Lotus Spreadsheets – Part 3 – Identifying the Components of a Transformative Tool
Posted on | November 29, 2014 | No Comments
As mentioned in Part 1 and Part 2 of this series, the electronic spreadsheet emerged as an extraordinary meaning-making technology that not only began to be used to produce constructive information but was complicit in a new organization of global capitalism and arguably, a new rationality shaping the future of our modern civilization.
Spreadsheet applications quickly became a foundational technology for the financial machinations of a global system based on monetary representation, calculation, and manipulation. They incorporated several types of media into a new technology able to represent, compute, and formulate new types of knowledge. It is not my intention to be apologetic for the current global economic system or even argue for a technologically determinist role for the spreadsheet, Nor is it to elaborate on calculative mistakes that spreadsheets sometimes make, but rather to investigate the disciplinary, interactive, and transformative capabilities that emerged with the diffusion of the spreadsheet innovation throughout modern society.
In this post, I begin a formal analysis of the digital spreadsheet by identifying some of its parts, a type of Cartesian reductionism, but with the intent of also showing how they all work together to create a powerful organizational and productivity tool. Spreadsheets combine several technologically enhanced cognition features to create, manipulate, and visualize what Jean Baudrillard called “hyperrealities.”[1] These are “the maps that precede the territory,” the diagrammatic rationalities that engender or create the territory. In other words, spreadsheets not only appraise aspects of reality but are constitutive technologies that can shape perceptions and empower control over the lived experiences of people and the resources that support them.
My interest is not just in the issues of extracting more efficiency from labor, or empowering a corporate raider, but rather to investigate spreadsheet technology as both a disciplinary and a transformative tool. Furthermore, I see the analysis of the spreadsheet as illuminating major characteristics of the modern world order of recently globalized networks of technocratic finance. Ultimately, an analysis of spreadsheet applications should reveal and help restructure complex social, corporate and institutional arrangements.
So, to move into the next stage of my analysis, I will examine how the PC-based spreadsheet combined five rudimentary media components together to create a new system for inputting, organizing, processing, and presenting information. This structure allows the user to create new aggregates of numerical data, new classifications, and connections between disparate resources, and new simulated scenarios of alternative possibilities. The components are:
- written symbols;
- lists;
- tables;
- cells and;
- formulas.
PC-based spreadsheet applications like Lotus 1-2-3 and later Microsoft Excel combined these components in ways that structure and process data to produce new forms of meaning and utility. Information is entered and organized into columns and rows of vertical and horizontal lists. Each row has a numbered address, while the columns are identified by letters. The combination of rows and columns enables a multifaceted table that intersects at numerous points called cells.
Numerical, alphabetical, and (later) Unicode-enabled representations, such as the ideographic Chinese characters, populate the cells and provide the fundamental intelligibility of constructed facts. The place-holding function of zero and modern arithmetic capabilities are especially important in the success of the spreadsheet application. Information arranged throughout the tables can be operated on systematically by formulas designed to produce specific types of output values. The formal analysis of the digital spreadsheet connects these various constituent elements with the meanings that can be created and acted on according to the knowledge conventions of their respective institutional contexts.
In summary, Part 1 of this “spreadsheet saga” introduced the “microcomputer” spreadsheet application starting with VisiCalc and Lotus 1-2-3 and how they diffused rapidly throughout the corporate world in the 1980s. Part 2 presented some of the historical background that led up to the 1980s and why the corporate environment was ripe for a tool like the PC-based spreadsheet, particularly its use in modeling complex mergers and acquisition strategies. Above, I identify the key components that were combined to create the spreadsheet as a dramatically powerful tool to itemize and organize financial and material resources. In my next few posts on this topic, I will examine the components in detail, starting with writing, numbers, and especially the power of zero.
Citation APA (7th Edition)
Pennings, A.J. (2014, Nov 29) Lotus Spreadsheets – Part 3 – Identifying the Components of a Transformative Tool. apennings.com https://apennings.com/technologies-of-meaning/lotus-spreadsheets-part-3-identifying-the-components-of-a-transformative-tool/
Notes
[1] Baudrillard received some notoriety when the character Neo in the movie Matrix (1999) reveals his stash of money and data storage disks in a hollow version of one of his books, Simulation and Simulacra, It also uses his term “Desert of the Real” as a way of saying power is in the map not the territory.
[2] A lot of good work is being done on the spreadsheet in terms of risks, Ray Panko for example, has done excellent work identifying mistakes that can occur.
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Anthony J. Pennings, PhD is a professor at the State University of New York, Korea (SUNY Korea) and previously a professor of global media at Hannam University in South Korea. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. His first faculty position was at Victoria University in Wellington, New Zealand.
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Tags: #apennings > #spreadsheetsaga > Baudrillard > digital spreadsheet > hyper-reality > Lotus 1-2-3 > meaning-making technology > Microsoft Excel > spreadsheet capitalism
IBM’s Watson AI Targets Healthcare
Posted on | November 11, 2014 | No Comments
Soon after I moved to Austin, Texas, in late 2012, I attended a talk by Manoj Saxena, who was then General Manager of Watson Solutions, part of IBM’s Software Group. Named after IBM’s first CEO, Thomas J. Watson, the Watson system gained widespread recognition in 2011 when it competed against and defeated human champions on the popular American TV quiz show “Jeopardy!” They now focus on bringing to market the artificial intelligence (AI) computer system that beat the contestants on the game show. IBM is betting that its Watson “cognitive system,” based on Big Blue’s expertise in software and storage combined with new developments in natural language processing will change modern organizations, professional services, and entire industries, including finance, medicine and transportation.
I was particularly struck by one of their main pilot projects, using Watson in the healthcare industry. One of the tasks I took on at New York University was to shepherd a proposal for a Master of Science degree in Healthcare IT through the NYS Department of Education approval process. Others designed the program, so I can’t take credit for its content, but as the head of the Department of Management and Information Technology, it fell on my shoulders to push it through.
Soon, the challenges and objectives of the program captured my imagination and raised several questions for me, particularly regarding the roles of artificial intelligence (AI), big data, neural network algorithms, and Natural Language Processing (NLP).
Neither AI nor NLP held much of my interest in the past, as we’ve seen it in SF since the sixties with the computer in the Star Trek television series and, of course, HAL in Stanley Kubrick’s classic 2001: A Space Odyssey (1968). The mouse and drop-down menus pioneered by Xerox and Apple proved to be more efficient than voice and, the more recent touch user interfaces developed by Apple for the iPad and iPhone are extraordinarily “handy” as well.
However, developments such as Apple’s Siri and the Android voice recognition system have made AI sufficiently intriguing. Granted, NLP is much more than just the interface. It is a whole system of machine intelligence with capabilities to process language questions and requests, conduct extensive searches, and analyze structured and increasingly unstructured data. The video above shows Watson’s language capabilities at play in the game show Jeopardy.
The role of information technologies in U.S. healthcare expanded dramatically after the Health Information Technology for Economic and Clinical Health Act (HITECH) was signed into law on February 17, 2009, as part of the American Recovery and Reinvestment Act of 2009 (ARRA). While the discussions about Obamacare linger, the regulations and structural reforms outlined in HITECH have transformed the healthcare industry.
Electronic Health Records (EHR), their “meaningful use”, and the regulations associated with them, such as HIPAA and its provisions for protected health information (PHI,) are becoming core components of the healthcare landscape. But for doctors who universally only have a few scant minutes to review these records before seeing each patient, they further add to the mounds of data they need to ingest and understand to keep on top of their profession and provide the best care. IBM sees Watson as a tool to help medical professionals make decisions about diagnoses and treatments by conducting data-intensive analysis and providing treatment options.
IBM has been working with medical research facilities at the Memorial Sloan-Kettering Cancer Center, Cleveland Clinic, and medical insurer WellPoint to enhance their healthcare capabilities. More than two million pages of text from medical journals and 1.5 million patient records were given to Watson by Memorial Sloan-Kettering to help it answer natural language questions about cancer treatments. IBM has also been working with healthcare insurer WellPoint to use Watson to help doctors make diagnoses based on less testing and more big data analysis to save money and improve diagnostic accuracy.
Wellpoint is the largest insurer in the U.S. and plans to use its Watson deployment for medical personnel who review complex treatment requests from doctors. Watson is programmed to sift through giant pools of medical literature to “form probabilistic logic chains” to support their recommendations. Wellpoint plans to roll out Watson for a few oncology practices, allowing doctors to work with it through their own computer systems or tablets to improve the quality of care and lower costs.
Probably the biggest question is not whether a “cognitive system” like Watson will change entire industries such as finance and healthcare but will Big Blue make any money off this venture into artificial intelligence. Saxena has moved on to Silicon Valley’s The Entrepreneurs Fund, where he still works on funding AI enterprises related to IBM Watson, but from a venture capitalist perspective. My guess is that artificial intelligence is a potentially disruptive technology that is quietly diffusing through modern life under pseudonyms like “cognitive systems,” “neural networks,” and “natural processing languages.” AI will likely have major repercussions over the next few years, but it will be interesting to see if IBM can continue leading the way.
In summary, IBM’s Watson represents a significant leap forward in AI, with its ability to process and analyze vast amounts of data in a contextually relevant manner. Its applications across various industries focus on the potential of cognitive computing to revolutionize how we make decisions, interact with technology, and solve complex problems.
Citation APA (7th Edition)
Pennings, A.J. (2014, Nov 11). IBM’s Watson AI Targets Healthcare. apennings.com https://apennings.com/data-analytics-and-meaning/ibms-watson-ai-targets-healthcare/
© ALL RIGHTS RESERVED
Anthony J. Pennings, PhD is a professor at the State University of New York, Korea. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. He first taught at Victoria University in Wellington, New Zealand and was a Fellow at the East-West Center in Hawaii for many years.
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Tags: AI > ARRA > cancer treatments > cognitive systems > Electronic Health Records (EHR) > Healthcare IT > IBM Watson > Manoj Saxena > Memorial Sloan-Kettering Cancer Center > natural language processing > NLP > Siri > The Entrepreneurs Fund > The Health Information Technology for Economic and Clinical Health Act > Wellpoint
Lotus Spreadsheets – The Killer App of the Reagan Revolution – Part 2 – Spreadsheet Capitalism Emerges
Posted on | November 9, 2014 | No Comments
In order to understand the widespread adoption of the spreadsheet during the “Reagan Revolution” and its political-economic implications, it is important to understand the context in which it emerged. In Part 1, I identified several characteristics of the Reagan Revolution that allowed the electronic spreadsheet to flourish. This included wide-scale deregulation and other actions that radically transformed the economy and restored finance-centered capitalism to its pre-New Deal dominance.[1] In this post, I examine the transformation of the 1980s corporate landscape facilitated by PC-based spreadsheet-modeled merger and acquisition (M&A) activities.
The pertinent events go back to the stock market of the 1960s and a time when corporations were quickly merging and absorbing other companies, only to find their stock depressed by the economic conditions of the 1970s. By the time Ronald Reagan became president, corporations had found themselves top-heavy, immobile, and ripe for takeover by new corporate raiders armed with computer spreadsheets, junk bonds, and several new strategies, including the leveraged buyout (LBO). While the Vietnam War was heating up and NASA was testing technology for the trip to the moon, many companies such as Beatrice, ITT, as well as Gulf and Western, were busy buying up other corporations. The strategy was to elevate their revenues and create financial stability through diversification.
The formation of these “conglomerates” was generally met with eager approval on Wall Street and led to a rise in stock prices as a series of mergers combined different types of companies into mega-corporations. The top “Nifty Fifty” of the 1960s included Proctor & Gamble, Bristol-Myers, Xerox, Pepsico, and GE. They were considered ceaseless growth stocks and guaranteed long-term investments. Companies like ITT, which got its start buying up Caribbean and South American telephone companies, followed the pack and also became conglomerates. Despite Nixon’s gold deregulation and signs of impending economic trouble, the DJIA finally surpassed the 1,000 mark in November 1972.
Economic conditions caused a major economic decline in the mid-1970s driving the stock prices of the conglomerates down as well. By 1974, the DJIA sank from its high of over 1,000 to nearly 600 and stock prices continued to stagnate throughout the decade. The fall was precipitated by the currency and oil crises as well as the newly created international eurocurrency markets that siphoned capital off to countries in need of dollar-denominated cash to pay for their rising energy costs. This combination of the global currency crisis, the rapid elevation of oil prices, and the movement of capital into the euromarkets for recirculation to developing nations around the world worked to drive down stock prices.
By the late 1970s, As euromoney slipped back into the US, it created soaring inflation. The result was to drive the country into a recession with concurrent inflation a unique combination of economic stagnation with increasing price inflation was occurring that became known as “stagflation”. In response, the Federal Reserve followed a monetary policy that increased interest rates to reduce inflation. This combination of the global currency crisis, the rapid elevation of oil prices, and the movement of capital into the euromarkets for recirculation to developing nations around the world worked to drive down stock prices.
Capital began to return to the US in the early 1980s, and it became available for mergers and acquisitions. High interest rates and a soaring government debt sent new money, especially from Japan, into the US. With investment confidence in the Third and Second Worlds badly shaken, the capital markets turned back to the American corporate sector. This was encouraged by the tax cuts of the Reagan administration as well as a lax attitude towards corporate mergers by its Justice Department. Although expensive, more capital became available for the stock market and the tide began to turn. During the period 1979 to 1984, corporations spent nearly half a trillion dollars to merge or acquire other corporations sparking the stock market and sending investor confidence soaring. The Dow-Jones Industrial average went from 800 to over 1200. Aided by a massive increase in military spending and deregulation in the airline, banking and telecommunications sectors, electronic money switched from syndicated lending for third world countries to bonds and securities to support corporate takeovers and high tech startups.
A new breed of financial analysts emerged, armed with electronic spreadsheets on their Apple or IBM PCs. They evaluated company after company looking for new buying opportunities. Their main strategy was to analyze companies to buy and divest of their pension funds or sell off marketable subsidiaries in a process called a leveraged buyout (LBO). With more money available from banks, corporate raiders used a number of strategies to attack the fat conglomerates whose stock prices had been hit hard since 1974. The basic strategy in raiding a company involved borrowing the money, often at quite high interest rates, buying a majority share in the corporation, and then selling off some of the company’s assets to pay back the loan. This process was portrayed in Oliver Stone’s (1987) Wall Street when the infamous Gordon Gekko attempted to break up the fictional Bluestone Airlines and sell off its airplanes and build condos where the hangars were located. Gekko at one point claims the real profits would come from raiding the company’s “overfunded” pension fund.
Another technique used was called “greenmail.” This strategy involved threatening to take over the corporation enough to scare the management into buying back up huge amounts of stock and raising the price. The raider would initiate an LBO and purchase a significant amount of stock. After the stock price rose significantly, the raider would sell their shares for a hefty profit.
These techniques often involved the use of junk bonds championed by Michael Milken of Drexel Burnham Lambert. These were high-yield bonds issued by corporations with low credit ratings. Milken persuaded a number of raiders to use junk bonds in their takeover pursuits. While junk bonds were used to build important information-age corporations such as MCI and McCaw Wireless, they were also bought up by newly deregulated Savings and Loans banks that ran into trouble by the late 1980s.
Ultimately Milken was sent to jail in a controversial move, but in the meantime, Wall Street’s DJIA boomed from 800 in 1979 to over 1500 in the December of 1985. This was only the start of the run however, as it reached 2,000 in the first month of 1987 and nearly 2500 the autumn of the infamous “Crash of 1987”.
With the spreadsheet in action, financial activities increased dramatically. While the contribution of financial firms to the US Gross National Product (GDP) was just over US$32 billion in 1950, it grew to $400 billion in 1980 and rocketed to $626 billion in 1985. During this time goods production also grew significantly, largely due to the commercialization of Cold War technologies, but the economic contribution by the financial sector grew twice as fast, particularly during the first five years of the Reagan era when it grew by sixty-four percent. With the spreadsheet, more complex financial calculations could be done by significantly fewer people. But the most important factor was that the electronic spreadsheet made the information more accessible and available faster to the people who could use it. [2]
In the next segment of this analysis of the spreadsheet, I will introduce the more formal analysis of this tool and how it “remediates,” or incorporates other meditated tools.
Citation APA (7th Edition)
Pennings, A.J. (2014, Nov 09). Lotus Spreadsheets – The Killer App of the Reagan Revolution – Part 2 – Spreadsheet Capitalism Emergesapennings.com https://apennings.com/dystopian-economies/lotus-spreadsheets-the-killer-app-of-the-reagan-revolution-part-2-spreadsheet-capitalism-emerges/
Notes
[1] I’m repeating this quote from “Lotus Spreadsheets – The Killer App of the Reagan Revolution – Part 1”. It is from Peter Gowan’s (1999) Global Gamble: Washington’s Faustian Bid for World Dominance for emphasis.
[2] See Magdoff, H. and Sweezy, P.M. (1987) Stagnation and the Financial Explosion. New York: Monthly Review Press. For information on the finance vs. goods production see p.23.
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Tags: #apennings > #spreadsheetsaga > eurodollars > Michael Milken > Reagan Revolution > stagflation
The Transformation of Telecom to Global IP, GATT to GATS
Posted on | October 19, 2014 | No Comments
In a previous post I wrote about how the U.S. Clinton-Gore administration used the notion of the Global Information Infrastructure (GII) to push for the adoption of Internet protocols through multilateral trade negotiations and telecom privatization. Below I address how the inclusion of services in trade talks helped facilitate the international spread of the Internet and dramatically reduce the costs of voice and video communications.
International trade negotiations had historically concentrated on physical goods while services were never even seriously considered until the November 1982 GATT ministerial meeting. Subsequent calls by several OECD countries for a new multilateral trade round with services as one of the top agenda items emerged in the mid-1980s. The inclusion of services in the 1987 Uruguay Round of trade negotiations led to the General Agreement on Trade in Services (GATS) as part of the mandate of the World Trade Organization (WTO).
The GATS extended the WTO into unprecedented areas never previously recognized as coming under the scrutiny of trade policy. In the communications services area these included audiovisual services such as radio and television, educational services, entertainment services such as theatre and circus productions, news agencies, and of course telecommunications services such as email, packet-switching transmission services, and voice telephone services. Former WTO Director-General Renato Ruggiero remarked on the inclusion of services into the realm of international trade negotiations, “I suspect that neither governments nor industries have yet appreciated the full scope of these guarantees or the full value of existing commitments.”[1]
Sixty-nine nations party to the WTO, including the U.S., reached an agreement to open up their telecommunications markets as part of the GATS on February 15, 1997. The Agreement on Basic Telecommunications Services codified an accord to “negotiate on all telecommunications services,” particularly new rules for telecommunications deregulation. This included data communications, facsimile services, private leased lines, PCS, cellular telephone, as well as both fixed and mobile satellite services. These countries agreed to privatize and open their own telecommunications infrastructures to foreign penetration and competition by other telcos through either resale or their own facilities. Active in these negotiations was the International Telecommunications Union as well as the United States Trade Representative (USTR) for the Clinton-Gore administration.
The WTO GATS agreement allowed U.S. companies to compete for the estimated $600 billion global market in local, long-distance and international services. Acting US trade commissioner Charlene Barshefsky claimed that the agreement would lead to approximately 1 million new jobs in the US over the following 10 years. “From submarine cables to satellites, from wideband networks to cellular phones, from business intranets to fixed wireless for rural and under-served regions, the market access opportunities cover the entire spectrum of innovative communications technologies pioneered by American industry and workers,” Barshefsky said at a press conference. FCC Commissioner Reed Hundt, who worked closely with Al Gore on developing the overall communications policy, predicted the treaty would reduce the price of international calls by 80% over the following ten years.[2]
As the WTO agreement on basic telecommunication services went into effect in February 1998, the number of countries committing to the agreement on basic telecommunications services had reached 72 with 59 agreeing to more liberalization; including competition, foreign investment, interconnection guarantees, and an independent FCC-type regulator. Most realized the benefits of the agreement as lower international prices for phone calls. By 2001, the number of participating countries reached 75.
The agreements came at a crucial technological time. The World Wide Web (WWW) was a working technology, but it would not have lived up to its namesake if the WTO had not negotiated reduced tariffs for crucial networking and computer equipment and also the liberalization of telecommunications services around the world. As we Skype with friends and relatives in other countries or if we click Like or comment on a Facebook update we can attribute that to aggressive trade negotiations in the 1990s.[3]
Notes
[1] Director-General Renato Ruggiero’s quote from Christoph Strawe’s “GATS – Service to Whom?”
[2] Washington Post, “Telecom Pact Opens Up World Phone Markets” February 16, 1997. A good resource for the time period was Reed Hundt’s (2000) You Say You Want a Revolution? A Story of Information Age Politics.
[3] As a graduate student I participated in the conferences entitled TIDE 2000 (Telecommunications, Information and Interdependent Economies) organized by the Japanese Foreign Affairs Ministry and the East-West Center in Honolulu, Hawaii. It was a major forum for the early debates on trade negotiations on services and telecommunications. It was reported in Jussawalla, M. et al. (eds.) Information Technology and Global Interdependence. New York: Greenwood Press. 1989.
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Anthony J. Pennings, PhD is a professor of global media at Hannam University in South Korea. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. His first faculty position was at Victoria University in Wellington, New Zealand.
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Tags: Al Gore > FCC Commissioner Reed Hundt > GATS > General Agreement on Trade in Services (GATS) > Information and Interdependent Economies) > TIDE 2000 (Telecommunications > USTR > WTO agreement on basic telecommunication services
The Transformation of Telecom to Global IP – GII to WTO
Posted on | October 19, 2014 | No Comments
In the mid-1990s, the international telecommunications world experienced a fundamental transformation. With the introduction of the “Global Information Infrastructure” (GII) in 1994, Vice-President Gore fired a warning shot that was followed up with a series of reforms designed with the globalization of communications services and e-commerce in mind. By 1995, a powerful redefinition was settling over the industry. “In successfully shifting the locus of international regulation away from the International Telecommunications Union (ITU), a European and developing-country power base, to the World Trade Organization (WTO), where its power reflects its huge, high-income market, the United States has also fundamentally shifted the conceptualization of telecommunications away from the postwar public utility, security related, monopoly model, to that of a customer driven, trade-related, service industry.”[1] This post examines what and how international institutions had a bearing on the development and diffusion of the global Internet Protocols (IP) that have transformed communications and social media around the world.
The WTO met quickly in Singapore in 1996 and quickly resolved to reduce tariffs on the flow of information technologies. The next year it met in Geneva and established rules for the continued privatization of national telecommunications operations. The telco environment moved from highly regulated bureaucratic telecoms united under the umbrella of the ITU to less regulated privatized telcos operating, however, within an international trade regime. They have shed their government PTT (Post, Telegraph, and Telephone) bureaucracies only to find themselves embroiled in a larger net cast by the international treaties of dominant countries. However, these multilateral arrangements could break down another set of bureaucratic organizations, the broadcasters, and with it usher in a new age of television, characterized by a multiplicity of interactive services and new business models based more on e-commerce rather than mass advertising.
Vice-President Gore had introduced the concept of the GII at the annual ITU meeting in Buenos Aires during March of 1994. The target was the national PTT monopolies, the ITU’s main clientele. “He described a new communications revolution driven by the export of three American ideas: competition instead of monopoly, the rule of law, and the connection of networks to existing networks at a fair price.”[2] Gore’s approach was to use the government to ensure competition and economic development. “He outlined the basic principles of a policy revolution: the Administration would repudiate the embrace of monopoly by government and instead use the power of law to open all markets to innovation, competition, new investment, new entrepreneurs.”[3]
The GII was not a practical, technical solution. Still, the Internet had not emerged as the obvious global telecommunications medium at the time. Wireless, cable television, and direct-to-home satellite systems were all in competition to emerge as the dominant “information superhighway”. The GII was a conceptual framework to further challenge the PTTs and pave the way for data communications and all the related services that had been promised by ISDN (Integrated Services Digital Network) and the proliferation of Internet Protocols (IP).
Gore followed up the next month in Marrakesh, Morocco, at the closing meeting of the Uruguay Round of the GATT (General Agreement on Tariffs and Trade) negotiations which called for the creation of the World Trade Organization. It would be the WTO that would help facilitate the modernization of telecom networks around the world and break down the barriers to global IP. During that summer President Clinton, following Democratic tradition reaching back to the 1934 Reciprocal Trade Agreements Act that authorized the President to negotiate trade agreements with other countries, urged the development of an international information infrastructure at the G-7 meeting in Naples, Italy.
The G-7 had emerged since the breakdown of Bretton Woods in the 1970s as a powerful vehicle for coordinating international policy and pressuring multilateral organizations. The next year, after the WTO was formed, the G-7 nations (sometimes G-8) met in Brussels, Belgium for a Ministerial Conference on the Information Society. Britain, Canada, France, Germany, Italy, Japan, and the United States agreed in principle to develop the Global Information Infrastructure (GII) and funded a number of projects to test international broadband networking as well as special projects on emergency management and telemedicine. Despite rising opposition, Congressional Republicans supported the Clinton-Gore initiative and helped to ratify the international trade agreement.
The World Trade Organization was formed on January 1st 1995. The WTO was conceived as an organization designed to negotiate reductions on international tariffs and other trade barriers. Formerly the General Agreement on Tariffs and Trade (GATT), the WTO was created for the liberalization of international trade and economic cooperation across national boundaries. Due to the complexity of international economic interdependence, the contracting parties of GATT launched the eighth major trade negotiation round at a ministerial meeting in Punta del Este, Uruguay, in September 1986. More than one hundred nations participated in negotiations regarding international economics. Over the next three years, the World Trade Organization (WTO) tackled crucial issues that paved the way for the Internet and global e-commerce. Clinton’s re-election and the signing of the Telecommunications Act of 1996 in February 1997 gave the administration a powerful negotiating position and they stressed and pushed Gore’s telecommunications plan.
In late 1996, the WTO met in Singapore and agreed to reduce tariffs on information technology trade, including personal computers. The Information Technology Agreement (ITA) was concluded at the December 1996 Ministerial Meeting in Singapore and took effect July 1, 1997. The ITA was a benchmark agreement that significantly reduced tariffs on a wide range of information technology products. It reduced customs duties on computers and telecommunications and planned to eliminate them by 2000. This affected a whole range of products from computers, keyboards, printers, modems, switching equipment, semiconductors, software and scientific equipment. It specifically allowed American companies to sell their IT wares more competitively.
Cisco was particularly aggressive in advocating further liberalization of trade in information technology products through its membership in the American Electronics Association and other industry coalitions. Cisco’s CEO John Chambers was one of several high-tech leaders that served on President Clinton’s Advisory Committee on Trade Policy Negotiations (ACTPN) and helped in developing a plan for addressing Internet commerce issues at the WTO.[4] The ITA significantly reduced tariffs on over 90% of information technology products traded globally. The agreement meant savings for U.S. exporters of some $5 billion each year.
The WTO met early the following year in Geneva, Switzerland and addressed a new round of trade negotiations on information technologies and telecommunications services.[5] The February meeting sought a new Information Technology Agreement (ITA II) that was intended to further liberalize markets and benefit information technology manufacturers and consumers. In the end, trade negotiators failed to reach an agreement on the ITA II because of continuing disputes regarding questions about what products would be covered. However, an agreement was reached that signaled good news for cheap telecommunications and the internationalization of Internet technologies and the World Wide Web.
Citation APA (7th Edition)
Pennings, A.J. (2014, Oct 19).The Transformation of Telecom to Global IP – GII to WTO. apennings.com https://apennings.com/global-e-commerce/the-transformation-of-telecom-to-global-ip-gii-to-wto/
Notes
[1] Quote on the WTO from Jill Hills, “U.S. Rules. OK?”, in Robert W. McChesney and John Bellamy Foster (1998) Capitalism and the Information Age: The Political Economy of Global Communication Revolution. p. 101.
[2] Hundt, Reed. (2000) You Say You Want a Revolution? A Story of Information Age Politics. p. 45.
[3] ibid, p. 25.
[4] Cisco would become the world’s largest company by market capitalization in 2000.
[5] Early debate on services inclusion from Jonathan D. Aronson, “Trade Negotiations, Telecom Services, and Interdependence,” in Jussawalla, M. et al. (eds.) Information Technology and Global Interdependence. New York: Greenwood Press. 1989. This book consisted largely of contributions to three conferences entitled TIDE 2000 (Telecommunications, Information and Interdependent Economies) organized by the Japanese Foreign Affairs Ministry and the East-West Center in Honolulu, Hawaii.
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Anthony J. Pennings, PhD is a professor at the State University of New York, South Korea. SUNY Korea offers BS, MS, and PhD degrees from Stony Brook University. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. His first faculty position was at Victoria University in Wellington, New Zealand.
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Tags: G-7 > GATT (General Agreement on Tariffs and Trade) > General Agreement on Tariffs and Trade (GATT) > Information Technology Agreement > ISDN (Integrated Services Digital Network) > PTT > Reciprocal Trade Agreements Act > Telecommunications Act of 1996 > Uruguay Round of the GATT > World Trade Organization > WTO
Robin Williams, Dead Poets, and Symbolic Investments in the Virtual Classroom
Posted on | October 16, 2014 | No Comments
Like most of us, I was saddened by the loss of Emmy, Grammy, and Golden Globe winning actor Robin Williams. Here is an excerpt from one of my PhD essays, “Dead Poets and the Lawnmower Man,” that drew on the movie, The Dead Poets Society and his excellent performance to investigate virtual reality as an educational tool.[4]
In the movie The Dead Poets Society (1989), the stark contrasts between the closed moral community of the preparatory Welton Academy and the emotional and intellectual capers of John Keating, its new teacher played by Robin Williams, presents an opportunity to question the processes of signification (meaning-making) and energetic investments in modern educational environments.
The repressed libidinous and spiritual “economies” of the all-male boarding school invite a reading of The Dead Poets Society that focuses on its sociosignifying practices – how meaning is fixed and organized through processes like language, dress, and action. It is of particular interest in that it refigures the role of the teacher as what Jean-Joseph Goux referred to as a “symbolic third”.
Goux, in his quest for a general economics (beyond money), gives us a strategy to view the teacher as symbolically elevated figure operating as a type of currency. Using his Symbolic Economies, we can see the teacher as a condensation of values that respectively raises his position to that of privileged mediator and arbitrator of intellectual values, meaning and performance – as well as the construction of facts and “truth.”
In the Dead Poets Society, the teacher, played by Robin Williams, is a “media event” in the sense that, by elaborating a series of emotionally and intellectually rich forms of signification, he disrupts the school’s anti-erotic sovereignties and traditional forms of educational homage. John Keating is a carefully constructed teacher-character who maintains a credible front to his peers while engaging his students in a series of revaluing exercises. His invoking of the philosophy of “carpe diem” for example, disrupts the ascetic delays of pleasure and self-gratification that serve to channel emotional and intellectual investments into the student subjectivities prescribed by the school’s bourgeois “govern-mentality.”
His unusual behavior and pedagogy invoke a curiosity in his students that addresses their subjugated desires and self-construction. His former pact with an “ancient” secret society of self-proclaimed poets awakens their dormant dreams of social adventure and expressive identities. This secret knowledge, time-tested by the ancients of their alma mater, promises sexual conquest and alternative forms of imagination. “Spirits soared, women swooned, and gods were created.” By re-presenting literary classics of Shakespeare and Milton but with the voice of macho film star and arch-American John Wayne, he distorts the distinctions between “high” and “low” cultures and encourages the dissolution of aesthetic boundaries that work to solidify not only class distinctions but the socio-energetic rigidifications of emotional affect.
The members of the reincarnated club, “Dead Poets Society”, organized their meetings in a cave located in a nearby forest. There they read unauthorized poetry, smoked cigarettes, mixed with women – all the activities they are forbidden at the school. As Gebauer points out, the symbology of the cave has never been about the outside world, but about the inside one. “Our imagination remains captive in the cave. We do, in fact, repeatably seek out the cave in a different form.” Our ontology has its commencement in the topography of the cave, and he points out: “In one way or another, all our notions of paradise are linked with situations of the cave.”[3]
Keating’s enthusiastic ideations soon come into conflict with other domains of symbolic control however, including the potent Oedipal dynamics which have proved to rein too tight a grip on one of his students. In his quest to act in a community play, the student goes against his father’s demands to cut down on his extracurricular activities, forges a permission slip, and performs the main role of Buck in A Midsummer Night’s Dream.
The father inadvertently discovers the disobedience and shows up at the play to observe. He fiercely pulls his son away from the backstage party despite the acclaim and obvious success. After a confrontation at home, where among other things, the mother’s disappointment is invoked to punish the son, he is forbidden to act again or at least until he goes on and finishes medical school. Faced with this paternal injunction, he takes his own life.
The death of a student presents a moral catastrophe that overpowers Keating’s privileged text of spontaneity and impunity. These are now recoded as degenerate improprieties, and their “unproductive” forms of expenditure are tallied against the teacher as infractions within the Calvinistic ledgers of the schoolmasters. The conflicting father is able to easily organize the dismissal of the teacher.
The students respond by pledging their allegiance at the resolution of the film, by standing on top of their class desks and citing the title of Walt Whitman’s famous poem, “O Captain! My Captain!” acknowledging and respecting Keating’s role as their navigator through the uncharted course of adolescent squanderings and discoveries.
The Dead Poets Society reflects the profound symbolic and historic investments structuring traditional education and how the currency of the teacher can facilitate new types of energetic and intellective exchanges. If educational space is to become cyberspace in a socially and politically responsive way, than it behooves us to mark its inception with at least one strategy that is sensitive to the “economies” which mediate and control its energetic and symbolic investments.
Notes
[1] He played a teacher at a private boarding school. It was part of a section called “Dead Poets and the Lawnmower Man”, in Symbolic Economies and the Politics of Global Cyberspaces. (1993) about the possibilities of teaching eventually in virtual reality classrooms.
[2] Economie et symbolique, Ed. du Seuil, 1973.(Translation of these two books in one volume: Symbolic Economies, Cornell University Press, 1990.)
[3] Gebauer, G. (1989) “The Place of Beginning and End: Caves and Their Systems of Symbols,” In Kamper & Wulf (eds.) Looking Back on the End of the World. (NY: Semiotext(e) Foreign Agents Series). p. 28.
[4] Adding a late note about the use of language as prescribed by one of my favorite mentors, Michael J. Shapiro who taught us that one objective of writing is to invoke “delirium” in the reader, as in taking them out of their normal channel (Latin: Lirium = canal) by exploring the edges of intelligibility on a subject.
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Anthony J. Pennings, PhD is a professor of global media at Hannam University in South Korea. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. His first faculty position was at Victoria University in Wellington, New Zealand.
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Tags: Dead Poets and the Lawnmower Man > Dead Poets Society > Robin Williams > Virtual classroom > virtual reality
Lotus Spreadsheets – The Killer App of the Reagan Revolution – Part 1
Posted on | September 23, 2014 | No Comments
The major feature of the “Reagan Revolution,” according to Peter Gowan’s Global Gamble, was to “put money-capital in the policy saddle for the first time in decades.”[1] From the time of his presidential inauguration in early 1981 and throughout his eight-year tenure, Reagan’s administration sought to propel the financial sector through widespread policy changes designed to “roll back” the containment of finance instituted during FDR’s reign and the early Cold War. Part of what made this political and economic movement consequential was the development of the electronic spreadsheet and its use on the newly invented personal computers such as the Apple II and IBM PC.
In this post I want to set the context for the success of the spreadsheet, particularly Lotus 1-2-3. In a future post, I will explore the formal aspects of the spreadsheet as a meaning-making application and why they are so effective in social and economic realms. I’m not taking a technological determinist position here, but rather arguing that spreadsheets and related financial technology facilitated the impact of what is sometimes called the “Reagan Revolution.” The major policy characteristics of this economic transformation included:
- the deregulation of banking and financial industries;
- relaxing the laws on anti-trust and corporate acquisitions;
- major tax cuts to privatize surplus wealth;
- securitization of student debt and other financial instruments;
- removing the caps on interest rates that banks could charge on credit cards and other loans;
- increasing US government debt to feed the bond industry and provide an additional hedge for financial risk-taking;
- selling off government agencies and assets;
- strengthening the dollar to help export production capital to low-cost countries, as well as;
- pressuring countries around the world to enhance the flow of US-produced news; and the
- liberalization of global capital controls.[2]
Also important was the increased military spending and commercialization of Cold War technology that facilitated globalization of capital with fiber optics, microprocessors and packet-switched data communications. These technologies were the primary drivers of financial innovation and economic activity in the 1980s and their productive legacy continues to shape the global economy.
The ingeniously innovative “microcomputer” spreadsheet, VisiCalc, was created when Dan Bricklin teamed with his friend Bob Franston in 1977 on an homework assignment for his Harvard MBA degree. Not surprising, it was an assignment to do the calculations for one corporation to take over another corporation that sparked Bricklin’s computing solution. Faced with doing the monotonous calculations on standard green ledger sheets, he fantasized about creating a calculating tool that combined the usability of fighter plane “heads-up display” simulation with re-editing capability of a word processor. The two of them went to work with an Apple II and the result was a new “visible calculator” technology that rocked the financial world.[3]
The use of the spreadsheet exploded after IBM introduced its own “Personal Computer” in August of 1981. Soon after, Lotus 1-2-3 became available for the “PC” and all the “IBM-compatible” clones such as Compaq and Dell. Lotus 1-2-3 was named for its spreadsheet, graphing, and database capabilities that combined to produce an extraordinary new facility to both conceptually and textually organize financial information. Although the earliest PCs were weaker than their bigger contemporaries – mainframes, and even the relatively large minicomputer, they had several advantages that increased their usefulness.
The main advantage of the PC-based spreadsheet was its immediacy – it put computing power in the hands of a single user and bypassed the traditional authority structures of the data processing centers organized around mainframes and minicomputers. The microcomputer was characterized in part by its accessibility: it was small, relatively cheap, and available via a number of retail outlets. It used a keyboard for human input, a cathode ray monitor to view data, and a newly invented floppy disk for storage. Together they allowed a user to input their own numbers and play with different combinations. The main benefit being the new flexibility in terms of the speed and amount of information immediately available. Unlike using a spreadsheet on a mainframe, which required trips to the EDP department for each data input change, the PC-based spreadsheet allowed new data to be entered easily via the keyboard and provided immediate results on the screen.
One implication was that frustrated accountants and financial analysts would go out and buy their own computers and software packages, often over the objections or indifference of the EDP department. People could do the calculations themselves, and ignore the bureaucracy.[4] Lotus 1-2-3, with its combination of graphics, spreadsheets, and data management caught the eye of many business entrepreneurs and corporate executives who saw the value of a computer program that simplified the monumental amount of numerical calculations and manipulation needed by the modern corporation. By October 1985, CFO magazine was reporting that “droves of middle managers and most financial executives are crunching numbers with spreadsheet programs such as Lotus 1-2-3.”[5]
Microcomputer based spreadsheets became ubiquitous in the business world and became a major productivity tool. In an era of incredible economic and financial flux, the electronic spreadsheet became the “killer app” that guaranteed the success of the PC industry and also provided an incredible new utility for individuals in the financial sphere. They were empowered to create dramatic new numerical calculations and construct new financial “what-if” scenarios in unprecedented short timeframes. As the Reagan Revolution took hold, the spreadsheet was there to to itemize and measure value, mobilize dormant resources, and place them into the transactional circuits of the global economy.
For example, spreadsheets were used around the world in a process called “privatization” where national assets were minutely valued to produce collateral for international loans or in the case of state-owned enterprises (SOES), turned into shares that could then be listed on national or international stockmarkets and sold. Margaret Thatcher started this process with the sale of British Telecom and soon after New Zealand became the international model when it “corporatized” and sold off its telecommunications agency to retire one-third of the accumulated national debt.
Within a liberalized regulatory infrastructure and an interlinked chain of financial institutions, financial traders eager to become “masters of the universe” quickly adopted the new technology. “Spreadsheet knowledge” began to have an extraordinary ability to capture and fix value in monetary terms. Spreadsheets are not so much a reflective technology as they are a constitutive and productive technology. They do not reveal the world as much as they create new financial meaning by creating and solidifying relationships between previously disparate resources. They were increasingly used by accountants and other financial magicians to construct value in such a way that it can be entered into the flows and accumulation processes of corporations other organizations enmeshed in the monetary flows of the global economy.
The PC-based spreadsheet created a new visualization process that combined financial calculation with interactive manipulation in such a way as to help create a new financial-based economic dynamism. It is this combination of financial deregulation and technological innovation that created the trajectory of digital money-capital and enshrined the legacy of the Reagan Revolution. That inheritance lives on in the disparities of debt and wealth so prevalent in today’s dystopic global economy.
In Part II, I will discuss some of the historical precedents that led up to the 1980s as a period of intensifying financialization that welcomed the use of the PC-based spreadsheets. The corporate environment was particularly vulnerable to a variety of financial raids enhanced by spreadsheet technologies like Lotus 1-2-3.
In later posts, I will examine the more formal aspects of how the spreadsheet works by using a combination of cultural and media analysis to explore its internal machinations and external implications. An important question in this inquiry examines the importance of “spreadsheet capitalism,” the role of these calculative devices in organizing and evaluating the financial information is central to modern organizations and the global political economy.
Citation APA (7th Edition)
Pennings, A.J. (2014, Sep 23). Lotus Spreadsheets – The Killer App of the Reagan Revolution – Part 1 apennings.com https://apennings.com/how-it-came-to-rule-the-world/spreadsheets-the-killer-app-of-the-reagan-revolution-part-1/
Notes
[1] Peter Gowan’s (1999) Global Gamble: Washington’s Faustian Bid for World Dominance.
[2] US debt tripled under Reagan to over $2 trillion. Notable liberalization of global money flows occurred when Reagan addressed eurodollars by allowing onshore facilities. This list is compiled from my work on How IT Came to Rule the World which examined the Reagan legacy in such entries as From Sputnik Moment to Reagan Revolution and How Star Wars and Japan’s Artificial Intelligence Threat Led to the Internet.
[3] Bricklin quote from (2002) Computing Encyclopedia. Volume 5: People. Smart Computing Reference Series. p. 30.
[4] Stephen Levy’s “Spreadhsheet Way of Knowledge” was an early influence. So much so that I asked one of my NYU students to create the linked website. It was originally published as Chapter 10 in Tom Forester’s (ed.) Computers in the Human Context: Information Technology, Productivity and People. Basil Blackwell. 108 Cowley Road, Oxford OX4 1JF, UK.
[5] Quote from CFO on the impact of Lotus 1-2-3 in the corporate world from David M. Katz, “The Taking of Lotus 1-2-3? Blame Microsoft.” CFO.com. December 31, 2002.
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Tags: Global Gamble > Lotus 1-2-3 > Reagan Revolution > spreadsheet > spreadsheet capitalism > VisiCalc
Management and the Abstraction of Workplace Knowledge into Big Data
Posted on | August 30, 2014 | No Comments
The factory of the future will have only two workers: a man and a dog. The human being’s job is to feed the dog, whose function is to keep the man away from the machine. – Warren Gameliel Bennis
Understanding information technologies and the emergence of “big data” in the workplace requires some scrutiny of work processes, the relationship between labor and human bodies, and the historic role of management. In particular, how has a worker’s laboring activities been transformed into knowledge that could be collected, analyzed and used by managers? What are the implications of this abstraction of labor and its transformation into abstract data and technology-assisted management?
This post looks at how industrial intelligence has been removed from the site of the working body and relocated to the electronic space of cybernetic analysis, control and communication. It also discusses how this process has been transferred to other aspects of economic and social and has been part of a new phenomenon called “big data.”
Shoshana Zuboff’s In the Age of the Smart Machine: The Future of Work and Power (1988) was one of the more interesting inquiries into the processes of computerization and electronic communications to emerge out of the 1980s. It was a significant contribution to the organizational and sociological discussion on the way information technologies were being used in manufacturing and service sectors. One of her main contributions, the verb “informating,” provided important insights into the key practice of the new technologies and the construction of digital data in the cybernetic age.
Analyzing pre-Internet computerized environments, she identified informating as the process of digitally registering a wide range of information related to computer tasks. She both connected and compared informating to the processes of automating. Computers have historically been involved in automating – the process of replacing human activities and work with machinery. Zuboff distinguished automating from informating because the latter “produces a voice that symbolically renders events, objects, and processes so that they become visible, knowable, and shareable in a new way.”[1] Consequently, informating is an effective concept for approaching that vast data gathering and analysis project that is currently consolidating a wide range of structured and unstructured data from throughout the cybersphere.
The data collection processes involved in computerization are significant. They lead to an accumulation of information that is intimately related to the individual, and yet are essential for the continuance of modern private and public bureaucracies. As they monitor the various activities of everyday life as well as industrial production, they also keep a record that can be accessed or fed into larger databases across the Internet. For example, in a supermarket, your groceries’ barcodes are read and fed into a computer. Not only does it tabulate the price but it enters the information into database files for inventory, finance, and marketing that can later be analysed, examined, graded, and shared. In conjunction with loyalty programs and recommendation engines, big data is used by supermarkets to identify customer attributes like parenting or gluten-free preferences and tailor digital coupons and other promotions through email and social media.
Zuboff’s concern with the codification of the work environment intricacies into machine-compatible texts opened up a range of inquiry that is applicable to other facets of modern life. Drawing on what she terms the dual capacity of information technology: its ability to both automate and informate productive activities; she was able to analyze how technology changes the practices of work, managerial authority, and the supervision of employees. The “Internet of Things” (IoT), a connective network of electronic devices or “things” embedded with microelectronics, algorithmic software, and multi-faceted sensors, collects and exchanges data from dispersed objects in cloud-based data facilities for analysis. For example, “solar roads” that collect sunlight for electricity will be equipped with sensors that monitor highway conditions and alert oncoming cars as well as transportation authorities. If there’s debris or snow on the road, sensors in the smart pavement will detect it and relay the data.
The simultaneous growth of industry and bureaucracy at the beginning of the twentieth century created new demands for skills, machinery and control mechanisms that could be implemented in the workplace. Industrialism was maturing as was the consumer society, and manufacturing was gearing up for mass production. Work and workers became objects of intense study so that their skills and knowledge could be abstracted and translated into new work procedures and technologies. This process also created a growing class of managers whose job it was to study, refine and supervise these processes.
Frederick Taylor emerged as the leading figure in the trend towards observing, describing, and then systematizing worker’s skills so that they could be “re-engineered,” to use a modern buzzword. Taylor’s studies of minute worker activity lead to “time studies” designed to refine muscular movement in manufacturing and other work activities. They were also meant to “provide the quantitative empirical basis for a more rationalized control of industrial production.”[4] In Zuboff’s terms: “Taylorism meant that the body as the source of skill was to be the object of inquiry in order that the body as a source of effort could become the object of more control.”
She elaborates on the use of the information:
-
Once explicated, the workers know-how was expropriated to the ranks of management, where it became management’s prerogative to reorganize that knowledge according to its own interests, needs, and motives. The growth of the management hierarchy depended in part on upon this transfer of knowledge from the private sentience of the worker’s active body to the lists, flowcharts, and other systems of measurement in the planner’s office.[2]
Taylor’s work was published as The Principles of Scientific Management (1911). His ideas were a major inspiration for the efficiency movement that sought to identify and eliminate waste in all social and economic areas of what would be called the Progressive Era in the US.
Taylor’s “scientific management” ideas were never implemented by any one company without some modification. However, Henry Ford was able to simplify the process with his moving assembly line for automobile production. He implemented a series of conveyor belts, overhead rails and planned sequences that would keep production in constant flow. Based on the Midwest’s great meat-packing “disassembly” lines, Ford aspired to the ease in which oil and other liquids and gasses could be moved and processed.[4]
By further reducing the need for physical effort and skill, Ford was able to develop economies of scale and create the gigantic new automobile industry that could grow and include new unskilled immigrants and rural laborers. One of the costs involved, however, was the loss of skilled labor. Worker’s capabilities became “congealed” in the machinery, in the sense that their energies and skills are designed into the machinery of production, including robots. Also, one working body could be replaced easily by another. Often the benefit was an easier job for the worker in terms of physical toil, but it came at the price of the autonomy and negotiating power.
Managers facilitated the movement of bodily effort and skill into the machines and industrial techniques and then expanded into the intellectual areas of the owner/executive. Workers and managers operate with different types of literacies. Workers have been generally body-oriented and utilize the action-centered skills developed in physical labor. They develop implicit knowledges gained through performance and learned by observation and imitation. Zuboff called the activities when laborers use their bodies to work on materials and tools “acting-on.” Whether stirring paper pulp, operating a forklift or typing on computer keyboards, their major concern is with working with things rather than people.[5]
Conversely, white-collar workers use their bodies in significantly different ways. Although differences occur between top managers and middle managers, she uses the term “acting-with” to distinguish managers’ main responsibilities from the “acting-on” activities that monopolize workers’ activities. Top managers are also very much engaged in bodily activities, but primarily those that call on their abilities to interact with other people. Bodily presence, manifested primarily through the voice but also through dress and non-verbal behaviors are key to their success. Face-to-face verbal interchanges culling gossip, opinion, hearsay, and physical cues while transmitting in a way that heightens their personal charisma and sociability is a primary responsibility of top managers. Zuboff returns to the word “sentience” to describe the way top managers develop a “feel” for people and situations.
Zuboff’s study of working environments was conducted in the era of traditional databases that collected, sorted, and retrieved data according to prescripted formats and stored on a mainframe’s magnetic tape. With the introduction of Internet, cheap servers, data centers and software solutions like Hadoop, a new system became possible. It was feasible to collect unstructured data from mobile devices, PCs, and the whole Internet of “things” in the workplace. Information from data sources such as environmental sensors, production schedules, timesheets, etc., increasingly became fodder for analysis and innovative value creation.
She also drew on the politics of Michel Foucault, who focused, in part, on the “panopticon” of procedures of examination and file-building that were a crucial for the exercise of modern power. The examination works to hold their subjects of attention “in a mechanism of objectification.”[6] Examination turns the economies of surveillance and visibility into an operation of control. It proceeds by the textualization, the informating of data according to a set of prescribed protocols and knowledges. The file has an agenda and not just a loose collection of random documents. Under this official gaze, individuals become blank slates to be evaluated, classified, and registered in the official system of files. Max Weber had already identified the file to be crucial for the organization of bureaucracy. The examination that places individuals in a field of surveillance also situates them in a network of big data collection; it engages them in a whole mass of documents that capture and fix them.”[7]
These “cybernetic identities” are characteristic of the information age where the proliferation of multimediated information is changing the way people operate in the arenas of their lives. Furthermore, since information technology is largely developed out of institutional requirements, it is inherently political. Cybernetic identities are connected to the great bureaucratic spaces of credit, education, and production. They are the result of types of observation, classification, and registration. They result from a penetrating gaze which codes, disciplines, and files under the appropriate heading. Actions lose their actuality, and bodies lose their corporeality.
Mark Poster used Foucault to think about the consequences of computer databases on subjectivity and its multiplication of selves to feed an extensive array of organizational files. He was less concerned with databases as “an invasion of privacy, as a threat to a centered individual, but as the multiplication of the individual, the constitution of an additional self, one that may be acted upon to the detriment of the ‘real’ self without that ‘real’ self ever being aware of what is happening.” The texture of postmodern subjectivity is dispersed among multiple sources of information production and storage. In The Mode of Information, he warned of the “destabilization of the subject,” a fixed self no more but rather one “multiplied by databases, dispersed by computer messaging and conferencing, decontextualized and re-identified by TV ads, dissolved and materialized continuously in the electronic transmission of symbols.”[8] In an age when Google wants to “organize the world’s information,” we are still trying to determine the implications of that multiplication of identity within the networks of institutional power.
Citation APA (7th Edition)
Pennings, A.J. (2014, Aug 30) Management and the Abstraction of Workplace Knowledge into Big Data. apennings.com https://apennings.com/technologies-of-meaning/management-and-the-abstraction-of-knowledge/
Notes
[1] Zuboff, Shoshana. In the Age of the Smart Machine: the Future of Work and Power. New York: Basic, 1988. Print., p. 9.
[4] Beniger, The Control Revolution: Technological and Economic Origins of the Information Revolution. 1986; p. 298-299.
[2] Beniger, JamesThe Control Revolution: Technological and Economic Origins of the Information Society. 1986; p. 294.
[3] Zuboff, S. In The Age Of The Smart Machine: The Future Of Work And Power. 1988; p. 43.
[5] Distinctions between “acting-on” and acting-with” from Zuboff, S. In The Age Of The Smart Machine: The Future Of Work And Power. 1988; p. ??.
[6] Rabinow, Paul, comp. The Foucault Reader. London: Penguin, 1991. Print., p. 200-201.
[7] Poster, Mark. The Mode of Information: Poststructuralism and Social Context. Chicago: University of Chicago, 1990. Print. p. 98
[8] Poster, Mark. The Mode of Information: Poststructuralism and Social Context. Chicago: University of Chicago, 1990. Print. p. 15.
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Anthony J. Pennings, PhD is a professor of global media at Hannam University in South Korea. Previously, he taught at St. Edwards University in Austin, Texas and was on the faculty of New York University from 2002-2012. He taught at Victoria University in Wellington, New Zealand and was a Fellow at the East-West Center in Hawaii.
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Tags: Big Data > Frederick Taylor > Informating > scientific management > Shoshana Zuboff > Taylorism