, and a public key, which is published. Every person has her or his own private key that is never published. It is used for decrypting only. Mathematically the different keys are linked to each other, still it is nearly impossible to derive the private key from the public one.
For sending a message to someone, one has to look up the other's public key and encrypt the message with it. The keyholder will use his/her private key to decrypt it. While everybody can send a message with the public key, the private key absolutely has to stay secret - and probably will.

"The best system is to use a simple, well understood algorithm which relies on the security of a key rather than the algorithm itself. This means if anybody steals a key, you could just roll another and they have to start all over." (Andrew Carol)

very famous examples for public-key systems are:

· RSA:
The RSA is probably one of the most popular public-key cryptosystems. With the help of RSA, messages can be encrypted, but also digital signatures are provided.
The mathematics behind are supposedly quite easy to understand (see: http://world.std.com/~franl/crypto/rsa-guts.html.

· PGP:
PGP is a public key encryption program. Most of all it is used for e-mail encryption.
It is supposed to be quite safe - until now.

· PGPi is simply the international variation of PGP.

for further information about the RSA and other key-systems visit the RSA homepage:
http://www.rsa.com/rsalabs/faq/
http://www.rsa.com/rsalabs/faq/questions.html
or:
http://www.pgpi.org

All of those tools, like hash functions, too, can help to enhance security and prevent crime.
They can theoretically, but sometimes they do not, as the example of the published credit card key of France in March 2000 showed.
For more information see:
http://news.voila.fr/news/fr.misc.cryptologie

Still, cryptography can help privacy.
On the other hand cryptography is only one element to assure safe transport of data. It is especially the persons using it who have to pay attention. A key that is told to others or a lost cryptographic key are the end of secrecy.

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Timeline BC

~ 1900 BC: Egyptian writers use non-standard Hieroglyphs in inscriptions of a royal tomb; supposedly this is not the first but the first documented example of written cryptography

1500 an enciphered formula for the production of pottery is done in Mesopotamia

parts of the Hebrew writing of Jeremiah's words are written down in "atbash", which is nothing else than a reverse alphabet and one of the first famous methods of enciphering

4th century Aeneas Tacticus invents a form of beacons, by introducing a sort of water-clock

487 the Spartans introduce the so called "skytale" for sending short secret messages to and from the battle field

170 Polybius develops a system to convert letters into numerical characters, an invention called the Polybius Chequerboard.

50-60 Julius Caesar develops an enciphering method, later called the Caesar Cipher, shifting each letter of the alphabet an amount which is fixed before. Like atbash this is a monoalphabetic substitution.

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Key-Systems

As stated, telecommunication is seen as an unreliable media for transporting secret messages. Therefore today, cryptography is needed more than ever before, especially for e-commerce.
Key cryptosystems try to provide more privacy.

symmetric-key cryptosystems:
The same key is used for both encryption and decryption. In this case the encipherer and the recipient of the message/text have to agree on a common key before the enciphering-process can start. And most of all they should trust each other. And exactly this is the main problem of this system: how to exchange the key without offering an opportunity for stealing it?
In former times messengers or pigeons were doing the exchange of those keys.

Symmetric-key systems make sense in small entities. If a lot of people are spread over a wide area and belong to the same network, distributing the keys starts getting complicated.
Today, those cryptosystems get controlled by other keys, based on highly complex mathematical algorithms.
some symmetric-key systems are:

- DES (Data Encryption Standard), the standard for credit cards
- Triple-DES, which is a variation of DES, encrypting the plaintext three times.
- IDEA (International Data Encryption Standard)
- blowfish encryption algorithm, which is said to be faster than DES and IDEA

Security and confidence are the key-words for a popular key-system: As DES and its successors have been used for so many years and by many people without having been broken, they are considered safe - safer than others, not used that frequently, no matter whether they are actually safer or not.

For further information see:
http://www.sbox.tu-graz.ac.at/home/j/jonny/projects/crypto/symmetr/content.htm

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Governmental Influence

Agencies like the NSA are currently able to eavesdrop on anyone with few restrictions only - though other messages are spread by the NSA.
Theoretically cryptography can make that difficult. Hence those agencies speak up for actions like introducing trapdoors to make it possible to get access to everybody's data.

See the U.S. discussion about the Clipper Chip some years ago:
http://www.epic.org/crypto/clipper/
http://www.cdt.org/crypto/admin/041693whpress.txt

While encryption offers us privacy for the transmission of data, we do not only wish to have it but also need it if we want to transport data which shall not be seen by anyone else but the recipient of our message. Given this, the governments and governmental institutions/organizations fear to lose control. Strict laws are the consequence. The often repeated rumor that the Internet was a sphere of illegality has been proven wrong. Some parts are controlled by law very clearly. One of them is cryptography. Prohibition of cryptography or at least its restriction are considered an appropriate tool against criminality. Or one should say: had been considered that. In the meantime also governmental institutions have to admit that those restrictions most of all work against the population instead against illegal actors. Therefore laws have been changed in many states during the last five years. Even the USA, the Master of cryptography-restriction, liberated its laws in December 1999 to be more open-minded now.

for an insight into the discussion having gone on for years see:
http://www.cdt.org/crypto/new2crypto/3.shtml

the final text of the new U.S. Encryption Regulations you will find under:
http://www.cdt.org/crypto/admin/000110cryptoregs.shtml
http://www.cdt.org/crypto/admin/000114cryptoregs.txt

an explanation of the regulations can be found under:
http://www.cdt.org/crypto/admin/000112commercefactsheet.shtml

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Governmental Regulations

The new U.S. regulations are based on the Wassenaar Arrangement Revision of 1998, where exports without license of 56 bit DES and similar products are allowed after a technical review, just like encryption commodities and software with key lengths of 64-bits or less which meet the mass market requirements.
For more information see:
http://www.wassenaar.org/

Seven states stay excluded from the new freedom. These are states like Libya, Iraq, Iran, North Korea and Cuba, altogether states seen as terrorist supporting. No encryption tools may be exported into those countries.

This is, what happened in the USA, whereas in Germany the issue of a cryptography-law is still on the agenda. Until now, in Germany, everyone can decide by her-/himself, whether she/he wants to encrypt electronic messages or not. Some organizations fear that this could get changed soon. Therefore an urgent action was organized in February 2000 to demonstrate the government that people want the freedom to decide on their own. One governmental argument is that only very few people actually use cryptography. Therefore the urgent action is organized as a campaign for using it more frequently.

For more information on this see:
http://www.heise.de/ct/97/04/032/
http://www.fitug.de/ulf/krypto/verbot.html#welt

Other European countries have more liberate laws on cryptography, like France. Austria doesn't have any restrictions at all, probably because of a governmental lack of interest more than accepting freedom.
The (former) restrictions in the bigger countries influenced and hindered developments for safer key-systems, e.g. the key-length was held down extraordinarily.

"Due to the suspicious nature of crypto users I have a feeling DES will be with us forever, we will just keep adding keys and cycles (...). There is a parallel between designing electronic commerce infrastructure today that uses weak cryptography (i.e. 40 or 56 bit keys) and, say, designing air traffic control systems in the '60s using two digit year fields. (...) Just because you can retire before it all blows up doesn't make it any less irresponsible."
(Arnold G. Reinhold)


The Chinese State Encryption Management Commission (SEMC) announced in March 2000 that only strong encryption tools will have to be registered in the future. Which sounds so nice on first sight, does not mean a lot in reality: any kind of useful encryption technique, like the PGP, stay under governmental control.

The restrictions and prohibitions for cryptography are part of the states' wish to acquire more control - in the name of the battle against criminality, probably?
Due to the emerging organized criminality the governments want to obtain more freedom of control over citizens. Organizations like the NSA appear as the leaders of such demands.
What about civil rights or Human Rights?

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A Tool for Privacy

The algorithm being the code leads to encryption. When Alan Turing worked on his Turing Machine, he planned a machine where the instruction-code was part of its working, where the binary code was a fixed logic in dispute, in other words the machine turning into its own algorithm, which means nothing else than dialectic.
And exactly here the theoretical work on cryptography touches - as a consequence of the actor always having been part of the technical arrangements - an issue of modern democracy, the question about the private and the public: the terms are changing, do not fit to their original meanings anymore. One might say the Internet is something private. One might state the contrary. Both sentences are wrong. It is neither of them. Maybe we do not all feel it yet, but humans are going through a stage of blurred words, where classic definitions get lost, just like the codes/algorithms of behavior. The meta-narratives break down, not leaving anything but puzzle pieces. We can never be private on the Internet. Nor could we be in public if we were "out there" in virtual reality.

Cryptography, the study pretending to work for privacy, cannot provide us with absolute privacy either, as the danger of losing it through a decryption attack hinders its prospering. At the latest with the quantum computers coming into existence the patterns of the encoded picture will not be visible anymore. At the same time the social relations, its exact and excluding meanings must blur.
Democracy needs something to rely on, something to refer to, just like the private and the public.
Still, our need for privacy on the one hand and curiosity on the other hand create the longing for cryptography of information as well as its decoding.

"Privacy is necessary for an open society in the electronic age. Privacy is not secrecy. A private matter is something one doesn't want the whole world to know, but a secret matter is something one doesn't want anybody to know. Privacy is the power to selectively reveal oneself to the world."
(Cypherpunk's Manifesto)

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Security Measures?

The more so-called security measures are taken the more control and the less freedom is granted. Whereas criminals are flexible in their computer work/digital existence, the average person cannot be. So it is her/him who gets punished with an increase of control.
Of course security can be in favor of the population as well - and this is the case if cryptography is legal so that everyone has access to it to protect his/her data. This one needs for e-commerce, secure payments and transmission of private data, mostly e-mails or access to websites where one needs a password. E-mails are nothing else than postcards, letters without envelopes. Without encryption they are easy to open, read and trace back, even without knowing the password. Rumors that Echelon works with a list of key-words, controlling any e-mail in the world and reacting to words of that list, led to actions like the Jam Eschelon Day, last time held on October 21st, 1999, to confuse the espionage system.

for more information on Jam Eschelon Day see:
http://www.hacktivism.org
http://www.echelon.wiretapped.net/
http://www.heise.de/tp/deutsch/inhalt/te/5358/1.html

But the respect for privacy stands for an essential values in democratic societies.
So, how can it be regarded a governmental risk?

At a conference:
"How many people here fear a greater risk
from government abuses of power
than from criminal activity?"
The majority raised their hands,
one participant shouted "What's the difference?"
(anonymous)

If governments really care for the people and want to fight against cybercriminality they should rather support the work on the latest technologies for encryption than to restrict their access. Or even better: they should not intervene at all - to make sure they do not build in any trapdoors. Though it is already too late for discussion like this one as the trapdoors are already part of most of the key-systems. Rumors about PGP and trapdoors do not help the confidence in cryptology.

for information about the risks of cryptography see:
http://www.cdt.org/crypto/risks98/

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biotechnology summary

The fusion of flesh and machine is trend which, although inscribed in the history of modern technology from its beginnings, has reached a unprecedented momentum in recent years as a result of crucial advances in information technology, biology, and the development of global networks. Consequently, doubts are emerging concerning the viability of a distinct and definable human nature. Historical and social theories and concepts are being unhinged by the spread hybrids and by new forms of artificial life which are likely to trigger social changes escaping the grip of calculation. Attempts to defend an essential human nature against technical hybridisation, rather than strengthening the human subject, may have further blurred the question of historical subjectivity. Large amounts of money are invested into research and development of artifical biology, making some of the predictions of AI and robotics experts about radical and far reaching changes a matter of time.

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acceleration

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biotechnology introduction



One of the most critical trends in the western culture what might be called the "fusion of flesh and machine". Increasingly, technological artifacts such as computers, rather than being used as tools by people, are functioning as parts of the human organism. On the other hand, human functionalities such as intelligence, emotion, adaptability or reproductivity are integrated into technological artifacts: the days when computers where only able to count apples and pears and their intelligence was not even matching an insect's are rapidly becoming history. Today, the boundaries between organisms and technology are losing their significance.

As new technologies are no longer mere instruments, or "extensions" of the organism, they acquire the capability of modifying the human organism - body and mind - from within according to certain pre-established principles. The history of the evolution of the human species is hastily being re-written as artificial beings begin to mock the categories of evolution and seem to work their way towards historical subjectivity. The German philosopher Günther Anders has extensively reflected on the changes of the human condition provoked by the development of modern technology speaks of an "antiquatedness of history" at a time when technology itself becomes a historical subject and men are becoming co-historical.

However, the softening of the biological definition of the human race is a theme which has accompanied western thinking ever since its origins. Beings half man-half animal crowd the tales of classical mythology and transcend the boundary between the human from below, while divine creatures, temporarily occupying humanoid bodies, relativise humanness form "above". What exactly "being human" meant and who "human beings" could be "defined" is a question with a long history. "Der Mensch ist das nicht festgestellte Thier" as Nietzsche commented.

Just as the boundaries between human and non-human are being crossed by technological development, so also the boundaries between the classical episteme are becoming permeable. Psychology is occupying itself with the emotions of machines, while physics and cybernetics is applied to the human mind and body. The "nicht festgestellte "character of humanness has meant that imagination has become just as relevant a factor in understanding humanness as science. Science fiction as a literary genre is no longer merely a depository of phantasies about a technisised world our of control. As the human monopoly on history seems to dissolve, the baroque narratives of science fiction have also become a resource for understanding history.

However, it is evident that the potentials of the new technologies gives rise not only to wild hopes and dreams and to bizarre stories; they also harbour some real ambiguities of a political and ethical nature. Not only does the merging of previously distinct realities - the human and the non-human worlds - unhinge theories and institutions based upon a clear distinction and separation of the two, it also is placing political practice on a different footing. Will artificial life have rights? Will artificial entities have political power? How will social relationships change?

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Convergence

The convergence of biology and technology is not an entirely new phenomenon but and has its origin in the concept of modern technology itself. This concept understands technology as something bigger, stronger, and more reliable than ourselves. But, unlike human beings, technologies are always tied to specific men-defined purposes. In so far as men define purposes and build the technology to achieve those purposes, technology is smaller than ourselves. The understanding of technology as a man-controlled tool has been called the instrumental and anthropological understanding of technology.

However, this understanding is becoming insufficient when technologies become fast and interdependent, i.e. when fast technologies form systems and global networks. Powerful modern technologies, especially in the field of informatics, have long ceased to be mere instruments and have created constraints for human action which act to predetermine activity and predefine purposes.

As a consequence, the metaphysical distinction between subject and object has become blurred. In the 1950s Heidegger already speaks of modern technology not as the negation but as the culmination of metaphysical thought which provokes men to "overcome" metaphysics. The weakening of metaphysical determinations which occurs in the project of modern technology has also meant that it become impossible to clearly define what being human is, and to determine the line that separates non-human from human being. These changes are not progressing at a controllable rate, but they are undergoing constant acceleration. The very efficiency and power of calculation of modern technologies means that acceleration itself is being accelerated. Every new technological development produces new shortcuts in socio-technical systems and in communication.

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body and mind as defects

In an increasingly technisised world where technology has also become a determinant of value-free values, mind and body are increasingly considered as "imperfect" compared to the brilliant designs of technology. While for centuries the "weakness" of the human flesh has been the object of lamentations, the 21st century seems set to transform the genre of tragedy into a sober technological project of improvement. Within this project, men and women receive the status of "risk factor" which potentially destabilises technological systems, a circumstance which calls for correction and control measures.

Two main ways of checking the risk of "human error", as well as inefficiency, irrationality, selfishness, emotional turbulence, and other weaknesses of human beings: by minimizing human participation in technological processes, and, to an increasing extent, by technically eliminating such risk factors in human beings themselves.

Human beings, once considering themselves as the "crown of creation" or the "masters of the world" are reducing themselves to the "human factor" in globally networked technical systems, that factor which still escapes reliable calculation and which, when interacting with fast and potent technical environments, is a source of imperfection. For the human mind and body to perfect itself - to adapt itself to the horizon of perfection of science and technology - takes long time periods of discipline, learning, even biological evolution.

In the calculating thinking required in highly technisised context, mind and body inevitably appear as deficient compared to a technology which, unlike the human organism, has the potential of fast and controlled "improvement". Surely, the human organism has always been prey to defects, to "illnesses" and "disablement". Disease has therefore been one of the main motivations behind the development of Bio-ITs: Bio-ITs are being developed to help the blind get their eyesight back, the deaf to hear, the lame to walk, the depressed to be happy. Such medical applications of Bio-ITs are nothing essentially new: Captain Silver's crunch, the wheelchair, a tooth filling save the same basic purpose of correcting a physical deficiency.

But there is a much wider scope to this new development, in which the "normal" biological condition of a human being, such as proneness to death, forgetfulness, aging, inefficiency, solitude, or boredom are understood as defects which can and should be corrected. The use of ITs to overcome such "biological" constraints is often seen as the "ultimate" technological advance, even if the history of utopian visions connected to technological innovation is as old as it is rife with surprise, disappointment, and disaster.

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Implant technology

Kevin Warwick at the University of Reading works on implant technologies which could enhance or modify functions of the limbs and the brain, or bring back functionalities lost, for example, in an accident or as a consequence of a stroke. Implants are also used for identification in "intelligent buildings" where they serve to control "personnel flows". However, the real potential of electronic implants seems to lie in the field of electronic drugs. The basics of the brain computer interface are already explored, and there are now efforts to electronically modify the function of the mind. Large software and IT companies are sponsoring this research which could result in the commercialisation of electronic drugs, functioning as anti-depressants, pain killers and the like. Evidently, the same technologies can also be used as narcotic drugs or to modify people's behaviour. The functioning of body and mind can be adapted to pre-defined principles and ideals, their autonomous existence reduced and subjected to direct outside control.

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Biotechnology: robotics and artificial intelligence

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The third industiral revolution. Life as a product.

Many years ago, the German philosopher Günther Anders already described the historical situation in which the homo creator and homo materia coincide as the "third industrial revolution". Anders, who spent many years exiled in the USA after fleeing from the Nazis, made issue of the ambivalence of modern science and technology as early as in the 1950s, and many of the concerns which today form part of the debates around the implications of computer technology are already polemically discussed in his work.

The "third industrial revolution" is characterized by men becoming the "raw material" of their own industries. Product and producer, production and consumption, technology and nature are no longer meaningful pairs of opposites. The third is also the last revolution, as it is difficult to think of further revolutions when the distinction between subject and object becomes blurred. The world is becoming a Bestand and the human body and mind are no protected zones. They are something like the last safety zone of human being which is now itself becoming a basis for technological innovation. When the subject is weakened by its technical environment, the use of technical crooks for body and mind becomes an obvious "solution", even if the technically strengthened subject is strengthened at the cost of no longer being a "subject" in the traditional, metaphysical sense. Biological processes are dissected and subjected to technical control. This technical control is technical in two senses: it is not only control through technology but by ttechnology itsself, since it is not carried out by unaided human minds, but increasingly by intelligent machines.

The point where this Andersian third industrial revolution reaches an unprecedented logic seems to lie within the realm of genetic engeneering. This example shows that the dissection of humanness - the decoding of genetic information - is tantamount to commodification. The purpose of the commercial genetic research projects is the use of genetic information as a resource for the development of new products, e.g. in pharmaceutics. Genetic products carry the promise of offering a solution to so-far uncurable diseases such as cancer, Alzeheimer, heart disorders, schizophrenia, and others, but they also open up the possibility of "breaking the chains of evolution", of actively manipulating the genetic structure of human beings and of "designing" healthy, long-living, beautiful, hard-working etc. beings. Here, the homo creator and the homo materia finally become indistinguishable and we are being to merge with our products in such a way that it "we" loses the remains of its meaning.

Since 1990 research on human genetics is organised in the Human Genome Project where universities from various countries cooperate in transcribing the entire genetic information of the predecessor of the homo sapiens , composed of 80,000 genes and more than 3 billion DNA sequences. The objective of the project is to complet the transcription process by the year 2003. One of the rationales of organising Genome research in an international fashion has been its extremely high cost, and also an ethical consideration, according to which human genetic information must not be a private property, which would be the case when genetic information becomes patentised.

But exactly this patentising is of paramount importance in the emerging "post-industrial" society where knowledge becomes the most important resource. A patent is nothing else than a property title to a piece of "know-how", and an necessary consequence commodification. When life no longer simply a natural creation but a product, it, too, will be patented and becomes a commodity.

Against the idea of the human genome as a public good, or an "open source", there is a growing competion on the part of private industry. Companies such as Celera deloped deciphering technologies which may allow an earlier completion of the project. In the case that human genetic information actually becomes patentised, then the technical possibility of interfering in human evolution would at leasst be partly in the hands of private business. What has been called a "quintessentially public resource" Iceland. In this nordic country, the government decided to allow the American genetics company DeCode to access and commercially exploit the anonymised genetic information of the entire population of Iceland. The Icelandic population provides a particularly good "sample" for research, because there has been almost no immigration since the times of the Vikings, and therefore genetic variations can be more easily detected than in populations with a more diverse genome. Also, Iceland possesses a wealth of genealogical information - many families are able to trace their origins back to the 12th century. Here modern science has found optimal laboratory conditions. Perhaps, had European history taken a different course in the 1930s and 40s, the frontier of commercial gentetic research would have found optimal conditions in an "ethnically clean" centre of Euorpe? The requirement of "purity", of "eliminating" difference prior to constructing knowledge, inscribed in the modern science since its beginnings, also applies to genome research. Except that in this kind of research humankind itself needs to fulfill laboratory standards of cleanliness, and that the biological transcription of humanness, the biological "nucleus" of the species, becomes the object of research, much like the nucleus of matter, the atom, in the 1940s and 50s.

But the commodification of life is not limited ot the human species. Genetically altered animals and plants are also suffering the same fate, and in most industrialised nations it is now possible to patent genetically engeneered species and crops. The promises of the "Green Revolution" of the 1960s are now repeated in the genetic revolution. Genetic engeneering, so it is argued, will be able to breed animals and plants which resist disease and yield more "food" and will therfore help to tackle problems of undernutrition and starvation. Companies such as Monsanto are at the forefront of developing genetically altered ("enhanced") food crops and promise to solve not only the problem of world hunger, but to improve the safety and even the taste of food. Convinced of the opposite of such high-flown promises, Vandana Shiva from the Indian Research Foundation for Science, Technology and Ecology emphasises the relationship between post-colonial style exploitation of so-called "third world" countries. She also stresses the adverse ecological impact of biotechnology: "Today, the world is on the brink of a biological diversity crisis. The constantly diminishing store of biodiversity on our planet poses an enormous environmental threat"http://www.cnn.com/bioethics/9902/iceland.dna/template.html, 22 February 1999

http://www.indiaserver.com/betas/vshiva/title.htm, 9 February 2000

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Beautiful bodies

However, artificial beings need not be invisible or look like Arnold Schwarzenegger in "Terminator". "My dream would be to create an artificial man that does not look like a robot but like a beautiful, graceful human being. The artificial man should be beautiful". Nadia Thalman's hopes for beautiful robots may become reality in the work of MIRALab, a research laboratory attached to the University of Geneva dedicated to realistic modelling of human functionalities. The laboratory has produced an artificial Marylyn Monroe showing just how beautiful artificial creatures can be, and there is a biography featuring details of her career and her - however virtual - love life. Yet beautiful creatures have been made before, at leas on the movie screen. Frank-N-furter, the protagonist of the Rocky Horror picture show ("I've been making a man / with blond hair and a tan / and he is good for relieving my /tension) did set remakrable esthetic standards.

While in Hindu mythology, avatars are bodies chosen by gods for their representation on earth, often animals such as swans or horses, the avatars populating cyberspace have a different function. The cyber bodies of real people, often 3 dimensional images of creatures whose aesthetics reflects both the tastes prevalent in the entertainment and advertising industries as the state of art in visual representation.

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Satyrs, Frankenstein, Machine Men, Cyborgs

The idea of hybrid beings between man and non-human entities can be traced back to mythology: mythologies, European and non-European are populated with beings which are both human and non-human, and which, because of this non-humanness, have served as reference points in the human endeavour of understanding what it means to be human. Perhaps "being human" is not even a meaningful phrase without the possibility to identify ourselves also with the negation of humanness, that is, to be human through the very possibility of identification with the non-human.

While in classical mythology, such being were usually between the man and animal kingdoms, or between the human and the divine, the advent of modern technology in the past two centuries has countered any such irrational representations of humanness. The very same supremacy of rationality which deposited the hybrid beings of mythology (and of religion) on the garbage heap of the modern period and which attempted a "pure" understanding of humanness, has also been responsible for the rapid advance of technology and which in turn prepared a "technical" understanding of the human.

The only non-human world which remains beyond the animal and divine worlds is the world of technology. The very attempt of a purist definition of the human ran encountered difficulty; the theories of Darwin and Freud undermined the believe that there was something essentially human in human beings, something that could be defined without references to the non-human.

Early representations of half man - half machine creatures echo the fear of the violent use of machinery, as in wars. Mary Shelley published Frankenstein in 1818, only a few years after the end of the Napoleonic wars. But machines are not only a source of fear exploited in fiction literature, their power and makes their non-humanness super-humanness. The French philosopher and doctor Julien de La Mettrie argues in his famous Machine Man that human beings are essentially constructed like machines and that they obey to the same principles. Machine Man provides a good example of how the ideas of the Enlightenment of human autonomy are interwoven with a technical discourse of perfection.

What human minds have later dreamed up about - usually hostile - artificial beings has segmented in the literary genre of science fiction. Science fiction seems to have provided the "last" protected zone for the strong emotions and hard values which in standard fiction literature would relegate a story into the realm of kitsch. Violent battles, strong heroes, daring explorations, infinity and solitude, clashes of right and wrong and whatever else makes up the aesthetic repertoire of metaphysics has survived unscathed in science fiction.

However, science fiction also seems to mark the final sequence of pure fiction: the Cyborg heroes populating this genre have transcended the boundary between fact and fiction, ridiculing most established social theories of technology based on technological instrumentalism. Donna Haraway has gone a long way in coming to terms with the cultural and social implications of this development. "By the late twentieth century, our time, a mythic time, we are all chimeras, theorized and fabricated hybrids of machine and organism; in short, we are cyborgs", Haraway states in her Cyborg Manifesto. In cyber culture, the boundaries between organisms and machines, between nature and culture become as ambivalent as the borderline between he physical and the non-physical: "Our best machines are made of sunshine; they are all light and clean because they are nothing but signals".

In the Flesh Machine the Critial Art Ensemble analyses the mapping of the body, as in genetics, as one aspect of keeping state power in place, the other two aspects being the "war machine" and the "sight machine". The mapping of the flesh machine is a logical and necessary consequence of the development of the other two "machines". Cyborgisation is in the words of CEA, the "coming of age of the flesh machine", which, although it has "intersected both the sight and war machine since ancient times ... is the slowest to develop. " Representation is a necessary preliminary to violence, since "Any successful offensive military action begins with visualization and representation. The significant principle here .... is that vision equals control."

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In Search of Reliable Internet Measurement Data

Newspapers and magazines frequently report growth rates of Internet usage, number of users, hosts, and domains that seem to be beyond all expectations. Growth rates are expected to accelerate exponentially. However, Internet measurement data are anything thant reliable and often quite fantastic constructs, that are nevertheless jumped upon by many media and decision makers because the technical difficulties in measuring Internet growth or usage are make reliable measurement techniques impossible.

Equally, predictions that the Internet is about to collapse lack any foundation whatsoever. The researchers at the Internet Performance Measurement and Analysis Project (IPMA) compiled a list of news items about Internet performance and statistics and a few responses to them by engineers.

Size and Growth

In fact, "today's Internet industry lacks any ability to evaluate trends, identity performance problems beyond the boundary of a single ISP (Internet service provider, M. S.), or prepare systematically for the growing expectations of its users. Historic or current data about traffic on the Internet infrastructure, maps depicting ... there is plenty of measurement occurring, albeit of questionable quality", says K. C. Claffy in his paper Internet measurement and data analysis: topology, workload, performance and routing statistics (http://www.caida.org/Papers/Nae/, Dec 6, 1999). Claffy is not an average researcher; he founded the well-known Cooperative Association for Internet Data Analysis (CAIDA).

So his statement is a slap in the face of all market researchers stating otherwise.
In a certain sense this is ridiculous, because since the inception of the ARPANet, the offspring of the Internet, network measurement was an important task. The very first ARPANet site was established at the University of California, Los Angeles, and intended to be the measurement site. There, Leonard Kleinrock further on worked on the development of measurement techniques used to monitor the performance of the ARPANet (cf. Michael and Ronda Hauben, Netizens: On the History and Impact of the Net). And in October 1991, in the name of the Internet Activities Board Vinton Cerf proposed guidelines for researchers considering measurement experiments on the Internet stated that the measurement of the Internet. This was due to two reasons. First, measurement would be critical for future development, evolution and deployment planning. Second, Internet-wide activities have the potential to interfere with normal operation and must be planned with care and made widely known beforehand.
So what are the reasons for this inability to evaluate trends, identity performance problems beyond the boundary of a single ISP? First, in early 1995, almost simultaneously with the worldwide introduction of the World Wide Web, the transition of the stewardship role of the National Science Foundation over the Internet into a competitive industry (bluntly spoken: its privatization) left no framework for adequate tracking and monitoring of the Internet. The early ISPs were not very interested in gathering and analyzing network performance data, they were struggling to meet demands of their rapidly increasing customers. Secondly, we are just beginning to develop reliable tools for quality measurement and analysis of bandwidth or performance. CAIDA aims at developing such tools.
"There are many estimates of the size and growth rate of the Internet that are either implausible, or inconsistent, or even clearly wrong", K. G. Coffman and Andrew, both members of different departments of AT & T Labs-Research, state something similar in their paper The Size and Growth Rate of the Internet, published in First Monday. There are some sources containing seemingly contradictory information on the size and growth rate of the Internet, but "there is no comprehensive source for information". They take a well-informed and refreshing look at efforts undertaken for measuring the Internet and dismantle several misunderstandings leading to incorrect measurements and estimations. Some measurements have such large error margins that you might better call them estimations, to say the least. This is partly due to the fact that data are not disclosed by every carrier and only fragmentarily available.
What is measured and what methods are used? Many studies are devoted to the number of users; others look at the number of computers connected to the Internet or count IP addresses. Coffman and Odlyzko focus on the sizes of networks and the traffic they carry to answer questions about the size and the growth of the Internet.
You get the clue of their focus when you bear in mind that the Internet is just one of many networks of networks; it is only a part of the universe of computer networks. Additionally, the Internet has public (unrestricted) and private (restricted) areas. Most studies consider only the public Internet, Coffman and Odlyzko consider the long-distance private line networks too: the corporate networks, the Intranets, because they are convinced (that means their assertion is put forward, but not accompanied by empirical data) that "the evolution of the Internet in the next few years is likely to be determined by those private networks, especially by the rate at which they are replaced by VPNs (Virtual Private Networks) running over the public Internet. Thus it is important to understand how large they are and how they behave." Coffman and Odlyzko check other estimates by considering the traffic generated by residential users accessing the Internet with a modem, traffic through public peering points (statistics for them are available through CAIDA and the National Laboratory for Applied Network Research), and calculating the bandwidth capacity for each of the major US providers of backbone services. They compare the public Internet to private line networks and offer interesting findings. The public Internet is currently far smaller, in both capacity and traffic, than the switched voice network (with an effective bandwidth of 75 Gbps at December 1997), but the private line networks are considerably larger in aggregate capacity than the Internet: about as large as the voice network in the U. S. (with an effective bandwidth of about 330 Gbps at December 1997), they carry less traffic. On the other hand, the growth rate of traffic on the public Internet, while lower than is often cited, is still about 100% per year, much higher than for traffic on other networks. Hence, if present growth trends continue, data traffic in the U. S. will overtake voice traffic around the year 2002 and will be dominated by the Internet. In the future, growth in Internet traffic will predominantly derive from people staying longer and from multimedia applications, because they consume more bandwidth, both are the reason for unanticipated amounts of data traffic.

Hosts

The Internet Software Consortium's Internet Domain Survey is one of the most known efforts to count the number of hosts on the Internet. Happily the ISC informs us extensively about the methods used for measurements, a policy quite rare on the Web. For the most recent survey the number of IP addresses that have been assigned a name were counted. At first sight it looks simple to get the accurate number of hosts, but practically an assigned IP address does not automatically correspond an existing host. In order to find out, you have to send a kind of message to the host in question and wait for a reply. You do this with the PING utility. (For further explanations look here: Art. PING, in: Connected: An Internet Encyclopaedia) But to do this for every registered IP address is an arduous task, so ISC just pings a 1% sample of all hosts found and make a projection to all pingable hosts. That is ISC's new method; its old method, still used by RIPE, has been to count the number of domain names that had IP addresses assigned to them, a method that proved to be not very useful because a significant number of hosts restricts download access to their domain data.
Despite the small sample, this method has at least one flaw: ISC's researchers just take network numbers into account that have been entered into the tables of the IN-ADDR.ARPA domain, and it is possible that not all providers know of these tables. A similar method is used for Telcordia's Netsizer.

Internet Weather

Like daily weather, traffic on the Internet, the conditions for data flows, are monitored too, hence called Internet weather. One of the most famous Internet weather report is from The Matrix, Inc. Another one is the Internet Traffic Report displaying traffic in values between 0 and 100 (high values indicate fast and reliable connections). For weather monitoring response ratings from servers all over the world are used. The method used is to "ping" servers (as for host counts, e. g.) and to compare response times to past ones and to response times of servers in the same reach.

Hits, Page Views, Visits, and Users

Let us take a look at how these hot lists of most visited Web sites may be compiled. I say, may be, because the methods used for data retrieval are mostly not fully disclosed.
For some years it was seemingly common sense to report requested files from a Web site, so called "hits". A method not very useful, because a document can consist of several files: graphics, text, etc. Just compile a document from some text and some twenty flashy graphical files, put it on the Web and you get twenty-one hits per visit; the more graphics you add, the more hits and traffic (not automatically to your Web site) you generate.
In the meantime page views, also called page impressions are preferred, which are said to avoid these flaws. But even page views are not reliable. Users might share computers and corresponding IP addresses and host names with others, she/he might access not the site, but a cached copy from the Web browser or from the ISP's proxy server. So the server might receive just one page request although several users viewed a document.

Especially the editors of some electronic journals (e-journals) rely on page views as a kind of ratings or circulation measure, Rick Marin reports in the New York Times. Click-through rates - a quantitative measure - are used as a substitute for something of intrinsically qualitative nature: the importance of a column to its readers, e. g. They may read a journal just for a special column and not mind about the journal's other contents. Deleting this column because of not receiving enough visits may cause these readers to turn their backs on their journal.
More advanced, but just slightly better at best, is counting visits, the access of several pages of a Web site during one session. The problems already mentioned apply here too. To avoid them, newspapers, e.g., establish registration services, which require password authentication and therefore prove to be a kind of access obstacle.
But there is a different reason for these services. For content providers users are virtual users, not unique persons, because, as already mentioned, computers and IP addresses can be shared and the Internet is a client-server system; in a certain sense, in fact computers communicate with each other. Therefore many content providers are eager to get to know more about users accessing their sites. On-line registration forms or WWW user surveys are obvious methods of collecting additional data, sure. But you cannot be sure that information given by users is reliable, you can just rely on the fact that somebody visited your Web site. Despite these obstacles, companies increasingly use data capturing. As with registration services cookies come here into play.

For

If you like to play around with Internet statistics instead, you can use Robert Orenstein's Web Statistics Generator to make irresponsible predictions or visit the Internet Index, an occasional collection of seemingly statistical facts about the Internet.

Measuring the Density of IP Addresses

Measuring the Density of IP Addresses or domain names makes the geography of the Internet visible. So where on earth is the most density of IP addresses or domain names? There is no global study about the Internet's geographical patterns available yet, but some regional studies can be found. The Urban Research Initiative and Martin Dodge and Narushige Shiode from the Centre for Advanced Spatial Analysis at the University College London have mapped the Internet address space of New York, Los Angeles and the United Kingdom (http://www.geog.ucl.ac.uk/casa/martin/internetspace/paper/telecom.html and http://www.geog.ucl.ac.uk/casa/martin/internetspace/paper/gisruk98.html).
Dodge and Shiode used data on the ownership of IP addresses from RIPE, Europe's most important registry for Internet numbers.





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Internet, Intranets, Extranets, and Virtual Private Networks

With the rise of networks and the corresponding decline of mainframe services computers have become communication devices instead of being solely computational or typewriter-like devices. Corporate networks become increasingly important and often use the Internet as a public service network to interconnect. Sometimes they are proprietary networks.

Software companies, consulting agencies, and journalists serving their interests make some further differences by splitting up the easily understandable term "proprietary networks" into terms to be explained and speak of Intranets, Extranets, and Virtual Private Networks.

Cable TV networks and online services as Europe Online, America Online, and Microsoft Network are also proprietary networks. Although their services resemble Internet services, they offer an alternative telecommunication infrastructure with access to Internet services for their subscribers.
America Online is selling its service under the slogan "We organize the Web for you!" Such promises are more frightening than promising because "organizing" is increasingly equated with "filtering" of seemingly objectionable messages and "rating" of content. For more information on these issues, click here If you want to know more about the technical nature of computer networks, here is a link to the corresponding article in the Encyclopaedia Britannica.

Especially for financial transactions, secure proprietary networks become increasingly important. When you transfer funds from your banking account to an account in another country, it is done through the SWIFT network, the network of the Society for Worldwide Interbank Financial Telecommunication (SWIFT). According to SWIFT, in 1998 the average daily value of payments messages was estimated to be above U$ 2 trillion.

Electronic Communications Networks as Instinet force stock exchanges to redefine their positions in trading of equities. They offer faster trading at reduced costs and better prices on trades for brokers and institutional investors as mutual funds and pension funds. Last, but not least clients are not restricted to trading hours and can trade anonymously and directly, thereby bypassing stock exchanges.

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Who owns the Internet and who is in charge?

The Internet/Matrix still depends heavily on public infrastructure and there is no dedicated owner of the whole Internet/Matrix, but the networks it consists of are run and owned by corporations and institutions. Access to the Internet is usually provided by Internet Service Providers (ISPs) for a monthly fee. Each network is owned by someone and has a network operation center from where it is centrally controlled, but the Internet/Matrix is not owned by any single authority and has no network operation center of its own. No legal authority determines how and where networks can be connected together, this is something the managers of networks have to agree about. So there is no way to ever gain ultimate control of the Matrix/Internet.
The in some respects decentralized Matrix/Internet architecture and administration do not imply that there are no authorities for oversight and common standards for sustaining basic operations, for administration: There are authorities for IP number and domain name registrations, e.g.
Ever since the organizational structures for Internet administration have changed according to the needs to be addressed. Up to now, administration of the Internet is a collaborative undertaking of several loose cooperative bodies with no strict hierarchy of authority. These bodies make decisions on common guidelines, as communication protocols, e.g., cooperatively, so that compatibility of software is guaranteed. But they have no binding legal authority, nor can they enforce the standards they have agreed upon, nor are they wholly representative for the community of Internet users. The Internet has no official governing body or organization; most parts are still administered by volunteers.
Amazingly, there seems to be an unspoken and uncodified consent of what is allowed and what is forbidden on the Internet that is widely accepted. Codifications, as the so-called Netiquette, are due to individual efforts and mostly just expressively stating the prevailing consent. Violations of accepted standards are fiercely rejected, as reactions to misbehavior in mailing lists and newsgroups prove daily.
Sometimes violations not already subject to law become part of governmental regulations, as it was the case with spamming, the unsolicited sending of advertising mail messages. But engineers proved to be quicker and developed software against spamming. So, in some respects, the Internet is self-regulating, indeed.
For a detailed report on Internet governance, click here.

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Global Data Flows

Fiber-optic cables, coaxial cables, copper wires, electric power lines, microwaves, satellite communication, mobile telephony, computer networks: Various telecommunication networks following a variety of standards with bewildering abbreviations - DSL, WAP, GSM, UMTS, Ipv4 etc. - and carrying endless flows of capital and information are the blood veins of modern societies.

In the space of flows constituted by today's global data networks the space of places is transcended. Visualizations of these global data flows show arches bridging seas and continents, thereby linking the world's centres of research and development, economics and politics. In the global "Network Society" (Manuel Castells) the traditional centres of power and domination are not discarded, in the opposite, they are strengthened and reinforced by the use of information and communication technologies. Political, economical and symbolical power becomes increasingly linked to the use of modern information and communication technologies. The most sensitive and advanced centres of information and communication technologies are the stock markets. Excluded from the network constituted by modern information and communication technologies, large parts of Africa, Asia and South America, but also the poor of industrialized countries, are ranking increasingly marginal to the world economy.

Cities are centres of communications, trade and power. The higher the percentage of urban population, the more it is likely that the telecommunications infrastructure is generally good to excellent. This goes hand in hand with lower telecommunications costs. Those parts of the world with the poorest infrastructure are also the world's poorhouse. In Bangladesh for most parts of the population a personal computer is as expensive as a limousine in European one-month's salary in Europe, they have to pay eight annual salaries. Therefore telecommunications infrastructure is concentrated on the highly industrialized world: Most telephone mainlines, mobile telephones, computers, Internet accounts and Internet hosts (computers connected to the global data networks) can be found here. The same applies to media: the daily circulation of newspapers and the use of TV sets and radios. - Telecommunication and media services affordable to most parts of the population are mostly restricted to industrialized countries.

This situation will not change in the foreseeable future: Most expenditure for telecommunications infrastructure will be restricted to the richest countries in the world. In 1998, the world's richest countries consumed 75% of all cables and wires.

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Internet services

The Internet can be used in in different ways: for distributing and retrieving information, for one-to-one, one-to-many and many-to-many communication, and for the access services. Accordingly, there are different services on offer. The most important of these are listed below.

Telnet

FTP (File Transfer Protocol)

Electronic Messaging (E-Mail)

World Wide Web (WWW)

Bulletin Board Systems (BBS)

Electronic Data Interchange (EDI)

Internet Relay Chat (IRC)

Multiple User Dimensions (MUDs)

Gopher

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Operating the net: overview

The Net consists of thousands of thousands of governmental and private networks linked together. No legal authority determines how and where networks can be connected together, this is something the managers of networks have to agree about. So there is no way of ever gaining ultimate control of the Internet. Although each of these networks is operated and controlled by an organization, no single organization operates and controls the Net. Instead of a central authority governing the Net, several bodies assure the operability of the Net by developing and setting technical specifications for the Net and by the control of the technical key functions of the Net as the coordination of the domain name system and the allocation of IP numbers.

Originally, the Net was a research project funded and maintained by the US Government and developed in collaboration by scientists and engineers. As the standards developed for ensuring operability ensued from technical functionality, technical coordination gradually grew out of necessity and was restricted to a minimum and performed by volunteers.

Later, in the 1980s, those occupied with the development of technical specifications organized themselves under the umbrella of the Internet Society in virtual organizations as the Internet Engineering Task Force, which were neither officially established nor being based on other structures than mailing lists and commitment, but nonetheless still serve as task forces for the development of standards ensuring the interoperability on the Net.

Since the late 80s and the early 90s, with the enormous growth of the Net - which was promoted by the invention of Local Area Networks, the creation of the World Wide Web, the increased use of personal computers and the connecting of corporations to the Net, just to name a few - coordination of some technical key functions as the domain name system was handed over to corporations as Network Solutions Inc.

Since the year 2000, a new model for technical coordination has been emerging: Formerly performed by several bodies, technical coordination is transferred to a single non-governmental organization: the Internet Coordination of Assigned Numbers and Names.

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Acessing the Internet

The Net connections can be based on wire-line and wireless access technolgies.

Wire-line access

Wire-less access

copper wires

Satellites

coaxial cables

mobile terrestrial antennas

electric power lines

fixed terrestrial antennas

fiber-optic cables







Usually several kinds of network connections are employed at once. Generally speaking, when an E-mail message is sent it travels from the user's computer via copper wires or coaxial cables ISDN lines, etc., to an Internet Service Provider, from there, via fibre-optic cables, to the nearest Internet exchange, and on into a backbone network, tunneling across the continent und diving through submarine fibre-optic cables across the Atlantic to another Internet exchange, from there, via another backbone network and across another regional network to the Internet Service Provider of the supposed message recipient, from there via cables and wires of different bandwidth arriving at its destination, a workstation permanently connected to the Internet. Finally a sound or flashing icon informs your virtual neighbor that a new message has arrived.

Satellite communication

Although facing competition from fiber-optic cables as cost-effective solutions for broadband data transmission services, the space industry is gaining increasing importance in global communications. As computing, telephony, and audiovisual technologies converge, new wireless technologies are rapidly deployed occupying an increasing market share and accelerating the construction of high-speed networks.

Privatization of satellite communication

Until recently transnational satellite communication was provided exclusively by intergovernmental organizations as Intelsat, Intersputnik and Inmarsat.

Scheduled privatization of intergovernmental satellite consortia:

Satellite consortia

Year of foundation

Members

Scheduled date for privatization

Intelsat

1964

200 nations under the leadership of the USA

2001

Intersputnik

1971

23 nations under the leadership of Russia

?

Inmarsat

1979

158 nations (all members of the International Maritime Organization)

privatized since 1999

Eutelsat

1985

Nearly 50 European nations

2001



When Intelsat began to accumulate losses because of management failures and the increasing market share of fiber-optic cables, this organizational scheme came under attack. Lead by the USA, the Western industrialized countries successfully pressed for the privatization of all satellite consortia they are members of and for competition by private carriers.

As of February 2000, there are 2680 satellites in service. Within the next four years a few hundred will be added by the new private satellite systems. Most of these systems will be so-called Low Earth Orbit satellite systems, which are capable of providing global mobile data services on a high-speed level at low cost.

Because of such technological improvements and increasing competition, experts expect satellite-based broadband communication to be as common, cheap, and ubiquitous as satellite TV today within the next five or ten years.

Major satellite communication projects

Project name

Main investors

Expected cost

Number of satellites

Date of service start-up

Astrolink

Lockheed Martin, TRW, Telespazio, Liberty Media Group

US$ 3.6 billion

9

2003

Globalstar

13 investors including Loral Space & Communications, Qualcomm, Hyundai, Alcatel, France Telecom, China Telecom, Daimler Benz and Vodafone/Airtouch

US$ 3.26 billion

48

1998

ICO

57 investors including British Telecom, Deutsche Telecom, Inmarsat, TRW and Telefonica

US$ 4.5 billion

10

2001

Skybridge

9 investors including Alcatel Space, Loral Space & Communications, Toshiba, Mitsubishi and Sharp

US$ 6.7 billion

80

2002

Teledesic

Bill Gates, Craig McCaw, Prince Alwaleed Bin Talal Bin Abdul Aziz Alsaud, Abu Dhabi Investment Company

US$ 9 billion

288

2004


Source: Analysys Satellite Communications Database

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How the Internet works

On the Internet, when you want to retrieve a document from another computer, you request a service from this computer. Your computer is the client, the computer on which the information you want to access is stored, is called the server. Therefore the Internet's architecture is called client-server architecture.

A common set of standards allows the exchange of data and commands independent from locations, time, and operating systems through the Internet. These standards are called communication protocols, or the Internet Protocol Suite, and are implemented in Internet software. Sometimes the Internet Protocol Suite is erroneously identified with TCP/IP (Transmission Control Protocol / Internet Protocol).

Any information to be transferred is broken down into pieces, so-called packets, and the Internet Protocol figures out how the data is supposed to get from A to B by passing through routers.

Each packet is "pushed" from router to router via gateways and might take a different route. It is not possible to determine in advance which ways these packets will take. At the receiving end the packets are checked and reassembled.

The technique of breaking down all messages and requests into packets has the advantage that a large data bundle (e.g. videos) sent by a single user cannot block a whole network, because the bandwidth needed is deployed on several packets sent on different routes. Detailed information about routing in the Internet can be obtained at http://www.scit.wlv.ac.uk/~jphb/comms/iproute.html.

One of the Internet's (and of the Matrix's) beginnings was the ARPANet, whose design was intended to withstand any disruption, as for example in military attacks. The ARPANet was able to route data around damaged areas, so that the disruption would not impede communication. This design, whith its origin in strategic and military considerations, remained unchanged for the Internet. Yet the design of the ARPANet's design cannot be completely applied to the Internet.

Routing around depends on the location of the interruption and on the availability of intersecting points between networks. If, for example, an E-mail message is sent from Brussels to Athens and in Germany a channel is down, it will not affect access very much, the message will be routed around this damage, as long as a major Internet exchange is not affected. However, if access depends on a single backbone connection to the Internet and this connection is cut off, there is no way to route around.

In most parts of the world the Internet is therefore vulnerable to disruption. "The idea of the Internet as a highly distributed, redundant global communications system is a myth. Virtually all communications between countries take place through a very small number of bottlenecks, and the available bandwidth isn't that great," says Douglas Barnes. These bottlenecks are the network connections to neighboring countries. Many countries rely on a one single connection to the Net, and in some places, such as the Suez Canal, there is a concentration of fiber-optic cables of critical importance.

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What is the Internet?

Each definition of the Internet is a simplified statement and runs the risk of being outdated within a short time. What is usually referred to as the Internet is a network of thousands of computer networks (so called autonomous systems) run by governmental authorities, companies, and universities, etc. Generally speaking, every time a user connects to a computer networks, a new Internet is created. Technically speaking, the Internet is a wide area network (WAN) that may be connected to local area networks (LANs).

What constitutes the Internet is constantly changing. Certainly the state of the future Net will be different to the present one. Some years ago the Internet could still be described as a network of computer networks using a common communication protocol, the so-called IP protocol. Today, however, networks using other communication protocols are also connected to other networks via gateways.

Also, the Internet is not solely constituted by computers connected to other computers, because there are also point-of-sale terminals, cameras, robots, telescopes, cellular phones, TV sets and and an assortment of other hardware components that are connected to the Internet.

At the core of the Internet are so-called Internet exchanges, national backbone networks, regional networks, and local networks.

Since these networks are often privately owned, any description of the Internet as a public network is not an accurate. It is easier to say what the Internet is not than to say what it is. On 24 October, 1995 the U.S. Federal Networking Council made the following resolution concerning the definition of the term "Internet": "Internet" refers to the global information system that (i) is logically linked together by a globally unique address space based on the Internet Protocol (IP) or its subsequent extensions/follow-ons; (ii) is able to support communications using the Transmission Control Protocol/Internet Protocol (TCP/IP) suite or its subsequent extensions/follow-ons, and/or other IP-compatible protocols; and (iii) provides, uses or makes accessible, either publicly or privately, high level services layered on the communications and related infrastructure described herein." (http://www.fnc.gov/Internet_res.html)

What is generally and in a simplyfiying manner called the Internet, may be better referred to as the Matrix, a term introduced by science fiction writer William Gibson, as John S. Quarterman and Smoot Carl-Mitchell have proposed. The Matrix consists of all computer systems worldwide capable of exchanging E-Mail: of the USENET, corporate networks and proprietary networks owned by telecommunication and cable TV companies.

Strictly speaking, the Matrix is not a medium; it is a platform for resources: for media and services. The Matrix is mainly a very powerful means for making information easily accessible worldwide, for sending and receiving messages, videos, texts and audio files, for transferring funds and trading securities, for sharing resources, for collecting weather condition data, for trailing the movements of elephants, for playing games online, for video conferencing, for distance learning, for virtual exhibitions, for jamming with other musicians, for long distance ordering, for auctions, for tracking packaged goods, for doing business, for chatting, and for remote access of computers and devices as telescopes and robots remotely, e. g. The Internet is a wonderful tool for exchanging, retrieving, and storing data and sharing equipment over long distances and eventually real-time, if telecommunication infrastructure is reliable and of high quality.

For a comprehensive view of uses of the Matrix, especially the World Wide Web, see ""24 Hours in Cyberspace"

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The Role of the Media

To be able to participate in community life and make political choices citizens heavily rely on information. They need to know what is going on and the options that they should weigh, debate and act upon. An essential element for a functioning public sphere therefore is information.

Whereas formerly communication mostly happened on a face-to-face basis in large and complex societies (mass) media have evolved as the principal source of information. They act as a transport medium for the information necessary for a citizen's participation in the public sphere. Ideally there should be a wide range of media, that represent the diverse opinions and viewpoints on issues of public interest existent in a society and which are independent of the state and society's dominant economic forces.

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The Concept of the Public Sphere

According to social critic and philosopher Jürgen Habermas "public sphere" first of all means "... a domain of our social life in which such a thing as public opinion can be formed. Access to the public sphere is open in principle to all citizens. A portion of the public sphere is constituted in every conversation in which private persons come together to form a public. They are then acting neither as business or professional people conducting their private affairs, nor as legal consociates subject to the legal regulations of a state bureaucracy and obligated to obedience. Citizens act as a public when they deal with matters of general interest without being subject to coercion; thus with the guarantee that they may assemble and unite freely, and express and publicize their opinions freely."

The system of the public sphere is extremely complex, consisting of spatial and communicational publics of different sizes, which can overlap, exclude and cover, but also mutually influence each other. Public sphere is not something that just happens, but also produced through social norms and rules, and channeled via the construction of spaces and the media. In the ideal situation the public sphere is transparent and accessible for all citizens, issues and opinions. For democratic societies the public sphere constitutes an extremely important element within the process of public opinion formation.

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Media Control and the Influence of Public Discourse

As citizens rely on information to make political choices, media are an important element in the process of public opinion formation. They decide which topics and issues are on the agenda or not; which individuals or societal groups are given broadcasting time or publishing space and which aspects and facts are presented or suppressed. Media therefore have the ability to influence public opinion and those controlling the media are to a certain extent capable of altering the nature of discourse in their desired direction.

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"Project Censored"

Project Censored was launched at Sonoma State University (U.S.) in 1976 as an annual review of the systematic withholding of public access to important news facts by the mainstream media. The team composed of student media researcher and media analysts annually selects and publishes what they believe are the 25 most important under-covered news stories. "The essential issue raised by the project is the failure of the mass media to provide the people with all the information they need to make informed decisions concerning their own lives and in the voting booth". (Project Censored)

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Content Choice and Selective Reporting

Media as today's main information sources unarguably have the power to influence political agenda-setting and public opinion. They decide which topics and issues are covered and how they are reported. Still, in many cases those decisions are not primarily determined by journalistic criteria, but affected by external factors. The importance of shareholders forces media to generate more profit every quarter, which can chiefly be raised by enlarging audiences and hence attracting more advertising money. Therefore the focus of media's programming in many cases shifts towards audience alluring content like entertainment, talk-shows, music and sports.

Further pressure regarding the selection of content occurs from advertisers and marketers, who often implicitly or explicitly suggest to refrain from programming which could show them or their products and services (e.g. tobacco) in an unfavorable light. Interlocking directorships and outright ownerships can moreover be responsible for a selective coverage. Financial connections with defense, banking, insurance, gas, oil, and nuclear power, repeatedly lead (commercial) media to the withholding of information, which could offend their corporate partners. In totalitarian regimes also pressure from political elites may be a reason for the suppression or alteration of certain facts.

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The Cassini Case

In 1997 NASA's Cassini mission to Saturn and its moons led to heated controversies, because it was fueled by plutonium, a substance that could cause serious environmental and health problems if it were released into the atmosphere.

Still no major U.S. news outlet in broadcasting or print reported in depth on the risks of the Cassini mission. Westinghouse-owned media like CBS and NBC (also partly owned by General Electric) for example had only reported that children were invited to sign a plaque inside Cassini. Not surprisingly Westinghouse and General Electric are two of the largest corporations with defense contracts and nuclear interests.

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Digital Commercial Content

Starting in the mid 1990s today most traditional media can also be found online. The overwhelming majority of bigger newspapers and periodicals, but also radio and TV stations now complement their classic media formats with digital programming. For the most part they transform existing analogue information in digital form, with some additional features.

Especially the big media conglomerates, having realized the economic potential of the Internet, have started to get into the business of digital content. Not surprisingly their engagement in the virtual sphere has not brought much new concerning their programming. They offer entertainment, music, sports and some news channels. One of the reasons for this development might be, that the big commercial media companies are able to re-use already existing programming from their other ventures. Examples are Viacom's MTV Network, which now has a twin online or Time Warner's CNN, which on the Web is called CNN Interactive. Considering business economic factors this move suggests itself as hardly any further resources are needed and the already existing programming can be put in the Internet at little extra cost. Also, regarding the undeniable success of their traditional content in terms of revenue generation the digital reproduction of their classic programming concept seems to be an obvious step.

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The Big Five of Commercial Media

After a number of mergers and acquisitions five powerful media conglomerates lead the world's content production and distribution. They operate on an international basis with subsidiaries all around the globe and engage in every imaginable kind of media industry.

Table: The World's Leading Media Companies

Media Company

1998 Revenues

(in US$)

Property/Corporate Information

AOL Time Warner (US)

26,838.000.000*

http://www.timewarner.com/corp/about/timewarnerinc/corporate/index.html

Disney (US)

22,976.000.000

http://www.disney.com

Bertelsmann (GER)

16,389.000.000

http://www.bertelsmann.com/facts/report/report.cfm

News Corporation (AUS)

12,841.000.000

http://www.newscorp.com/public/cor/cor_m.htm

Viacom (US)

12,100.000.000

http://www.viacom.com/global.tin



(* Revenues of Time Warner only (merger with AOL took place in January 2000)

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Highlights on the Way to a Global Commercial Media Oligopoly: 1980s

-1981

Rupert Murdoch and his News Corp., owner of major print and broadcast media in Australia and Great Britain, takes control of the "Times" of London, long one of the world's greatest newspapers and a genuine institution in Britain.

1984

Twentieth Century Fox, a major Hollywood movie studio and film library, is taken over by Rupert Murdoch.

1985

Lawrence Tisch and his Loews Corp. takes control of the CBS-TV network.

The News Corp. buys the six Metromedia TV stations, with which Murdoch forms a new American TV network, Fox Television.

1989

In a US$ 14.1 billion deal, Time Inc. buys the film, television, and recorded-music giant Warner Communications. The new media giant is called Time Warner.

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Commercial vs. Independent Content: Power and Scope

Regarding the dimension of their financial and human resources commercial media companies are at any rate much more powerful players than their independent counterparts. Still those reply with an extreme multiplicity and diversity. Today thousands of newsgroups, mailing-list and e-zines covering a wide range of issues from the environment to politics, social and human rights, culture, art and democracy are run by alternative groups.

Moreover independent content provider have started to use digital media for communication, information and co-ordination long before they were discovered by corporate interest. They regularly use the Internet and other networks to further public discourse and put up civic resistance. And in many cases are very successful with their work, as initiatives like widerst@ndMUND's (AT) co-ordination of the critics of the participation of the Freedom Party in the Austrian government via mailing-lists, an online-magazine and discussion forums, show.

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Content as Transport Medium for Values and Ideologies

With the dissemination of their content commercial media are among other things also able to transport values and ideologies. Usually their programming reflects society's dominant social, political, ethical, cultural and economical values. A critical view of the prevalent ideologies often is sacrificed so as not to offend the existing political elites and corporate powers, but rather satisfy shareholders and advertisers.

With most of the worlds content produced by a few commercial media conglomerates, with the overwhelming majority of companies (in terms of revenue generation) concentrated in Europe, the U.S., Japan and Australia there is also a strong flow of content from the 'North-West' to the 'South-East'. Popular culture developed in the world's dominant commercial centers and Western values and ideologies are so disseminated into the most distant corners of the earth with far less coming back.

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Commercial Media and the Economic System

Within the global economic system commercial media are powerful players. They not only support and complement the needs of nonmedia firms, but also stimulate corporate growth within countries. As they are also the main vehicle for advertising, commercial media moreover facilitate the marketing of products and services.

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Globalization of Media Power

Until the 1980s most media were domestically owned and regulated. Then, following the increased emphasis on free trade, national deregulation and privatization, pushed for by institutions like the International Monetary Fund (IMF) and the World Bank, drastic changes within the world of media occurred.

While throughout the 1990s media were still primarily organized on a national or local level, with the further rise of neoliberalism and the implementation of free movement of labor, goods, services and capital between countries the importance of national boundaries has diminished. Today the whole world participates in one global market system. Just as many other industries also commercial media have followed the trend towards globalization, resulting in an increasing number of transnational corporations (TNCs), which maintain subsidies in several countries and operate and invest on the basis of a multi-country perspective.

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Centralization of the Content Industry

Following the 1980s a sweeping restructuring of commercial media power has happened. While some firms have grown through expansion others extended through mergers and acquisitions. Examples are Time & Warner & Turner & AOL; Viacom & Paramount & Blockbusters or News Corp. & Triangle & 20th Century Fox & Metromedia TV.

In recent years those developments have led to the rise of transnational media giants, resulting in the domination of the global media system by about ten huge conglomerates. These have interests in numerous media industries, ranging from film production, magazines, newspapers, book publishing and recorded music to TV and radio channels and networks, but also include retail stores, amusement parks and digital media products.

Behind these firms are about three or four dozen smaller media companies, which primarily engage in local, national or niche markets. In short, the overwhelming majority of the world's content production facilities and distribution channels lies in the hands of approximately fifty enterprises.

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Extract of AOL Time Warner’s Content Production and Distribution Holdings

The following selection does not claim to present an exhaustive listing, but rather picks some of the company's most important assets. Due to the rapid developments in the world of media giants the list is also subject to changes.

Cable TV Systems and Channels/Networks

Time Warner Cable has 12.6 million subscribers in the U.S. and also runs 5 local 24-hour news stations.

Cable TV channels/networks (some part-owned): HBO, HBO Plus, HBO Signature, HBO Family, HBO Comedy, HBO Zone, Cinemax, MoreMAX, ActionMAX, ThrillerMAX, HBO en Espa-ol, Comedy Central, Court TV, HBO Ole, HBO Asia, HBO Central Europe, CNN, CNN Headline News, CNN International, CNNfN, CNN/Sports Illustrated, CNN en Espa-ol, CNN Airport Network, CNN Radio, CNN Radio Noticias, CNN Interactive TBS Superstation, Turner Network Television, Cartoon Network, Turner Classic Movies, TNT Europe, Cartoon Network Europe, TNT Latin America, Cartoon Network Latin America, TNT & Cartoon Network/Asia Pacific, CNN+, n-tv

Movies, TV, Video Production, and Movie Theaters

Warner Bros. film studio

Warner Bros. Television production studios

Warner Bros. Home Video

Turner worldwide Home Video

Turner Pictures

Castle Rock Entertainment movie production company

New Line Cinema movie production company

Warner Bros. film library

Turner Film Library

Hanna Barbera Cartoons

Owns many movie houses, with over 1,000 screens, around the world

Book Publishing

Time Life Inc.

Book-of-the-Month Club

Warner Books

Little, Brown and Company

Oxmoor House

Leisure Arts

Sunset Books

Magazines

Time, People, Sports Illustrated, Fortune, Life, Money, Parenting, In Style, Entertainment Weekly, Cooking Light, Baby Talk, First Moments, Coastal Living, Health, Progressive Farmer, Southern Accents, Southern Living, Sports Illustrated, For Kids, Sunset, Teen People, Time for Kids, Weight Watchers, Mutual Funds, Your Company, Asiaweek, President, Wallpaper. Hippocrates

Recorded Music

Warner Music Group

The Atlantic Group

Elektra Entertainment Group

Rhino Entertainment

Sire Records Group

Warner Bros. Records

Warner Music International

WEA Inc.

WEA Corp.

WEA Manufacturing

Ivy Hill Corp.

Warner Special Products

Alternative Distribution Alliance

Giant Merchandising

Deals with record labels include:

Maverick records

Tommy Boy Sub Pop

Qwest

143 Records

Internet and New Media

About 130 Websites including: CNN.com, AllPolitics.com, CNNSI.com, Time Digital, People, Southern Living, Sports Illustrated

Turner New Media

Online Services including: Compuserve, Netscape, Netcenter

Pro Sports Teams and Promotions

Atlanta Braves major league baseball team

Atlanta Hawks NBA basketball team

World Championship Wrestling

Goodwill Games

Other

Six Flags entertainment/excursion parks

Warner Bros. Movie World theme park

Over 150 Warner Bros. stores, plus Turner Retail Group

25 % stake in Atari

14 % stake in Hasbro

Business Connections with Other Media Companies

Joint ventures, equity interests or major arrangements with Viacom, Sony, Bertelsmann, News Corp., Kirch, EMI, Tribune Co., and others.

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AOL Time Warner

The largest media conglomerate in the world, Time Warner resulted from the merger of the publisher Time Inc. and the media company Turner Broadcasting Systems, Inc. in 1996. Time Inc. founded in 1922 primarily concentrated on magazines and books and in the 1950s moved into the broadcasting and entertainment industry, but in the 1970s announced that it was selling its broadcasting holdings and concentrating on cable television. In 1989 Time Inc. merged with Warner Communications Inc., which besides being a major motion-picture and television studio, was also one of the biggest U.S. music recordings producers and cable-television operators.

In January 2000 Time Warner merged with AOL (America Online) in a US$ 243.3 billion deal. Although AOL so far generated far less profit and turnover than Time Warner its quotation on the stock exchange was clearly higher, making Time Warner the junior partner (45 percent) in the new company. Through its merger with AOL, which is a major player in the online-business and owns several Internet-services like Compuserve, Netscape and Netcenter, the new media conglomerate could significantly enlarge its online presence and also complement its traditional media activities.

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Convergence

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Commercial vs. Independent Content: Human and Financial Resources

- Concerning their human and financial resources commercial media and independent content provider are an extremely unequal pair. While the 1998 revenues of the world's leading media conglomerates (AOL Time Warner, Disney, Bertelsmann, Viacom and the News Corporation) amounted to US$ 91,144,000,000 provider of independent content usually act on a non-profit basis and to a considerable extent depend on donations and contributions.

Also the human resources they have at their disposal quite differ. Viacom for example employs 112,000 people. Alternative media conversely are mostly run by a small group of activists, most of them volunteers. Moreover the majority of the commercial media giants has a multitude of subsidiaries (Bertelsmann for instance has operations in 53 countries), while independent content provider in some cases do not even have proper office spaces. Asked about their offices number of square meters Frank Guerrero from RTMark comments "We have no square meters at all, because we are only on the web. I guess if you add up all of our servers and computers we would take up about one or two square meters."

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Media Giants Online

The following selection does not claim to present an exhaustive listing, but rather picks some of the company's most important assets. Due to the rapid developments in the world of media giants the list is also subject to changes.

Broadcasting

ABC TV Network with 223 affiliated TV stations covering the entire U.S.

ABC Radio Network, with 2,900 affiliated stations throughout the U.S.

Owner of 9 VHF TV stations

Owner of 11 AM and 10 FM stations

Cable TV Systems and Channels/Networks

Disney Channel

80 % of ESPN cable TV channel and ESPN International

50 % of Lifetime cable TV channel

Internet/Interactive

Disney Interactive - entertainment and educational computer software and video games, plus development of content for on-line services.

Partnership with 3 phone companies to provide video programming and interactive services.

ABC Online

TV Production, Movies, Video, Music

Disney Television Production studios and Walt Disney Pictures movie studio

Buena Vista Television production company

Buena Vista Home Video

Miramax and Touchstone movie production companies

Buena Vista Pictures Distribution and Buena Vista International, distributors for Disney and Touchstone movies

Walt Disney Records, and Hollywood Records

Publishing

6 daily newspapers

About 40 weekly magazines, including: Discover, Women's Wear Daily, Los Angeles and Institutional Investor.

Chilton Publications

Guilford Publishing Co.

Hitchcock Publishing Co.

Theme Parks, Resorts, and Travel

Disneyland

Disney World and Disney World Resort

Part owner of Disneyland-Paris and Tokyo Disneyland

12 resort hotels

Disney Vacation Club

Cruise Lines

International TV, Film, and Broadcasting

50 % owner of Tele-München Fernseh GmbH & Co.

50 % owner of RTL Disney Fernseh GmbH & Co.

23 % owner of RTL 2 Fernseh GmbH & Co.

37,5 % owner of TM3 Fernseh GmbH & Co.

20-33 % stake in Eurosport network, Spanish Tesauro SA TV company, and Scandinavian Broadcasting System SA

20 % owner of TVA

Other

Over 500 Disney Stores, and licensing of Disney products

The Mighty Ducks professional hockey team

25 % ownership of California Angels major league baseball team

Business Connections with Other Media Companies

Joint ventures, equity interests, or major arrangements with Bertelsmann, TCI, Hearst Corp., Kirch, and various other media and telephone companies.

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Problems of Media Concentration

Media concentration can occur in a variety of ways and for different reasons. Companies can integrate horizontally and vertically or through product diversification and internationalization. Often media concentration is considered to have a detrimental effect upon democratic systems, which vitally depend on a diverse media system, that reflects the whole variety of ideas, viewpoints and opinions that exist in a society and represents a wide range of political and cultural societal groups.

A concentrated media market might not only have a disadvantageous impact upon pluralism and allow media owners a heightened influence on public opinion, but can also enable the large market players to close the market to new entrants, independent producers, or drive out weaker competitors. In this case the result may be a market monopoly or oligopoly, which besides being considered counter-competitive in the media market also produces social costs.

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Extract of Disney’s Content Production and Distribution Holdings

Although the traditional media companies first steps into the digital sphere were fairly clumsy, they have quickly learned from their mistakes and continued to enlarge their Internet presence. Time Warner now for instance operates about 130 Web-Sites (http://www.timewarner.com/corp/about/pubarchive/websites.html). Anyhow the stronger online-engagement of the big media conglomerates by 1998 has led to the establishment of a new pattern: "More than three-quarters of the 31 most visited news and entertainment websites were affiliated with large media firms, and most of the rest were connected to outfits like AOL and Microsoft." (Broadcasting and Cable, 6/22/98).

During the last years many of the smaller players in the field of digital media have been driven out of competition by the huge media conglomerates. This mainly is a result of the advantages that the commercial media giants have over their less powerful counterparts:

    As engagement in online activities mostly does not lead to quick profits, investors must be able to take losses, which only powerful companies are able to.



    Traditional media outlets usually have huge stocks of digital programming, which they can easily plug into the Internet at little extra cost.



    To generate audience, the big media conglomerates constantly promote their Websites and other digital media products on their traditional media holdings.



    As possessors of the hottest "brands" commercial media companies often get premier locations from browser software makers, Internet service providers, search engines and portals.



    Having the financial resources at their disposition the big media firms are aggressive investors in start-up Internet media companies.



Commercial media companies have close and long ties to advertisers, which enables them to seize most of these revenues.

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Commercial vs. Independent Content

Commercial media aim towards economies of scale and scope, with the goal to maximize profits. As advertising money usually is their primary source of revenue their content very often is attuned to meet the needs of advertisers and marketers. Information necessary for a citizen's participation in the public sphere usually only plays a minor role in their programming, as it does not comply with the demands of an economic system whose principal aim is the generation of profit. They also virtually always are structured in accord with and to help reinforce society's defining hierarchical social relationships, and are generally controlled by and controlling of other major social institutions, particularly corporations.

Independent content provider on the other hand mostly act on a non-profit basis and try to avoid dependence on corporate powers and the state. One of their main concerns is the critical observation of public interest issues. The central aim of independent content provider's activities usually is to bring aspects and standpoints neglected by the (commercial) mainstream media to the public and subvert society's defining hierarchical social relationships. Promoting public debate and an active civil society they engage in the organization of alert actions and information campaigns or create subversive art.

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