
EPISODE 05 · ON XEROX PARC
Inventing what others would sell
Closing question
When you look at the ordinary thing in your hand — the pointer, the window, the folder — which part are you holding: the invention that sat working in one room decades early, or the long, unglamorous crossing that made it cheap enough to reach anyone at all, and why do we only ever tell the story of the first?
Transcript
The Eye
This is Soft Ratios Radio.
The Hand
The voices are synthetic — nothing's being performed here,
The Eye
so what's left is only the thinking. The subject is a room full of inventions —
The Hand
and the company that owned them, and let almost every one walk out the door. Late 1979. A low building in Palo Alto. Steve Jobs walks in, and someone sits him in front of a screen with little pictures on it, overlapping windows, a thing on the desk you push around to move a pointer. _(cue: unhurried)_ And the story goes that he walked out having seen the future, and he took it. He looked at Xerox's computer, and he built the Macintosh out of what he saw.
The Eye
That's the version everyone repeats. Jobs toured PARC, saw the graphical interface, and stole it. It's clean. It's got a villain and a thief and a lesson. And Stanford's own history project put it flatly — that story is wrong in almost every way a story can be wrong.
The Hand
Every way. That's a strong thing to say about a story this famous.
The Eye
Start with the theft. There wasn't one. Jobs didn't sneak in. Apple paid for the visit. Xerox's venture arm got to buy a hundred thousand shares of Apple before it went public, at ten dollars fifty a share, and in exchange Apple's engineers got demonstrations. The price of admission was written down. _(cue: even)_ And it was a good trade for Xerox, on paper. That million dollars of stock was worth around seventeen and a half million by the time Apple went public a year later.
The Hand
So the burglar bought a ticket at the door.
The Eye
Gates had the best line about it, actually. He told Jobs it was like they both had a rich neighbor named Xerox, and Gates broke in to steal the television, and found that Jobs had already taken it.
The Hand
That's funny because it keeps the theft in it. Both of them thieves, just arguing over who got there first.
The Eye
Right — and even that's off. Because the thing they supposedly stole was already being built. There were two visits, and Jobs was only on the second. And both the Lisa and the Macintosh were already underway before either visit. The documents show the Mac was already going to have a bitmapped screen and a graphical input. One of Apple's own engineers, Bill Atkinson, had read about the PARC work as an undergraduate. Jef Raskin, who started the Mac, had spent time at PARC himself. They walked in already knowing what they were looking at.
The Hand
So it wasn't a revelation. It was a confirmation. They went to see a thing they'd already half-imagined, sitting there working.
The Eye
And here's the part the theft story can't hold. PARC's mouse cost about three hundred dollars and it was unreliable. Apple engineered one that cost under fifteen dollars and didn't break. That's not copying. That's the whole difference.
The Hand
Three hundred dollars, and it still didn't work right. _(cue: a beat)_ I keep landing on that. The place that invented the thing couldn't make a version of it a normal person could own. And the place that supposedly stole it made the theft pointless, because they had to build it over again to make it real.
The Eye
And PARC wasn't a secret vault, either. Around two thousand people saw the Alto — that was the machine — in 1975 alone. They published papers. What was unusual about Jobs's visit wasn't access. It was getting to look under the hood.
The Hand
Then the myth is doing something for us that the truth doesn't. Why does the theft story survive after all this?
The Eye
Because it answers the wrong question so satisfyingly. It tells you who's guilty. And guilt is more interesting than the real question, which is quieter and worse.
The Hand
Which is what?
The Eye
Which is: why did the people who invented all of it get to keep none of it? Set the thief aside. The disturbing thing isn't that Apple took it. It's that Xerox gave it away by not being able to hold it. _(cue: unhurried)_
The Hand
Let's stay there. Because before we blame Xerox for losing it — did PARC even invent it? You keep saying they invented all of it. Did they?
The Eye
That's the honest complication, and it goes deeper than the Apple story. Take the mouse. It didn't start at PARC. It came from Doug Engelbart's lab at SRI. Engelbart and a man named Bill English built the first one in 1963 — English built the prototype from Engelbart's notes. And in December of 1968, Engelbart got on a stage in San Francisco and demonstrated a system running thirty miles away, piped in over a microwave link. Windows. Hypertext. A mouse. Editing a document live. People later called it the mother of all demos.
The Hand
1968. That's before PARC even exists.
The Eye
PARC opens in 1970. And in 1971 Bill English leaves Engelbart's lab and joins PARC and brings the mouse with him. And he redesigns it — the old one had little perpendicular wheels, and he replaced them with a single ball that could roll any direction. That's the mouse that lived under everyone's hand for the next thirty years.
The Hand
So the mouse walked from one lab to another inside one person's head. That's the transfer. A man changing jobs.
The Eye
And here's the sad footnote on the 1968 demo. One of the people there, Andy van Dam, said everybody was blown away, and then almost nothing happened. People thought it was too far out. It stirred a small research world and left the rest of computing untouched.
The Hand
Blown away, and nothing happened. That's the shape of this whole thing, isn't it. The gap between seeing it and it mattering.
The Eye
It repeats everywhere you look. Take the objects — object-oriented programming, the way most software is built now. Alan Kay coined that phrase, and he led the language they built it in, Smalltalk. But the idea of objects and classes came out of a Norwegian language called Simula, from Ole-Johan Dahl and Kristen Nygaard in the sixties. Kay said so himself. The magazine issue that spread Smalltalk to the world said the fundamental idea came from Simula. Kay's genius wasn't the object. It was seeing what the object could become — a whole living medium, a computer a child could hold. He'd sketched that in 1968. He called it the Dynabook.
The Hand
So he took a piece of a Norwegian simulation language and dreamed it into a notebook for children. That's not stealing either. That's a different act entirely. Seeing further into something than the person who made it.
The Eye
And the network — Ethernet, the thing that still wires most buildings. Bob Metcalfe co-invented it at PARC, named it in a memo in May of 1973. But the core idea came from a radio network in Hawaii, ALOHAnet, from Norman Abramson. Terminals just transmitted whenever they wanted, and if two collided, they waited a random moment and tried again. Metcalfe read Abramson's paper and went and spent a month in Hawaii learning it. Then he added listening — a station checks whether the wire's busy before it talks, and it can hear its own collision. That's the improvement. But the beating heart of it, transmit and collide and retry, that was already humming over the Pacific.
The Hand
So let me say back what I'm hearing. The mouse, the objects, the network — none of them were born at PARC. They were carried in, and then made to work together.
The Eye
That's the honest frame. Not invention from nothing. First practical integration. PARC took the mouse from Engelbart, objects from Simula, contention from Hawaii, windows from Engelbart again — and built one coherent machine where all of it worked at once. The Alto. First running in 1973. Chuck Thacker built the hardware. His insight was almost mundane — a cheap new memory chip, the Intel 1103, had finally made it affordable to give the screen its own picture, dot by dot. He was willing to spend half the machine's memory just on the display, so anything you could put on paper you could put on the screen.
The Hand
Anything you could put on paper. That's the whole promise of a screen, said in one line, in 1973.
The Eye
And Butler Lampson wrote the memo that argued for building it at all. It was titled — plainly — Why Alto. And the software underneath it. He was so dense with information that colleagues joked they measured the speed of explaining things in lampsons, and most people could only manage thousandths of one.
The Hand
So here's where I want to stop and re-ask the question. Because we started with, did Apple steal it. And we've moved to, did PARC even invent it. And now I think the real question is a third one. _(cue: unhurried)_ They built the machine. Two thousand of them, roughly. And then what? Where did the two thousand go?
The Eye
That's exactly the question. About two thousand Altos over a decade. Around a thousand inside Xerox's own labs. Around five hundred at universities — they gave fifty away to places like Stanford and MIT in 1978. And the number sold to the public was zero. None. Not one Alto was ever a product. _(cue: even)_
The Hand
Zero. The first modern personal computer, and you couldn't buy one.
The Eye
It cost about twelve thousand dollars just to build one. As a product it might've run forty thousand. So they tried again, cheaper, and made an actual product — the Star, in 1981. The first commercial computer with the full desktop of icons and folders. And it cost sixteen thousand five hundred and ninety-five dollars. For one workstation. And it wasn't meant to stand alone — you needed several, plus a file server, plus a print server. A real office installation ran fifty to a hundred thousand dollars.
The Hand
Put a number next to that so I can feel it.
The Eye
A secretary made about twelve thousand a year. A home computer, the VIC-20, cost about three hundred dollars. So Xerox was asking a hundred thousand dollars for an office of machines when the going price for a computer was three hundred.
The Hand
That's not a price. That's a wall.
The Eye
They sold about twenty-five thousand Stars. It's remembered as a failure. And the reasons are almost painful to list. The machine was slow — saving a big file could take minutes. It crashed, and after a crash it ran a process called file scavenging that could take hours, and you'd sit there staring at a little code in the corner of the screen, seven-five-one-one, while it tried to put itself back together.
The Hand
Seven-five-one-one. Somewhere there are people who still feel something when they hear those digits.
The Eye
And the deepest reason wasn't even technical. Xerox's best salespeople were paid huge commissions on leasing laser printers — machines that cost up to half a million dollars. No commission on a desktop computer could ever compete with that. So the sales force had no reason to sell the future. They were paid to sell copiers. _(cue: unhurried)_
The Hand
There it is. The company couldn't sell the thing because the thing didn't pay the people who'd have to sell it. The future had the wrong commission structure.
The Eye
And that's the hinge of the whole story. Because there's one exception. One PARC invention Xerox actually turned into a fortune. The laser printer.
The Hand
Tell me why that one made it out alive.
The Eye
Gary Starkweather. He had the idea back at a Xerox lab in upstate New York, in the late sixties — that instead of optically copying a page, a laser could write the image straight onto the drum of a copier. And management told him to stop. Lasers were expensive and it threatened the copier business. He was reportedly threatened with having his group broken up. So he got himself transferred to PARC, in 1971, to the freewheeling place. And within about nine months he had a working laser printer — built by modifying an existing Xerox copier, a spinning mirror, a lens, a laser sweeping across the drum.
The Hand
Nine months, after years of being told no.
The Eye
And it became the Xerox 9700. Three hundred dots per inch, two pages a second. And it routinely made more than a billion dollars a year, for something like two decades, until they retired it at the end of 1997. The single most profitable thing PARC ever produced.
The Hand
So the one invention that survived was the one shaped like the business they already had. It printed on paper. It plugged into the copier world. Xerox could see it because it looked like Xerox.
The Eye
That's precisely it. When the invention fit the existing business, they shipped it and got rich. When it didn't — the personal computer, the interface, the network — they couldn't imagine it, so it left.
The Hand
And when you say it left, you mean people. Same as Bill English carrying the mouse in. It left in bodies.
The Eye
In bodies. Charles Simonyi, who'd built the first what-you-see-is-what-you-get editor at PARC, walked to Microsoft in 1981 — and Microsoft Word traces straight back to what he made there. [pause] Larry Tesler, who'd fought his whole life for editing without hidden modes, his license plate literally read NO-MODES — he went to Apple in 1980 and carried cut, copy, and paste into the Macintosh. John Warnock and Chuck Geschke had built a language at PARC for describing a page to a printer. Xerox wouldn't commercialize it. So in 1982 they left and founded Adobe, and it became PostScript, and with Apple's LaserWriter it lit the whole desktop-publishing world on fire. [pause] Metcalfe left in 1979 and built 3Com on Ethernet.
The Hand
So the great products of the next twenty years are just PARC, leaking out one resignation at a time.
The Eye
And the leak became a flood in 1983. Bob Taylor — the man who ran the computer lab — he had no PhD, he couldn't program. A colleague called him a concert pianist without fingers. His whole gift was gathering brilliant people and protecting them, running those arguing sessions in a room full of beanbags. Alan Kay said he created maximum synergy in the room. And in 1983, after fighting with management, Taylor resigned, and most of his best people left with him. That exodus is what actually ended the golden age. Not a theft. A slow bleed and then a walkout.
The Hand
The room emptied. And everything the room knew went and got built somewhere else, for someone else's profit.
The Eye
Four of them went on to win the Turing Award — computing's highest honor. Lampson, Kay, Thacker, Metcalfe. For work done in that building. Recognized everywhere, decades later. And none of it earned Xerox a dollar except the printer.
The Hand
Jobs said something about this, didn't he. Years after.
The Eye
In 1995. He said Xerox could have owned the entire computer industry. Could have been the giant of the nineties. And instead.
The Hand
And instead they had the best sales force in the world, all pointed at the copier. _(cue: a beat)_ So what's left, once you take the thief out of the story. _(cue: unhurried)_
The Eye
What's left is a cleaner and stranger truth. There were two different acts, and we keep confusing them. There's inventing a thing — making it exist, once, on a bench, unreliable and expensive. And there's making it real — making it cheap and sturdy and something a person can carry home. PARC was the supreme inventor and integrator. Apple and Microsoft and Adobe and 3Com were the ones who made things real. Both halves were necessary. Neither one is the whole story of how the thing on the desk got there.
The Hand
And we honor the wrong half. We tell the invention story like it's the achievement, and the making-real story like it's just theft or business. When the making-real is the harder, humbler act — three hundred dollars down to fifteen, and it doesn't break.
The Eye
The lesson people draw is about companies — a company builds a way to sell the inventions that don't fit what it already does, or watches its people leave to found its competitors. And that's true. But it undersells the real distance.
The Hand
The distance between a thing that works and a thing that works for everyone. That gap swallowed Xerox whole. They stood on one side of it holding the most valuable machine in the world, and they simply could not walk across.
The Eye
And the crossing took a decade and a hundred resignations and a mouse that cost a twentieth as much. The Alto worked in 1973. The world got the interface in the mid-eighties. Twelve years, just to make an existing thing real.
The Hand
There's a screen in front of a lot of people right now, or in a pocket. Overlapping windows. Little pictures you point at and open. Text on the screen that comes out of the printer looking the same. Every piece of that was sitting in one building, working, before most of the people using it were born. And it took longer to hand it to them than it took to invent it. So here's what I can't put down.
The Eye
Go on.
The Hand
When you look at the ordinary thing in your hand — the pointer, the window, the folder — which part are you actually holding? The invention, that existed in 1973 and belonged to no one who profited from it. Or the crossing, the long unglamorous work of making it cheap enough to reach you at all — and why do we only ever tell the story of the first one? When you look at the ordinary thing in your hand — the pointer, the window, the folder — which part are you holding: the invention that sat working in one room decades early, or the long, unglamorous crossing that made it cheap enough to reach anyone at all, and why do we only ever tell the story of the first?
Sources
Verified secondary research (cited). The episode may draw on this alongside the core report; it invents nothing beyond the two.
First principles
What specific technical capabilities did Doug Engelbart's NLS system demonstrate at the December 9, 1968 'Mother of All Demos' (mouse, hypertext, windows, collaborative editing), and how did the transfer of NLS personnel like Bill English to PARC in 1971 carry those concepts forward?
I'll research the specific technical capabilities demonstrated at the 1968 "Mother of All Demos" and the NLS-to-PARC personnel transfer.On December 9, 1968, at the Fall Joint Computer Conference in San Francisco's Civic Auditorium, Engelbart's 90-minute demonstration featured a complete computer hardware and software system called the oN-Line System (NLS), which demonstrated for the first time many fundamental elements of modern personal computing, including windows, hypertext, graphics, efficient navigation and command input, video conferencing, the computer mouse, word processing, dynamic file linking, revision control, and a collaborative real-time editor. The ARC team, led by Bill English, assembled custom infrastructure so Engelbart could stand on-stage in San Francisco and operate the NLS located 30 miles away at SRI in Menlo Park, placing cameras in front of NLS monitors and beaming two channels of video along a microwave link. English's own role was pivotal: he and Engelbart share credit for creating the first computer mouse in 1963, with English building the initial prototype based on Engelbart's notes, and he led a 1965 NASA-sponsored project evaluating the best way to select a point on a computer display, which the mouse won.
The personnel transfer to PARC carried these concepts forward directly. Mouse technology found its way from Engelbart's lab to Xerox PARC in 1971, when Bill English, a computer engineer who had worked for Engelbart at SRI, joined PARC. At PARC, English managed the Office Systems Research Group and developed the "Hawley" mouse that was used with the PARC Video Terminal System and early Altos. His key mechanical innovation was that the mouse underwent its first major mechanical redesign, as English replaced the perpendicular wheels with a single ball that could rotate freely in any direction, rolling against two internal rollers that tracked movement along the X and Y axes. More broadly, as the 1970s started much of Engelbart's team departed ARC, with many ending up at Xerox PARC—among them Bill English, who would further improve the mouse, and also Engelbart's former NASA and ARPA backer Robert Taylor. One important caveat on impact: according to Andy van Dam, the actual impact on computer science was limited—everybody was blown away but little else immediately happened, as people thought it was too far out; it sparked interest in a small research community but did not have impact on the computer field as a whole.
Sources: Douglas Engelbart: The Mother of All Demos and the Vision of Augmented Human Intelligence | Immunity Networks Blog · "The Mother of All Demos" - Celebrate California · The Mother of All Demos | Lemelson · The Mother of All Demos — Grokipedia · Milestones:Public Demonstration of Online Systems and Personal Computing, 1968 - Engineering and Technology History Wiki · Mother of All Demos (1968): Engelbart → Taskade Genesis · The Mother of All Demos - Wikipedia · Doug Engelbart 1968 Demo · The Mother of All Demo by Douglas Engelbart · Mother of All Demos · The Origin of the Computer Mouse | Scientific American · The Mouse - CHM Revolution - Computer History Museum · Co-creator of Computer Mouse Passed | Bach Seat · Bill English - CHM - Computer History Museum · Co-inventor of computer mouse, William English, passes away - Peripherals - News - HEXUS.net · Computer History - The Mouse: A Point of No Return · UncleSp1d3r Blog · Biography:Bill English (computer engineer) - HandWiki) · Bill English (computer engineer) - Wikipedia)
How did the Simula 67 language (created by Ole-Johan Dahl and Kristen Nygaard at the Norwegian Computing Center) define 'objects' and 'classes,' and what did Alan Kay specifically take from it versus invent anew in Smalltalk?
I'll research how Simula 67 defined objects and classes, and what Alan Kay took from it versus invented in Smalltalk.Simula 67 was developed by Ole-Johan Dahl and Kristen Nygaard at the Norwegian Computing Center; it introduced objects, classes, inheritance and subclasses, virtual procedures, coroutines, and discrete event simulation, and featured garbage collection. The class served as a template for creating instances (objects), and its design built on C.A.R. Hoare's record-class construct—in 1966 Hoare introduced the concept of the record class construct, which Dahl and Nygaard extended with the concept of prefixing and other features to meet their requirements for a generalized process concept. In Simula, the real extension was the concept that procedures were temporarily stoppable and that the stopped procedures could be referenced; these stoppable procedures were called classes, and a realization of a class was an object.
As for what Kay took versus invented: the object-and-class foundation came directly from Simula. Kay is one of the fathers of object-oriented programming, which he named, but some original object-oriented concepts, including the use of the words 'object' and 'class,' had been developed earlier—specifically in Simula, which the Smalltalk-72 manual cites as a major inspiration. Kay himself described encountering it: Simula was thought of by its designers as an extension of Algol, basically a preprocessor to Algol the way C++ was a preprocessor for C. What Kay contributed anew was coining the term "object-oriented," a radical emphasis on message-passing and late binding, and the vision of the language as a dynamic personal-computing medium (the Dynabook); notably, Smalltalk-76 later adopted a Simula-like class inheritance model of execution after Smalltalk-72's more complex message-passing approach. It is worth flagging that some popular sources incorrectly credit Kay with inventing objects outright, whereas the 1981 Byte magazine issue that popularized Smalltalk states that the fundamental idea of objects, messages, and classes came from Simula.
Sources: Simula - HandWiki · Ole-Johan Dahl and Kristen Nygaard – Computer Timeline · Simula 67 - Progopedia - Encyclopedia of Programming Languages · Simula - Wikipedia · Comparative Studies of Programming Languages; Course Lecture Notes · (PDF) The Birth of Simula · Object-oriented programming: some history, and challenges for the next fifty years · The Birth of Object Orientation: the Simula Languages∗ Ole-Johan Dahl June 2001 · Milestones:Object-Oriented Programming, 1961-1967 - Engineering and Technology History Wiki · General Concepts of the Simula 67 Programming Language - ScienceDirect · Alan Kay Did Not Invent Objects · A Conversation with Alan Kay - ACM Queue · A Conversation with Alan Kay · Smalltalk - Wikipedia · Alan Kay and the predecessor of modern tablets | Hidden Heroes · Smalltalk at 50 - CHM - Computer History Museum · Alan Kay - Wikipedia · A historical perspective on developing foundations iInfo(TM) information systems: iConsult(TM) and iEntertain(TM) apps using iDescribers(TM) information integration for iOrgs(TM) information systems · The Early History Of Smalltalk - ~comp - Tildes
What was the ALOHAnet contention protocol developed by Norman Abramson at the University of Hawaii around 1971, and which specific mechanisms (random access, retransmission on collision) did Metcalfe adapt for Ethernet's CSMA/CD?
I'll research the ALOHAnet protocol and Metcalfe's adaptation for Ethernet.In 1968 researchers at the University of Hawaii began to investigate if radio communications could be used to link multiple computers at once, and the team introduced its Additive Links On-line Hawaii Area network, ALOHAnet, in June 1971. The core mechanism was a random-access "pure ALOHA" protocol: random access protocols allowed computers to transmit packets "at will" as soon as they had information to send, and this meant transmissions would sometimes collide, but Abramson and his team solved this by allowing terminals to resend failed transmissions. Specifically, if an acknowledgment is not received, it is assumed that a collision occurred with a packet transmitted by some other device, and the packet is retransmitted after a random additional waiting time to avoid repeated collisions. Metcalfe, who read a paper Abramson wrote on ALOHAnet and spent a month in Hawaiʻi learning directly from Abramson, then improved on it for Ethernet by adding carrier sensing and collision detection: he developed a new system that included a mechanism that detected when a collision occurred (collision detection), plus "listen before talk," in which stations listened for activity (carrier sense) before transmitting, and supported access to a shared channel by multiple stations (multiple access)—giving the protocol its name, Carrier Sense Multiple Access with Collision Detection (CSMA/CD). Notably, the honest historical anchor is that Metcalfe adapted the random-access and retransmission-on-collision core of ALOHA but removed Alohanet's positive acknowledgments, and he also developed a more sophisticated backoff algorithm, which, in combination with the CSMA/CD protocol, allowed the Ethernet system to function at up to 100% load.
Sources: Critical internet technology developed at UH Mānoa celebrates 50 years | University of Hawaiʻi System News · Milestones:Demonstration of the ALOHA Packet Radio Data Network, 1971 - Engineering and Technology History Wiki · ALOHAnet — Grokipedia · Milestone-Proposal:ALOHANET (aka ALOHA System) - IEEE Milestones Wiki) · How ALOHAnet Made Waves in Networking and IT Innovation | EdTech Magazine · ALOHAnet – University of Hawaii College of Engineering · ALOHAnet Introduced Random Access Protocols to the Computing World - IEEE Spectrum · Random access communication system with contention scheduling of subpacketized data transmissions and scheduled retransmission of unsuccessful subpackets · Carrier-sense multiple access with collision detection — Grokipedia · Carrier-sense multiple access — Grokipedia · Aloha Network - NETWORK ENCYCLOPEDIA · The Bilateral Efficiency of Ethernet: Recalibrating Metcalfe and Boggs After Fifty Years · Carrier Sense Multiple Access - an overview | ScienceDirect Topics · 1.4. ALOHA, CSMA , CSMACD, CSMACA .ppt · Adaptive universal multiple access · Local area communication network utilizing a round robin access scheme with improved channel utilization · The Bilateral Efficiency of Ethernet: Recalibrating Metcalfe and Boggs After Fifty Years · CSMA/CD
Second-order
What were the sales figures, price ($16,595+), and commercial reception of the Xerox Star (8010 Information System) after its April 1981 launch, and what specific factors drove its market failure?
I'll research the Xerox Star's sales, pricing, reception, and reasons for its market failure.The Xerox 8010 Star Information System launched on April 27, 1981, with an introductory price of $16,595 for a single workstation which included the basic software, but the Star was not originally meant to be a stand-alone computer, but part of an integrated "personal office system" connected via Ethernet; a typical office would need at least 2 or 3 machines plus a file server and name/print server, so spending $50,000 to $100,000 for a complete installation was not an easy sale, when a secretary's annual salary was about $12,000 and a VIC-20 cost around $300. On sales, later incarnations of the Star allowed users to buy one unit with a laser printer, but only about 25,000 units were sold, leading many to consider it a commercial failure. The reception was widely regarded as a failure: the Star's unsatisfactory commercial reception probably came down to price, performance in demonstrations, and weakness of sales channels.
Specific failure factors documented include internal corporate dysfunction and misaligned incentives: marketing efforts were seen by some as half-hearted or unfocused, and the most technically savvy sales representatives who might have sold office automation equipment were paid large commissions on leases of laser printer equipment costing up to a half-million dollars, so no commission structure for decentralized systems could compete. Technical performance also hurt it: by today's standards the system was very slow, in part due to limited hardware and a poorly implemented file system where saving a large file could take minutes, and crashes could be followed by an hours-long process called "file scavenging," signaled by the diagnostic code '7511' in the top left corner of the screen. Additionally, strategic planners at the Xerox Systems Group did not feel they could compete against other workstation manufacturers such as Apollo Computer or Symbolics, and the Xerox name alone, considered their greatest asset, did not produce customers.
Sources: Xerox’s epic failure: what went wrong? - InspireIP · Xerox Star · Retromobe - retro mobile phones and other gadgets: Xerox Star 8010 (1981) · (PDF) The Underlying Reasons behind Xerox's Strategic Management Failures and Possible Remedies that Could Have Been Implemented · Xerox Star - Wikipedia · The Underlying Reasons behind Xerox's Strategic ... · Annual Reports | Xerox Corporation · What we can learn from Xerox and brand failures · The Xerox Star 8010 Information System, straight out of ... · Xerox Star 8010 Information System - The Interface Experience: Bard Graduate Center · Xerox 8010 Star Information System | National Museum of American History · Xerox Star | computer workstation | Britannica · The Computer Folder Is 40: How the Xerox Star Created the Desktop · Xerox Star - Marketing and Commercial Reception | Marketing Commercial Reception · Xerox Star — Grokipedia · Happy 45th birthday, Xerox Star, the computer that brought us a full GUI well before Apple and Microsoft | Club386
Third-order
How did the 1994 Ninth Circuit ruling in Apple Computer v. Microsoft on 'look and feel' and the desktop metaphor shape subsequent software UI copyright law, and what precedents did it set for later cases like Oracle v. Google?
I'll research the 1994 Ninth Circuit ruling in Apple Computer v. Microsoft and its influence on software UI copyright law.The 1994 Ninth Circuit ruling in Apple Computer, Inc. v. Microsoft Corp., 35 F.3d 1435, held that "Apple cannot get patent-like protection for the idea of a graphical user interface, or the idea of a desktop metaphor" under copyright law, largely affirming the district court and rejecting Apple's claim that the overall "look and feel" of the Macintosh GUI, taken as a whole, was protectable. Crucially, the court established a methodology: it made analytic dissection the standard method for evaluating GUI and software infringement claims, requiring courts to filter out unprotectable elements—ideas, functional aspects, or licensed features—before assessing substantial similarity, ensuring only original, creative expression receives protection while excluding broader functional designs. The court identified five ideas basic to a GUI desktop: windows, icon images of office items, manipulations of icons, menus, and the opening and closing of objects, and much of the outcome turned on a 1985 licensing agreement, with the district court finding that over 90 percent of Windows was within the scope of the original 1985 license agreement — making the case as much about contract as copyright and allowing the court to avoid a sweeping "look and feel" precedent.
Regarding the later Oracle v. Google case, the sources do not establish a direct doctrinal line from Apple v. Microsoft to that ruling. Google LLC v. Oracle America, Inc., decided on April 5, 2021, in a 6-2 decision authored by Justice Breyer, held that Google's copying of approximately 11,500 lines of code from Oracle's Java SE Application Programming Interface was "fair use" and therefore did not constitute copyright infringement. Notably, the Court, recognizing that a holding for Google on either presented question would dispense with Oracle's claims, only answered the fair use inquiry—sidestepping whether the API was copyrightable—so the two cases resolved on different legal grounds (analytic dissection of protectable expression versus fair use).
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