https://readmeastoryink.com/wp-content/uploads/stories/the_c...
That would in fact be the main argument against humanoid robots in many (most?) applications.
The counterpoint is that what humans already do is exactly what's needed in some cases, making those cases the ideal applications for humanoids.
It absolutely isn't. Paige was actually the engineer/tinkerer earnestly developing this machine, which really worked. One of his main problems is that he always thought he needed to improve it more before it was ready. He didn't understand "release early and often": that time-to-market matters.
> Twain felt that he had an insider’s perspective and could intuit how others in publishing would respond to the machine. But he was a printer’s devil no longer: he was a famous, millionaire author.
No longer, perhaps, but Twain had been in the printing industry, so he knew a thing or two. From age 13, Twain worked as a typesetter and compositor for newspapers. So even if he overestimated his knowledge of that, it was not simply the conceit of someone cushioned. What he remembered from his past experiences with freely moving type set by hand would have still been relevant at the time he embarked on this thing with Paige. Linotype was not yet in the market.
Even as the Linotype appeared, it was not obvious that it is superior. It is a gross simplification to say that Paige's machine was imitating manual typesetting whereas the Linotype wasn't. Both machines work by moving letter blocks into rows, and the letters have to be sorted.
Evidently, what the Linotype did better was:
- Linotype characters are negatives, made of brass. Brass is hard and durable. These negatives are cast to positives with molten lead. The lead is melted for reuse after a run of the typesetting. Paige used cast lead pieces, which were more or less permanent. The same letter "A" would be used over and over again in different typesetting jobs. Lead is heavy to move around in the machine as well as soft. Brass allows nicks or slots to be cut in it for easy sorting into bins, but if you do the same with lead, it won't be durable; these features will wear out and cause missorting and jams.
- Paige's system used a complex system for justifying words and filling spaces at the ends of paragraphs and whatnot; it had to calculate and insert spacers. Linotype had clever tricks: special wedge-based expander bars were inserted between words, and then pressure against the bars expanded the sliding wedges to justify an entire line at a time. So in that regard, that's where Linotype deviated from trying to imitate manual typesetting.
- A key difference is that Linotype makes one line at a time, out of brass moulds, with spacers between. This is then cast with molten lead: just one line, called a slug. After a line is cast, the brass moulds can be released and sorted back into bins. The lead slugs are assembled into a page. Paige's system, maybe because of his surname, tried to work more traditionally, typesetting a whole page. That creates a problem because of the limitations of the workspace. If you are doing lines separately, you can have machinery/tooling/jigging above and below the line; there is no consideration for interference with previous or subsequent line of text. This freedom is what enabled the mechanisms for spacing to be developed.
But the thing to note is, that the Linotype changed typesetting work into something more heavily industrial, involving continuous hot metal casting.
Paige and Twain might have been betting on such a change being rejected by the industry, in favor of their solution which was doing the same sort of typesetting.
> 2) Society uptake of transformative inventions is almost always slower than their proponents expect.
... except for LLMs.
> 3) Transformative technologies succeed by redesigning a task, and usually not by simply trying to reproduce the existing forms of human labor.
... except for LLMs.
Seriously, that’s your best example of that lately? Not, I don’t know, Tesla FSD? Theranos? Bernie Madoff?
The trouble for Gutenberg was it was too easy to duplicate his press, and that combined with not being good at business led to his bankruptcy.
It's similar with LLMs. Compared to a bespoke piece of software for the task they are incredibly inefficient, yet they are extremely useful because they can do things where developing that piece of software would require a lot of research.
The Unitype was late to market. Mergenthaler already had the Linotype out when the Unitype shipped. The Unitype was half the price of a Linotype. Unitype machines sold for about 20 years, so it wasn't a total failure. The Paige machine uses a lot more parts and space to do the same job.
Mechanism design skill is very rare. All the good Teletype machines were designed by just two people - Howard Krum and Edward Kleinschmidt. There were competing machines, and they were all much worse. William Burroughs invented the first adding machine that worked reliably, and it was better than all the competitors. Burroughs dominated banking well into the computer era.
The video claims that the big problem with the Unitype that it required not just a keyboard operator, but someone manually justifying the lines at the output end. Linotype figured out automatic justification, using expanding wedges. No need for a second worker.
Plus someone had to feed used type back into the Unitype for sorting and return to inventory. With a Linotype, the matrices with the letter forms never leave the machine; they are dispensed, set into a line, used for casting, and then immediately recycled back to the magazine for further use. As long as the supply of lead bars ready to melt holds up, you can keep setting type. With ordinary type setting, mechanized or not, you can end up with all your type tied up in pages waiting to be printed.
So the real problem with the Unitype was that it wasn't labor-saving enough. Despite that, it powered many small country newspapers for years.
The perfect kind of robot is perhaps something closer to the linotype... a AI controlled macine that has the capability to birth or re-assemble to be optimal for the task at hand. Just like the linotype automated the "casting" of lines of text.
Not necessarily a 3d printer or a nanobot universal assembler... but maybe something more akin to a modular assembly line that can rearrange itself intelligently.
They're Mediocre at everything, and worse than a dedicated machine at almost every task, just like a CPU is worse than an ASIC. However, they adapt to new tasks quickly. This decreases ownership costs (you only need one humanoid, not one machine per task), as well as manufacturing costs, as you can make one design and spend a lot of R&D money on scaling that design.
It's never been easier for you and interested kids to learn these things on their own.
The 30 second version, sewing is very labor intensive and people started trying to make a sewing machine from about when manufacturing tolerances got tight enough to attempt the process. It still took about 100 years until machines that actually work well were invented, The genius bit that took so long is to not try and sew like a human does but to develop an inverted process that a machine can do. Honestly, despite being quite common at this point in time sewing machines still blow my mind when you consider the intricate process they are required to do with thread.
And a fun fact for free: Apparently patent cartels(cough MPEG LA) are not a new thing and Singer et al set one up in the 1850's to lock up the market on these marvelous machines.
https://circuitousroot.com/artifice/letters/press/noncastcom...
To see a typecaster which works find a Linotype or Monotype.
At least the education system enforces some baseline level of standards
https://en.wikipedia.org/wiki/Elias_Howe#Invention_of_sewing...
Easier on its own is therefore effectively meaningless when people aren’t actually learning beyond the most superficial layers.
I agree that school curricula is often bad. I disagree that we should just accept it as hopeless and not hope it could get better.
I didn't say anything is hopeless. It's just that adding more good and lofty ideas and topics to the curriculum isn't addressing the actual bottleneck.
As someone with some familiarity with Clemens, and stresses piled upon stresses, I feel it is somewhat insulting to the man to think he just couldn't handle losing some money and having his entrepreneurial dreams not work out, because really that is some minor stuff right there, and in the end he was still one of the most popular writers in the world, it was going through the stress and then getting more on top. Especially, as it is my experience, when you are going through something really difficult and are at your weakest, people try to take advantage of that. It would not have been a good therapy for his misanthropic bent.
“All the other wonderful inventions of the human brain sink pretty nearly into commonplaces contrasted with this awful mechanical miracle.”
Such was Mark Twain’s verdict on the Paige Compositor, a typesetting device which was among the most complex machines ever built up to that point in history. It was also a ruinous disaster for everyone involved — despite being a good idea.
Twain came to see Paige’s machine as an “immense historical birth”: the point of origin for new mechanical lifeforms that would someday mimic the human mind. In a 1889 letter to his invention-mad brother Orion, Twain called the Paige machine “a cunning devil, knowing more than any man that ever lived” and claimed it would make “telephones, locomotives,” even “Babbage calculators” seem like “mere toys, simplicities!”
Twain visiting Paige and his machine, as depicted in the 1944 film The Adventures of Mark Twain (colorized).
The verdict of Twain’s biographers is that the author’s decade-long quest to automate the printing industry basically destroyed his life. One calls the Paige machine “a remorseless Frankenstein monster.” Twain’s most recent biographer, Ron Chernow, labels his obsession “a full-blown monomania,” and I find it hard to argue otherwise.
Reading Chernow’s biography, I was shocked at the degree to which “the Machine” took over the life of Twain’s family during his prime creative years following Huck Finn, and the extent to which its failure was responsible for both his financial ruin and subsequent depression.
So what was the machine actually trying to do?
It began in 1880, when Twain met a “little bright-eyed, alert, smartly dressed inventor” named James W. Paige. Twain had once been a “printer’s devil” himself, and although he was initially skeptical Paige’s new machine would automate away much of the costly human labor involved in setting the metal type of books and periodicals, he soon became a convert. The machine, Twain concluded, was not just a mechanical wonder but a surefire path to riches: “I never saw such an inspired bugger of a machine. Anybody can set type with it... I reckon it will take about a hundred thousand machines to supply the world, and I judge the world has got to buy them.” The financial advantages of a machine that “does not get drunk” and “does not join the printer’s union” were simply too vast for anyone to ignore.
As you can probably guess, Paige was not quite the towering hero-inventor that Twain believed him to be. He was clearly a person of real ability, but his main talent appeared to have been his skill at raising money by promising the impossible — the 19th century version of Steve Job’s reality distortion field. (“When he is present I always believe him — I cannot help it,” Twain admitted. “When he is gone away all the belief evaporates. He is a most daring and majestic liar.”)1
A detail of the most high-resolution surviving image of the compositor.
Twain ultimately invested the equivalent of roughly ten million dollars toward the machine: not just the bulk of his earnings from his books, but also of his wife’s inherited fortune, all of which he lost.
The issue was complexity. According to his long-suffering patent attorney, Paige “became lost in the wilderness of appalling details” as his device grew to over 18,000 distinct parts. Paige’s patent application was known internally at the United States Patent Office as “The Whale.” It took patent examiners a full 30 days just to read the initial application (you can try it yourself here).
When, at last, they requested a functioning machine, none could be found.
This was the crux of the problem: Paige’s typesetter was, in theory, superior to its simpler and cheaper competitor, the Linotype. But the Linotype was far easier to mass produce and repair.
The Linotype’s core advantage was that it did not attempt to mimic the human compositor’s every movement. Instead, it simplified the problem by casting complete lines of type. Paige sought to automate what humans were already doing, whereas the Linotype redesigned what the work was in the first place.
For Twain, though (and one suspects for Paige himself), the dream of mechanically mimicking human actions was what fascinated him most. Twain’s writings from the 1880s almost make it sound like he was imagining something like the contemporary concept of AGI. He came to see the Paige machine as a “creature” in its own right. When developed to perfection, it would be as “complex as that machine which it ranks next to”: the human mind.2 And it would bring immense power to those who controlled it. Twain’s housemaid later recalled: “he was expecting such wonderful things from it... he thought he’d make millions and own the world.”
Instead he went bankrupt, and Paige died a complete unknown.
Today, only one Paige machine survives. A second model “was donated to Cornell University and was later donated to a scrap metal drive during World War II.”
Twain’s vision of hundreds of thousands of human-like language machines taking over the world would have to wait a century or two.
The easy moral of the story is that Twain was gullible and Paige a huxster. Both are partly true! But it’s also true that Paige and Twain were on the right track. The production of the written word really was about to be transformed by automation. And Twain was remarkably prescient, almost uniquely so, in grasping the world-historical scale of that ongoing transformation. I’d argue that there’s a clear line connecting the automation of typesetting and counting in the late 19th century to the rise of electrical computers a generation later, and then the early Internet and AI research a generation after that.
Their mistake lay in assuming that seeing the future was the same thing as knowing how to bring it about.
I think there are three transferrable lessons we can pull from this story:
“DIY-friendly” design matters a lot. Inventors and investors encounter their would-be revolutionary machines in a pristine environment, shielded from actual use. But once a new technology is out in the world, it breaks in all sorts of ways no one imagined. People end up putting their trust not in the technologies that work best when conditions are perfect, but in those whose failure modes are predictable and fixable by ordinary people.
Society uptake of transformative inventions is almost always slower than their proponents expect. “The world has got to buy them,” Twain had written. Twain felt that he had an insider’s perspective and could intuit how others in publishing would respond to the machine. But he was a printer’s devil no longer: he was a famous, millionaire author. Twain was cushioned, therefore, from the perspective of both the workers who his machine might automate out of a job, and from the practical challenges faced by the capital owners, who were in no hurry to replace their costly existing machines with untested new ones.
Transformative technologies succeed by redesigning a task, and usually not by simply trying to reproduce the existing forms of human labor. Paige built an amazingly complex mechanical imitation of the human compositor which attempted to repeat a human worker’s actual movements. By contrast, Linotype simplified the problem by doing something humans didn’t already do. The Linotype was initially slower, but as it claimed the market with its machine-centric approach of casting whole lines of type at once, it triggered a feedback loop of further improvements which meant it eventually became far superior.3
• Odd shapes hidden in dense Amazon rainforest reveal sprawling ancient civilization.
• “Building such monumental works in the rainforest must have required a large workforce, division of labour and an understanding of mathematics and geometry. It is also clear that the construction and maintenance of such centres for around 1,500 years must have had administrative, sociocultural and cosmological motivations” (from the actual article on the above, in Nature).
• Interactive chart of the Indo-European languages by Damon Binder. Binder also made this Random Lives site: “About 70 billion people have ever lived. This project randomly samples just 250 of these lives, to give a window into what a ‘typical’ human experience was like.”
• I’ve been working on an open source tool along similar lines, the Historical Persona Generator (here’s the Github), which differs in its approach because it is using procedural generation rather than pre-written profiles — will be writing more on this when it is finished, the current version is very much a work in progress but I think it’s becoming interesting:
• I’ve also been adding more books and features to the Book Prize Index, including this fun visualization of the arguments and approaches of ~9,500 books over the past six decades.
It’s tempting to see Twain’s relationship with Paige as something like vibe coding avant la lettre. Twain was, in the 1880s, wealthy and well-connected enough to outsource his invention dreams to Paige as a full time employee, who in turn practiced a mixture of sycophantic industriousness and gaslighting that will be familiar to any user of Claude Code. Twain never got his hands dirty with the actual work of creating the machine (instead micromanaging it via letters). This meant that he never saw the abundant failure modes and maintenance issues and edge cases, but instead got only the dopamine hit of feeling like he was being productive and innovative as he received misleading written progress reports.
Interestingly, in this period Twain was reading both Charles Babbage (who similarly dreamed of creating a universal calculating mechanical mind) and William James’ Principles of Psychology (1890) which was the first work to analogize the human brain to a networked system of electrical machines, the telephone switchboard.