Category Archives: Uncategorized

Edgar M. Villchur, a pioneer in high-fidelity audio electronics, dies at age 94.

Edgar Villchur in his laboratory, circa 1965. Courtesy, Steven E. Schoenherr.

Edgar M. Villchur was a seminal pioneer in the development of high-fidelity audio equipment. In fact, in its 50th-anniversary issue in 2006, Hi-Fi News ranked him No. 1 among the “50 Most Important Audio Pioneers.” Villchur, who innovated a small loudspeaker that markedly improved the way people listened to music, died on Monday in Woodstock, N.Y. He was 94.

Villchur (b. 28 May 1917) graduated from New York’s City College in 1938 and then earned his master’s degree there in 1940. But within a year he was drafted into the Army Air Forces and was trained as an electronics technician. For most of the next five years, while rising to captain, he was responsible for his squadron’s radio operations in the Pacific. After the war, Mr. Villchur opened a radio shop in Greenwich Village, making repairs and building custom hi-fi sets.

During the early 1950s, the Long Play (LP) record had been developed – making it possible to reproduce sounds across the sonic spectrum.  Up until that time, loudspeakers been designed with a cavity in the rear and were literally huge: in order to adequately reproduce forty hertz, they could reach fourteen feet in height. But where could such speakers be placed? Certainly not in most homes. 

Now a professor at NYU, Villchur had a novel approach to this problem. By sealing a speaker’s enclosure, he could use the springiness of the trapped air, rather than the mechanical spring of a driver’s suspension. “All I needed to do,” Villchur remarked later, “was to decimate the springy stiffness of the speaker suspensions, and reduce the size of the enclosure until the air spring was strong enough to replace the springs we threw away. It also turned out that within the compressions and rarefactions this air spring would undergo, the response was almost perfectly linear.”

By 1952, Villchur was married and had moved toWoodstock, N.Y. The speaker research he conducted in his basement caused him to realize that if a loudspeaker cabinet were completely sealed, the air trapped inside would act something like a spring that would control vibration, greatly enhancing the drive unit’s low-frequency performance. Thus was born the compact, full-range, air-suspension speaker; that is, except for one small detail. Nobody wanted to make it. After having been rejected by the two established speaker manufacturers he’d approached, Villchur had become greatly discouraged.

Henry Kloss, co-founder with Edgar Villchur, of Acoustic Research

But his spirits were revived when Villchur was contacted in the spring of 1954 by a former student, Henry Kloss, who was then building Baruch-Lang speakers for mail order in his Cambridge, Massachusetts workshop. Later that spring, Villchur demonstrated his prototype to Kloss, who immediately grasped the possibilities of the speakers and offered his Cambridge loft as a manufacturing facility. Acoustic Research (AR) was founded with $4,000 Kloss raised from his friends and an additional $2,000 from Villchur.

An advertisement for Acoustic Research's AR 1 loudspeaker. Courtesy, Steve Schoenherr

Their first venture was called the AR-1.  Kloss, Villchur and a physicist friend, Tony Hoffman, managed to assemble two AR-1s in time to demonstrate them at the New York Audio Show in September, 1954. Although critics seemed impressed with the “miniature” speakers’ bass response, the general reaction was why would anyone want to own such miniature speakers. It was an attitude akin to the widely-publicized opinion of Digital Equipment Corp.’s co-founder Kenneth Olsen, who once wondered why anyone would want a computer in their home. In each instance, it was a massive miscalculation.

Julian Hirsch. Courtesy, paul-lehrman.com.

Noted electronics writer Julian Hirsch was particularly puzzled, noting “The AR-1 had the lowest electro-acoustic efficiency of any loudspeaker on the market,” but understood that “at twenty-five hertz and below, it was more efficient than the Klipschorn, which had the highest efficiency of those tested.” His ultimate judgment was that the AR-1 “established a new industry standard for low distortion bass.” Hirsch, for his part, was nothing less than the “Walt Mosberg” of his day. He first tested gear for Popular Electronics magazine, and later, starting in October 1961, for Hi-Fi/Stereo Review, later renamed Stereo Review. His opinion was arguably the most valued in the profession.

AR-2 loudspeaker ad, from "Audio", Oct. 1958. Courtesy, Steve Schoenherr

Reassuringly for Kloss and Villchur, the AR-1 proved very popular with the listening public. It offered the very full and rich sounds of a larger speaker in a small package.  And, with the AR-2, the two men were able to reduce the price of the speakers to $89/each. And their next model, the AR-3A, introduced the dome-tweeter.

Kloss left Acoustic Research in 1957, to found KLH audio and later, Advent and Cambridge Soundworks; but Villchur, as co-founder, continued to innovate at AR. The company produced a consistently popular line of hi-fi loudspeakers, turntables and other stereo components that Villchur had designed. After selling the company in 1967, he went into hearing aid research and developed the multichannel compression hearing aid that has become the industry standard.

Acoustics for Audiologists (1999)

In 1999, Villchur published a book, Acoustics for Audiologists through Cengage Learning. Booknews.com reviewed it as follows:

“Villchur (president of the non-profit Foundation for Hearing Aid Research and former visiting scientist at the Massachusetts Institute of Technology) addresses the acoustical principles that underlie hearing aid design and fitting. Its nonmathematical presentation makes it a suitable guide for clinical audiologists and hearing aid dispensers.”

-Chris Hartman

A brief, early history of Xerox PARC and the development of the personal computer

Xerox PARC logo, ca. 1971. Courtesy, Wikipedia.

PARC, or Palo Alto Research Center, Inc., was founded in 1971 as a research arm of the Xerox Corporation. Its critical contributions to computer science included development of the laser printer, the Ethernet, a variation of ARPANET (a predecessor of the Internet); various email delivery systems; the nucleus of the modern personal computer – featuring a monitor with graphical user interface, or GUI (pronounced “gooey”), and the first modern version of Stanford Research Institute’s Douglas Engelbart’s invention: the computer “mouse.” PARC sits in a low-lying, non-descript cement building nudging the Stanford University campus off Coyote Hill Road on the outskirts of Palo Alto, California.

Xerox PARC Computer Science Laboratory class, ca. 1971. Bob Taylor, second from right, would hold classes with laboratory students in "beanbag" chairs. Courtesy, Computer History Museum.

Paul Allen, co-founder of Microsoft, recalled in his recently published memoir Idea Man how during of September of 1980, he interviewed a PARC programmer named Charles Simonyi for a job, and how intrigued he was about the goings on behind the gates of Oz, or “ivory tower,” as Allen put it. Allen saw that PARC was a highly innovative and forward-thinking company that anticipated trends in computer technology a “decade” before everyone else in computer high tech.

Charles Simonyi, at Xerox PARC, ca. 1980 in front of one of their Alto computers. He left PARC that same year for Microsoft. Courtesy, Folklore.org.

Simonyi ultimately accepted a position with Microsoft, and subsequently invited Allen to Palo Alto to see a demonstration of PARC’s new “Alto” computer. Allen remembers being “blown away” by the complex word processing software graphics that displayed multiple-sized fonts on a screen that would print in an identical manner. The graphics were referred to as “WYSIWYG,” or “What you see is what you get.” One of the most devastating observations Allen mentioned was a completely intuitive interface, where one could actually “cut and paste” entire blocks of text via the computer’s mouse. In this particular mouse, motion was sensed by two wheels perpendicular to each other. Eventually, this was replaced by a “ball” mouse.

By the beginning of 1978, Altos were being tested in four locations: the White House, the U.S. House of Representatives, the Atlantic Richfield Company, and the offices of Xerox’s copier sales division. Xerox also donated a total of fifty Altos to outstanding universities—Stanford, Carnegie Mellon, MIT, and Universityof Rochester, including IFS file servers (the file server was a common application for the machine) and Dover laser printers. Xerox management rejected creating a commercially obtainable version of the Alto for many years.

A brief thumbnail of a few applications available for the Alto:

  • Bravo and Gypsy—the first WYSIWYG word processors;
  • Laureland its successor Hardy—Network E-mail clients;
  • Markup and Draw—Painting and graphics manipulation (bitmap editors);
  • Neptune—File manager;
  • FTP and chat utilities;
  • Games—Chess, Pinball, Othello and a Alto Trek game by Gene Ball;
  • Sil—vector graphics editor, used mainly for logic circuits, printed circuit.

Simonyi, when later asked about his decision to join Microsoft, explained that Xerox was simply “an old company going downhill,” and that it wasn’t just that they didn’t have all the right answers to complex technology questions. “That’s normal,” he said. But what bothered him the most was that they didn’t know the right questions, either.

The Xerox Alto was ultimately considered a failure because they were only able to sell 25,000 of them. Its successor, the Xerox Star, released in 1981 at a price tag of $16,000, might have been termed a “personal” computer, but definitely not a “popular” one. Malcolm Gladwell, in a recent New Yorker magazine article, said that Xerox PARC had developed the Alto for “professionals,” but that Apple computer’s Steve Jobs, who basically purchased an opportunity to tour PARC in 1979, wanted his personal computer to have a far more broadly-based appeal. Speaking of which, Jobs’ tour of PARC has entered high tech lore as a seminal moment in the development of the modern personal computer. Detractors have referred to it as letting the fox in the chicken coop, while Allen might be inclined to see it as letting a kid in the candy store. Jobs, for his part, asked if PARC would simply “open its kimono.”

Steve Jobs with the Apple II computer, ca. 1979 - the same year he gained entrance to Xerox PARC. Courtesy, Gizmodo.

The then 24 year-old Jobs got his chance to visit after negotiating for Xerox PARC to purchase 100,000 pre-IPO shares of Apple Computer for $1 million. He brought a team of executives and engineers along with him and was shown a number of PARC’s innovations, including the aforementioned WYSIWYG—the mouse-driven graphical user interface provided by the Alto. Jobs promptly integrated this into two of his key computer projects—first the Apple Lisa and then the Macintosh. Then, in similar fashion to the way Allen snapped up Simonyi at Microsoft, Jobs actively cherry-picked the talent at PARC for Apple.

An interesting epilogue, tying together both this sequence of events and the Simonyi defection, is Apple’s lawsuit against Microsoft (whose “Windows” technology derived heavily from the WYSIWYG interface) for illegally appropriating the “look and feel” of the Macintosh GUI. Not to be outdone, Xerox decided to sue Apple on the same grounds; but ultimately, all of the lawsuits were dismissed for lack of legal merit. Chiefly, none of the parties involved could claim ownership of any of the technologies they employed.

-Christopher Hartman

A history of computer chess – from the “Mechanical Turk” to “Deep Blue”

 
Baron Wolfgang von Kempelen’s “Mechanical Turk,” an elaborate hoax. Courtesy, GearLog.com

An “elaborate hoax”

In 1769 the Hungarian-born engineer Baron Wolfgang von Kempelen (1734-1804) built a chess playing machine for the amusement of the Austrian Queen Maria Theresa. It was a purely mechanical device – a chess-playing automaton later revealed to be a hoax. Its outstanding aptitude, it was later revealed, originated from a man hidden inside the device. Interestingly, it was described in an essay by Edgar Allan Poe, “Maelzel’s Chess-Player.”

In March of 1949, Claude Shannon (1916-2001), a research worker at Bell Telephone Laboratories in New Jersey described how to program a computer to play chess based on position scoring and move selection.  He proposed basic strategies for restricting the number of possibilities to be considered in a game of chess. In 1950, Shannon devised a chess playing program that appeared in the paper “Programming a computer for playing chess” published in Philosophical Magazine, March 1950. This was the first article on computer chess.

In 1950, Alan Turing (1912-1954) wrote the first computer chess program.  The same year he proposed the Turing Test that in time, a computer could be programmed (such as playing chess) to acquire abilities rivaling human intelligence.  If a human did not see the other human or computer during an imitation game such as chess, he/she would not know the difference between the human and the computer.

In 1951, Turing tried to implement his “Turbochamp” program on the Ferranti Mark I computer at Manchester University.  He never completed the task.  However, his colleague, Dr. Dietrich Prinz (born 1903), wrote a chess playing computer program for the Ferranti computer that solved simple mates-in-two moves.  The first program ran in November, 1951.  The program would examine every possible move until a solution was found.  It took about fifteen minutes to solve a mate in two moves.

In 1946 the Hungarian/American mathematician John von Neumann was given the task of designing a powerful calculation machine to speed up the task. In 1950 a giant machine called MANIAC I was delivered. It was filled with thousands of vacuum tubes and switches and could execute 10,000 instructions per second. It was also programmable.

By 1956, Univac’s MANIAC I computer was capable of playing chess using a 6″x6″ chessboard.  This was the first documented account of a running chess program. It used a chess set without bishops.  It took twelve minutes to search four moves deep.  Adding the two bishops would have taken three hours to search four moves deep. MANIAC I was programmed by Stan Ulam who designed the Hydrogen bomb with Edward Teller.

In 1957, Alex Bernstein, an IBM employee, created the first really complete chess program. With three colleagues, Bernstein created a chess program at the Massachusetts Institute of Technology.  It ran on an IBM 704, one of the last vacuum tube computers.  It took about eight minutes to make a move. International Master Edward Lasker played the program, easily defeating it, but he commented that it played a ‘passable amateur game.’

In 1958, Allen Newell (1927-1992), Herbert Simon and Cliff Shaw developed the chess program CP-1 at Carnegie-Mellon.  It was the first chess program to be written in a high-level language and took about an hour to make a move.  Their NSS (Newell, Simon, Shaw) program combined algorithms that searched for good moves with heuristics (rules of thumb for making a move) that captured well-known chess strategies.  The NSS chess program ran on a JOHNNIAC computer.

Artificial intelligence in computer chess

In 1962, the first chess program at the Massachusetts Institute of Technology was written.  It was the first chess program that played chess credibly.  It was chiefly written by Alan Kotok (1942-2006), assisted by John McCarthy (father of artificial intelligence) of MIT. The program ran on an IBM 7090, and was able to beat chess beginners. Kotok went on to become one of DEC’s leading computer designers (chief architect of the PDP-10), and created the first video game (Spacewar!) and the gaming joystick.

In 1965, McCarthy, who had been at Stanford University since 1962, visited the Soviet Union.  There, a group at the Moscow Institute for Theoretical and Experimental Physics (ITEP), led by Alexander Kronrod, challenged his chess program to a match with their own, later called KAISSA.  A match was held over nine months in 1966-67.  The Kotok-McCarthy program lost the match 3-1.  The Soviet chess program ran on an M-20 computer. 

MacHack (Mac Hack or Mac Hac) was a computer chess program written by Richard Greenblatt, an MIT expert in artificial intelligence, with Donald Eastlake, in the 1960s. MacHack VI was the first chess program to play in human tournaments.  It was also the first to be granted a chess rating, and the first to draw and win against a person in tournament play. Its name came from Project MAC (Multilevel Access Computer or Machine-Aided Cognition), which was a research project located at MIT.  The number VI refers to the DEC PDP-6 for which it was written.  DEC built the PDP-6 and gave the first prototype to Project MAC. 

Greenblatt added fifty heuristics to an older chess program written by Kotok.  MacHack was written in MIDAS macro assembly language on the PDP-6 computer that DEC donated to MIT.  Greenblatt wrote the chess program using only 16K of memory for the PDP-6 computer.  It evaluated about ten positions per second. Greenblatt was offered a B.S. degree from MIT if he would write a thesis about his chess program.  He never did write his thesis. Greenblatt later founded Lisp Machine, Inc., and is considered one of the founders of the hacker community.

On January 21-23, 1967, MacHack VI played in the Massachusetts Amateur Championship in Boston.  It was the first time an electronic computer played chess against human beings under regular tournament conditions.  The computer played all five rounds and ended up with a score of 0.5-4.5, one draw.  By the end of the year, it had played in four chess tournaments. It won 3 games, lost 12, and drew 3.  In 1967 MacHack VI was made an honorary member of the US Chess Federation.  The MacHack program was the first widely distributed chess program, running on many of the PDP machines.  It was also the first to have an opening chess book programmed with it.

Later, MacHack was available on all PDP-10 computers (400,000 instructions per second).  A version was made available on many time-sharing computer services using DEC PDP series computers.  This led to a rapid proliferation of chess programs.  Within three years of MacHack VI’s debut, at least eight new programs appeared.  This led to the first tournament for computer programs in 1970.  MacHack remained active in chess competitions through 1972.

Sargon Computer Chess

The original SARGON was written by Dan and Kathleen ‘Kathe’ Spracklen in a Z80-based computer called Wavemate Jupiter III using assembly language through TDL Macro Assembler.

The name “Sargon” was taken from either of the historical kings Sargon of Akkad (the first king to use his empire to try to conquer the known world) or Sargon of Assyria. (Ironically, neither ruler would have been able to play chess since it was not invented until long after their reigns.) One other possibility is that it was taken from a character in the original Star Trek series. The name was originally written entirely in capitals because early computer operating systems such as CP/M did not support lower-case file names.

SARGON was introduced at the 1978 West Coast Computer Faire, where it won the first computer chess tournament held strictly for microcomputers. This success encouraged the authors to seek financial income by selling the program directly to customers. Since magnetic media were not widely available at the time, the authors placed an advert in Byte Magazine and mailed photocopied listings that would work in any Z80-based microcomputer. Later they were contacted by Hayden Books and a book was published.

In 1985, three doctoral students created the chess-playing program Chiptest. This would develop into Deep Thought, a program that shared first place with Grandmaster Tony Miles in the 1988 U.S. Open championship and defeated the brilliant sixteen year-old Grandmaster Judit Polgar in 1993 in a thirty-minute game.

Deep Blue

In May of 1997, IBM’s Deep Blue, a chess program running on a high-powered computer, defeated world champion Gary Kasparov in a six-game series. The computer was designed to consider several billion possibilities at once. But it also uses a series of complicated formulae that take into consideration the state of the game. These formulae, among other factors, weigh the relative material value of pieces (e.g. queens are more useful than knights) and position (e.g. can you attack more squares than your opponent?), safety of the king and the pace of the game.

Deep Blue also kept a record of several past matches to see how it could make best use of what was available. Kasparov found this out – the hard way. On the other hand, when he played some unorthodox moves, he had the computer totally flustered.

References:

“Mastering the Game: A History of Computer Chess” Computer History Museum, current exhibition.

“MacAttack” Chess.com, May 13, 2008.

“IBM Deep Blue vs. Gary Kasparov,” Quantum Gambits, Ocbober 8, 2009.

Friedel, Frederick: “A Short History of Computer Chess.” Chessbase. N.d.

Surendran, Dinoj. “A Brief History of Computer Chess.” Zimaths, Vol. 2, Issue 1, October, 1996.

IBM Deep Blue website.

Sidney Harman, Audio Pioneer and Magazine Publisher, Dies at 92

Sidney Harman, physicist and electronics pioneer (ca. 1955)

Sidney Harman, who died yesterday, was born in Montreal in 1918, and grew up in New York City. According to Harman/Kardon’s website, “At New York’s City College, he majored in physics. In 1939, after he completed school, he found a job in the engineering department of the David Bogen Company, a firm that made public-address sound systems. He and his boss, chief engineer Bernard Kardon, quickly became friends.” In 1953, the two men partnered to found Harman/Kardon.

An electronics juggernaut
 

The first true high fidelity receiver invented by Harman/Kardon: the Festival D1000 (1954)

Harman and Kardon’s collaboration helped to create a new industry: high-fidelity audio. By 1954, the company simplified access to high-fidelity sound for the non-technical consumer with the introduction of the world’s first true hi-fi receiver, the Festival D1000. This product incorporated a tuner, control unit and power amplifier in a single chassis. Four years later, Harman Kardon presented the world’s first stereo receiver.

In addition to the Festival receiver, the also pioneered the TA230 stereo receiver (1958); the first ultrawide-bandwidth amplifier, the Citation II (1959); the first cassette deck with Dolby* B noise reduction, the CAD5 (1970); and the first high-current-capability amplifier, the Citation XX (1980).

Harman bought out Kardon, who retired in 1956 and proceeded to greatly expand the company. By the mid-1970s Harman-Kardon was a leader in the U.S. stereo industry. The company profited by pioneering the concept of separate components. Consumers would be able to mix and match them to create their own audio system. And the convenient part for the company was that Harman/Kardon made a wide array of those components.

As the 1960s and then the ‘70s progressed, Harman attributed the success of Harman Kardon and his other companies to a new style of management. He encouraged his managers “to respect people who do the work, to see them as a great untapped resource.” He believed strongly that the workers could contribute smart, practical ideas about ways to improve the manufacturing process.
 
A passion for politics and publishing
 

In 1976, Sidney Harman accepted an appointment in the Carter administration as undersecretary of the Department of Commerce. Upon entering government, he sold his company to conglomerate Beatrice Foods to avoid appearance of a conflict of interest. Beatrice then proceeded to sell nearly half of all the company’s holdings.

After Harman left the Commerce Dept. in 1978, he created Harman International Industries and went on a buying spree for new businesses, including several which Beatrice had previously sold off. Consequently, the company’s assets grew from approximately $80 million in 1981 to more than $500 million in 1989. By 1990, Harman International was selling consumer audio gear under such brands as JBL, Harman Kardon, Infinity and Epicure loudspeakers, as well as professional audio systems with such brands as JBL Professional, UREI, Soundcraft, etc.

Harman collected magazines from an early age and devoured them as quickly as he acquired them. A lifelong Democrat, Harman opposed the Vietnam War and for a year taught young black students in Prince Edward County, Virginia after the public schools were closed in a callous attempt to avoid desegregation.  In 1980, Harman married 9-term California congresswoman Jane Harman.

In 2010, Harman made a splash in the publishing and political worlds by purchasing financially troubled Newsweek magazine for $1 plus $47 million in liabilities. His leadership resulted in the magazine’s joining forces with Tina Brown’s online publication The Daily Beast.

Having aquired a personal fortune over his lifetime of some $500 million,

Sidney Harman, tennis star Andre Agassi and Rep. Jane Harman in Washington, D.C. at the American Academy of Achievement International Summit, June, 2007.

Harman gave millions to education, the performing and fine arts and other philanthropies. Harman has been often referred to as a “Renaissance Man” with a penchant for quoting long passages of Shakespeare from memory, and who lectured at the University of Southern California in disciplines as varied as architecture, medicine and law.

Becoming MIT: Moments of Decision – Part 4

“On April 17, 1974, a group of influential biologists met in the office of David Baltimore, a young faculty member who had recently moved into MIT’s new Center for Cancer Research … At MIT, the growth of the life sciences and technology eventually changed the Institute in ways that few of those who gathered that day in Baltimore’s office could possibly have foreseen.”  – from Becoming MIT  Moments of Decision.

The possibilities for the use of recombinant DNA (rDNA) were virtually limitless in the treatment of human diseases. However, everyone present in Baltimore’s office on that day in 1974 knew that many of the experiments they sought to carry out should not be undertaken until all relevant safety issues were considered.

From left: MIT biologist and Nobel Laureate Salvador Luria, Dr. Nancy Hopkins and Dr. David Baltimore at MIT's Center for Cancer Research, January, 1974. Courtesy, MIT Museum

As a result of an open letter co-authored by Baltimore, Stanford biologist Paul Berg and Harvard Medical School’s Richard Roblin, and published in three scientific journals, there was a broad-based moratorium on such experiments until the scientists could make recommendations to the National Institute of Health (NIH). The following February, a meeting took place at Pacific Grove, California’s Asilomar Conference Center to evaluate the situation before the submitting recommendations to NIH.

“Refrain from using the alphabet”

On Wed., June 23, 1976, the U.S. Department of Health, Education and Welfare announced the final NIH guidelines for conduct of rDNA experiments. And that evening, the local Cambridge, MA City Hall, with Mayor Alfred Vellucci presiding, convened its own special hearing into rDNA research and its safety implications for Harvard and MIT’s host city.  

Vellucci was concerned that through experiments at this “moderate risk” facility at Harvard, the scientists might concoct “… a disease that cannot be cured – even a monster.” The Major opened the hearing with words that were a bit less apocalyptic, but no less direct:

Then, for the person who is speaking, kindly give your name, your address, your title, and the organization that you represent. Refrain from using the alphabet. Most of us in this room, including myself, are lay people. We don’t understand your alphabet, so you will spell it out for us so we know exactly what you are talking about, because we are here to listen.”

The scientists who spoke on behalf of the facility must have had their jaws drop a few minutes later when a resolution was read out that would propose a two-year ban on all rDNA experimentation in Cambridge. The resolution did not pass, the scientists were thrown back on their heels to propose measures that were considered safe. NIH’s oversight was invoked, and after this first meeting ended inconclusively, others were planned for later in the summer that resulted in the creation of the Cambridge Experimentation Review Board, or CERB. Though Mayor Vellucci publicly declared victory over the “big scientists” at Harvard, David Baltimore and MIT were well-positioned to make significant strides in biomedical research.

The making of “Gene Town” 

In 1975, David Baltimore shared a Nobel Prize in Physiology or Medicine with two other scientists, and in 1977, with the passage of the Cambridge ordinance, MIT found itself ideally placed to make rapid progress with the new rDNA research.

Biomedical entrepreneur and philanthropist Jack Whitehead

In 1979, Baltimore started the negotiations what would eventually result in the Whitehead Institute at MIT. Jack Whitehead was a biomedical entrepreneur and philanthropist, and most of the negotiations involved where the new Institute should be built and faculty concerns over its model – it was to be independent but also affiliated with MIT.

The Whitehead Institute was built in 1982 and quickly proved to be a big success. It was at the very forefront of MIT’s efforts in genomics, and with the advent of the 1990s, the Whitehead Institute/MIT Center for Human Genomics served a pivotal role in the Human Genome Project. In 2004, this union became the Broad Institute of MIT and Harvard.

Putting gender on the table

“MIT Women Win a Fight against Bias. In a Rare Move, School Admits Discrimination.”Boston Globe front page headline, March 21, 1999.

MIT’s “A Study on the Status of Women Faculty in Science at MIT,” the so-called “MIT Report,” initiated by MIT Professor Nancy Hopkins, was being prepared by the Institute in advance of the Boston Globe story. It was emailed to faculty prior to the story, after which, on the following Tuesday, the New York Times came out with their own headline: “MIT Admits Discrimination against Female Professors.”

This report demonstrated that even highly successful women scientists, members of the National Academies and widely known for their research, were subject to subtle, unintentional discrimination – not blatant harassment – which according to the report, “consists of a pattern of powerful but unrecognized assumptions and attitudes that work systematically against women faculty even to the light of obvious good will.”

Dr. Nancy Hopkins of MIT

Needless to say, the issuance of the report caused a sensation. Response was worldwide, but much of it was positive: women and institutions were anxious to hear more, and asking for help to conduct similar studies. Additionally, there were words of thanks for MIT’s acknowledging a problem that many knew existed, but were not able to express easily. On April 7, 1999, Professor Hopkins and then dean Robert Birgeneau were invited to the White House, where President Bill Clinton and Mrs. Clinton congratulated MIT for identifying an important problem. Hopkins accepted sixteen invitations to speak that year, and in December of 1999, when the Chronicle of Higher Education reported in detail of how the report came about, the invitations grew exponentially. The Ford Foundation, among others, then offered MIT funding if they would assemble a syndicate of institutions to spread the word.

Though there were detractors, like a professor at the University of Alaska, who released his own report titled “MIT Tarnishes Its Reputation with Gender Junk Science.” This was picked up by the Independent Women’s Forum, a politically conservative research organization. And a Wall Street Journal editorial on December 29, 1999 called MIT’s actions “politicized exercises in ‘social science’”. Their argument was largely that the dearth of women faculty in the sciences was that they were less interested in entering science and may have different aptitudes that lead more easily into other fields more congruent with their values. This of course had no bearing to the treatment of the women faculty at MIT, who were highly committed and accomplished scientists.

Spearheaded by MIT Provost Robert Brown, deans in the other MIT schools were each asked to assemble committees to follow a similar procedure to that done by the School of Science. And in 2000, the MIT President, Charles Vest, and Provost Brown created the Council on Faculty Diversity. And in 2001, President Vest invited his peers at eight other institutions (Berkeley, Caltech, Harvard, Michigan, Penn, Princeton, Stanford and Yale) to meet at MIT for a conference, “Gender Equity in Academic Science and Engineering.”

The long-term effect of the initiatives undertaken by Professor Hopkins and President Vest and his colleagues – both within and without MIT – has been to gradually, but steadily increase the number of female faculty at MIT and its sister institutions. But it is quite possible, if not probable, that if Professor Hopkins had not resolutely undertaken this initiative and enlisted the wholehearted support of her fellow female faculty, these reforms would not have taken place. When presented with the letter Professor Hopkins had drafted and which had been signed by sixteen of the seventeen women faculty, dean Robert Birgeneau recalled the impact it had on him:

Listening to the personal stories of all 15, one at a time, was simply overwhelming. At that moment I realized that there really was a systemic problem and that it needed to be addressed immediately not just for the health and welfare of these women faculty, but also for the health of MIT as a whole.”

Conclusions: MIT at 150 and beyond

Current MIT President Susan Hockfield, in the book’s ”Epilogue,” describes two main lessons learned from the Institute’s 150 year history. First, that MIT’s founding ideals from the time of founder William Barton Rogers have served the Institute well. Rogers favored fundamental scientific principles and direct experimentation over “the minute details and manipulations of the arts.” Adherence to these principles, Hockfield writes, saved MIT from reducing itself to an industrial school. Rogers also believed in a mission of service to society, which greatly inspired MIT’s contributions to World War II efforts.

Secondly, MIT’s model, which in the 1940s put into form the concept of the federally-funded research university, created historic advances in America’s security, health, innovation and prosperity. But with us now in the second decade of the new millennium, MIT has challenges as well. New frontiers must be pursued, and as an example, in 2006, MIT devoted resources and talent to approach the vast global problem of sustainable energy. The MIT Energy Initiative was the outgrowth of this effort and embraces all the principles established founder Rogers and continued by the MIT community to this day, and presumably, far beyond.

Current MIT President Susan Hockfield

Becoming MIT: Moments of Decision was published through the MIT Press, Cambridge, Massachusetts. It is the companion publication to MIT’s yearlong sesquicentennial anniversary celebration, MIT150.