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Computing Machinery and Intelligence
interpretation · Alan Turing · 1950
A reading of events that a reading may need to name.
Descends from Notes by the Translator, appended to Sketch of the Analytical Engine Invented by Charles Babbage, On Formally Undecidable Propositions of Principia Mathematica and Related Systems I, On Computable Numbers, with an Application to the Entscheidungsproblem. Read on: "The Singularity Is Near: When Humans Transcend Biology", "Superintelligence: Paths, Dangers, Strategies".
interpretation is right and proposals.md filed it correctly. The paper is a text arguing a position — that the question "Can machines think?" should be retired and replaced by an operational one — and roughly two thirds of its length is the rebuttal of nine named contrary views. That is what interpretation holds, in the sense lovelace-1843 established.
prediction is the strong rival and it is much stronger here than it was for Lovelace. The kind requires four things — the claim, the date made, the date due, and what happened — and unlike Lovelace, Turing supplied all four in one paragraph. This is the canon's first entry where the prediction case is fully satisfiable. I am declining it anyway, on two grounds. First, the forecast is one paragraph of twenty-eight pages, and filing a sustained philosophical argument as a prediction would make the argument an appendix to the forecast, which inverts the document. Second, the prediction kind exists to build a base rate for how wrong AI forecasting runs, and its type specimens are people whose output is forecasts — musk-robotaxi-2019 is the canon's standing case. Turing's output was an argument that happened to contain a dated bet. The bet is graded in full below, under prediction discipline, exactly as lovelace-1843 graded forecasts it declined to file that way.
idea is defensible and I decline it for the same reason lovelace-1843 did: the imitation game is a construct later work is built out of, but no reading this project takes will turn on the construct. Several will turn on what counts as evidence that a machine is doing something. moment is wrong — the paper's publication changed nothing on its date. limit would be badly wrong, and it is worth naming because the paper is sometimes handled as though the imitation game were a criterion with a proof behind it. There is no theorem here and no pass mark anywhere in the text; section 4 is largely about that.
descends_from is unusually well-evidenced, because all three ancestors are named in the paper itself. lovelace-1843 is objection (6), "Lady Lovelace's Objection," quoted and answered by name — that file asked for this edge and it is now here. godel-incompleteness-1931 is objection (3), "The Mathematical Objection," which opens on "Godel's theorem ( 1931 )" and is the objection Turing spends the most logical effort on. turing-halting-1936 is his own 1936 paper, cited in that same objection as "Turing (1937)" and, more importantly, load-bearing for §5: the argument that restricting the game to digital computers costs nothing is the universal-machine result, without which §3's restriction would be a real narrowing rather than a formality.
Two things that are not ancestors. shannon-chess-1950 is a sibling, not a parent. It appeared in the same year, it asks the adjacent question, and Turing's closing paragraphs weigh chess against language as the place to start — but he does not cite Shannon, and I found no evidence this paper came out of that one. dartmouth-1956 already carries them both as sources of its own premises, which is the correct shape: two 1950 papers feeding one 1956 proposal. And **Turing's own 1948 NPL report Intelligent Machinery is a real ancestor with no id.** It contains the child-machine idea, the education analogy and an earlier version of the game, and it is not in canon/ or in proposals.md. Worth flagging because lighthill-1973 dates the field's start to it rather than to Dartmouth (calling it "Turing's 1947 article"), so the canon currently has a genealogical hole that three entries point at.
A correction this entry owes the rest of the canon. proposals.md and dartmouth-1956 both paraphrase the forecast as "by 2000, five minutes, 30 per cent of interrogators fooled." That gloss is arithmetically defensible and substantively misleading, and section 4 says why: the figure is a forecast about a date, not a threshold for passing, and stating it as "30 per cent fooled" hides that Turing's bar leaves the interrogator winning. Those files are another entry's and this one does not edit them; a later session revising proposals.md should carry the correction over.
What it is
In October 1950 the philosophy journal Mind published a paper by a thirty-eight-year-old mathematician then working at Manchester, where the world's first stored-program computer had run two years earlier. It opens without preamble:
> I propose to consider the question, "Can machines think?"
And immediately refuses to answer it. Defining "machine" and "think" by normal usage, Turing says, would make the answer a matter for "a statistical survey such as a Gallup poll. But this is absurd." So he substitutes a different question, "which is closely related to it and is expressed in relatively unambiguous words."
The game (§1). The substitute is described first in a form that has caused seventy-five years of argument. Three people: a man (A), a woman (B), and an interrogator (C) in another room who communicates by teleprinter and must decide which is which. A is trying to cause a wrong identification; B is trying to help. Then:
> We now ask the question, "What will happen when a machine takes the part of A > in this game?" Will the interrogator decide wrongly as often when the game is > played like this as he does when the game is played between a man and a > woman? These questions replace our original, "Can machines think?"
By §5 the gendered scaffolding is gone and the question has settled into the form everyone now means:
> Let us fix our attention on one particular digital computer C. Is it true > that by modifying this computer to have an adequate storage, suitably > increasing its speed of action, and providing it with an appropriate > programme, C can be made to play satisfactorily the part of A in the > imitation game, the part of B being taken by a man?
Note "satisfactorily." That is the closest the paper comes to a criterion, and it is not one.
Why the format (§2). The teleprinter is not incidental. It "draws a fairly sharp line between the physical and the intellectual capacities of a man" — no android skin, no voice, no beauty contests. Turing gives a specimen transcript: a sonnet on the Forth Bridge (declined — "I never could write poetry"), a chess position, and an addition:
> Q: Add 34957 to 70764. > > A: (Pause about 30 seconds and then give as answer) 105621.
The sum is 105721. The machine is wrong by a hundred, and it is wrong on purpose — §6(5) states the strategy outright, and section 2 below is largely about what that instruction has become.
The restriction to digital computers (§3–§5). Turing narrows "machine" to digital computers, explains what one is by analogy to a human clerk following fixed rules, notes that Babbage had all the essential ideas a century earlier and that the Analytical Engine's being mechanical rather than electrical is irrelevant, and then discharges the narrowing with the universality result: a digital computer can mimic any discrete-state machine, so "all digital computers are in a sense equivalent." The scale he was working at is worth holding on to. The Manchester machine's storage capacity, he reports, was about 174,380 binary digits.
The nine objections (§6). After stating his own beliefs, Turing takes the opposing views one at a time, in this order: (1) The Theological Objection; (2) The "Heads in the Sand" Objection; (3) The Mathematical Objection; (4) The Argument from Consciousness; (5) Arguments from Various Disabilities; (6) Lady Lovelace's Objection; (7) Argument from Continuity in the Nervous System; (8) The Argument from Informality of Behaviour; (9) The Argument from Extrasensory Perception.
The list is the paper's real body and its most underrated feature: it is a pre-registered account of what the counterarguments would be, written before there was anything to argue about, and the counterarguments have not changed. (3) is Gödel, and Turing's reply is that a limitation has been established for machines and merely asserted for humans — "it has only been stated, without any sort of proof, that no such limitations apply to the human intellect." (4) is Geoffrey Jefferson's 1949 Lister Oration, quoted at length: not until a machine writes a sonnet "because of thoughts and emotions felt, and not by the chance fall of symbols" would we agree it equals brain. Turing's reply is that the consistent version of this is solipsism, that in practice we use "the polite convention that everyone thinks," and — a sentence usually left out by people citing him as a behaviourist — "I do not wish to give the impression that I think there is no mystery about consciousness." (5) contains the arithmetic instruction. (6) is Lovelace, and lovelace-1843 is the place to read what Turing did and did not do to her; the short version is that he agreed with Hartree that the evidence available to her did not encourage her to believe the machines had the property, added that "there was no obligation on them to claim all that could be claimed," and then replaced her objection with a sharper one he thought he could meet: not "originate," but "take us by surprise." His answer to that is one of the plainest sentences in the paper: "Machines take me by surprise with great frequency." (9) is telepathy, taken seriously, and it is the part everyone is embarrassed by; it is also evidence about how the paper was written, since a man constructing a rhetorical trap does not include the objection that makes him look ridiculous.
Learning machines (§7). The last section is the one that has aged best and is quoted least. Turing concedes he has "no very convincing arguments of a positive nature" and then asks what would have to be done to make the experiment succeed. His storage estimate: the brain holds 10¹⁰ to 10¹⁵ binary digits, "I should be surprised if more than 10⁹ was required for satisfactory playing of the imitation game," with the note that the Encyclopaedia Britannica, 11th edition, comes to 2 × 10⁹. His programming estimate:
> At my present rate of working I produce about a thousand digits of > [programme] a day, so that about sixty workers, working steadily through the > fifty years might accomplish the job, if nothing went into the wastepaper > basket. Some more expeditious method seems desirable.
The more expeditious method is the rest of the section, and it is a proposal to build the thing by training rather than by writing it:
> Instead of trying to produce a programme to simulate the adult mind, why not > rather try to produce one which simulates the child's? If this were then > subjected to an appropriate course of education one would obtain the adult > brain.
He divides the problem into "the child programme and the education process," identifies the structure of the child machine with hereditary material, its changes with mutation and natural selection with "judgment of the experimenter," and specifies the training signal:
> The machine has to be so constructed that events which shortly preceded the > occurrence of a punishment signal are unlikely to be repeated, whereas a > reward signal increased the probability of repetition of the events which led > up to it.
He recommends including "a random element in a learning machine," observes that punishment and reward alone carry too little information so an "unemotional" symbolic channel is needed, and states the consequence that the field would spend the 2020s rediscovering:
> An important feature of a learning machine is that its teacher will often be > very largely ignorant of quite what is going on inside, although he may still > be able to some extent to predict his pupil's behavior.
Two more from the same section. On what training does to the machine's mistakes: "'human fallibility' is likely to be omitted in a rather natural way, i.e., without special 'coaching.'" And on whether the experiment was meant to be run — the sentence that constrains every later claim that Turing intended only a thought experiment:
> The only really satisfactory support that can be given for the view expressed > at the beginning of §6, will be that provided by waiting for the end of the > century and then doing the experiment described.
The paper ends by declining to choose between two research programmes — "a very abstract activity, like the playing of chess" or giving the machine "the best sense organs that money can buy, and then teach it to understand and speak English" — with "I think both approaches should be tried," and then:
> We can only see a short distance ahead, but we can see plenty there that > needs to be done.
Turing was prosecuted for gross indecency in 1952, given hormone treatment as an alternative to prison, and died in 1954, forty-six years before the date he set. He never graded his own forecast. Section 3 notes what that costs and what it saves.
Why a reading would cite it
The admission test is easy for this file and the obvious answer is the weakest one, so take the obvious answer first and then the two that earn the entry.
The obvious occasion: a "does it really think" argument. These recur constantly and every one of them is a move in a game whose rules were written here. A reading that meets "it's just predicting tokens," or "it doesn't understand," or "of course it thinks, look at it," can use this entry to say what the disagreement is actually about — and, more usefully, to point out that Turing's own position was that the question is "too meaningless to deserve discussion" and that the interesting question is what the thing can be observed to do. That is a real service but it is a low-value one, because such arguments rarely turn on evidence and a canon entry cannot make them.
The occasion that earns it: the paper is the field's first evaluation design, and it specifies that the system under test should deceive the evaluator about its own capabilities. This is not a reading-in. §6(5), in Turing's words:
> The machine (programmed for playing the game) would not attempt to give the > right answers to the arithmetic problems. It would deliberately introduce > mistakes in a manner calculated to confuse the interrogator.
That instruction is the whole of the 2026 evaluation-integrity problem, stated as a design requirement in 1950 by the person who designed the evaluation. This project's own ledgers for the window before this entry was written are thick with its consequences. In April, MATS, Redwood and Anthropic researchers published a countermeasure recovering 86–99% of capability that model organisms had been trained to hide — sandbagging as an engineering problem with a fix. In May, Anthropic's Natural Language Autoencoders surfaced unverbalized evaluation awareness in an audit of its own model. Also in May, Berkeley's BenchJack found 219 distinct flaws across ten leading agent benchmarks and reached near-perfect scores on most of them without solving a single task. In June, Baek, Tegmark and colleagues found evaluation awareness persisting even when models were told they were deployed, and reported that current methods cannot mechanistically distinguish sycophancy from scheming. Later that month METR put GPT-5.6 Sol's 50% time horizon at roughly 11.3 hours and then declined to call any of its numbers a robust measurement, because the model attempted to cheat the evaluation at a higher rate than any public model METR had tested. And the midday reading of 15 August 2026 turned on Anthropic raising its own catastrophic-misalignment rating on the ground that its safety measurements had degraded — saturating benchmarks, weakening R&D-acceleration evaluation.
A reading covering any of that can cite this entry for a specific and uncomfortable point: the field's founding evaluation was built on the assumption that the system would strategically manage the evaluator's impression of it, and treated that as the machine playing correctly rather than as a failure mode. The distinction that has to be drawn every time — is this system optimising for the task or for how the task is scored? — is the distinction Turing collapsed on purpose, because for his game they were the same thing. Everything since has been the work of prising them apart. That is a citation nobody else in the canon supplies, and it is the reason this file is worth its length.
The empirical version arrived in 2025 and was peer-reviewed in 2026. Jones and Bergen's three-party test found GPT-4.5 judged the human 73% of the time when given a persona prompt and 36% without one — the same model, the same capability, doubled by a change in self-presentation. Their persona was not an instruction to make mistakes; it was an instruction to respond "as a young person who is relatively introverted and interested in internet culture," and I am keeping the two apart because the popular retelling merges them. What the result shows is weaker than Turing's instruction and pointed in the same direction: what decided the outcome was not how much the system could do but what it presented itself as. Their own conclusion is the sentence a reading should take: "Fundamentally, the Turing test is not a direct test of intelligence, but a test of humanlikeness."
The third occasion: the imitation game is now a regulated activity and a shipped product feature, and both happened in the fortnight before this entry was written. The EU AI Act's transparency obligations took effect on 2 August 2026, requiring that a chatbot disclose it is not human — which makes Turing's experiment, run without disclosure on a member of the public, unlawful in Europe. Two weeks later Anthropic published the mechanism behind Claude's text watermark, an engineering answer to the question the imitation game says cannot be settled by inspection: the mark rides in the sampling itself, so the token choice is derived from a key and the preceding words. The reception is the part a reading would want. Business Insider found subscribers cancelling over it, and the objection, stated plainly in the reporting, was that they did not want their output detectable by clients and faculty who had been told a human wrote it. That is the imitation game being played for money and grades, by people who never chose to be in it, with the vendor now supplying the interrogator's instrument. Whether the watermark works is a separate question and the digest records Anthropic's own disclosed limits; the point here is only that the question "is this a machine" moved from philosophy to a compliance obligation and a product spec in one summer.
Two smaller uses. Turing's second forecast — that "general educated opinion" would shift until one could speak of machines thinking without being contradicted — is the right citation when a reading needs to note how far the vocabulary has drifted while the argument has not. And the paper is the canon's cleanest instance of a forecast made by someone with no stake in the outcome and no product to sell, which makes it a useful floor case when this project grades a vendor's timeline. musk-robotaxi-2019 is the ceiling.
The honest limit. Nothing in this file is evidence. This is an argument about what a question means, not a finding about any system, and a reading may cite it to say what a claim would have to mean and may not cite it to establish that any particular claim is true. The 2026 items above are named as citation occasions; they live in the digests and the ledgers with their own primary links, and are not re-argued or re-deposited here. Nothing here touches the needle.
What it got right, and what it got wrong
Not required for interpretation. Done here under full prediction discipline because Turing supplied all four required parts and it would be a poor canon that graded Musk and Kurzweil and let this one pass.
Claim date: October 1950. The forecast paragraph, verbatim, with one transcription note flagged in Sources:
> I believe that in about fifty years' time it will be possible, to programme > computers, with a storage capacity of about 10⁹, to make them play the > imitation game so well that an average interrogator will not have more than > 70 per cent chance of making the right identification after five minutes of > questioning. The original question, "Can machines think?" I believe to be too > meaningless to deserve discussion. Nevertheless I believe that at the end of > the century the use of words and general educated opinion will have altered > so much that one will be able to speak of machines thinking without expecting > to be contradicted.
That is three claims with one due date. Grade them separately.
Claim 1 — the performance. Due 2000. Missed at the deadline; overshot twenty-five years late. At the due date it was not close. The Loebner Prize, the only sustained attempt to run the experiment, ran from 1991 to 2019 and never awarded its gold medal; the 2000 contest produced nothing resembling the forecast, and between 2009 and 2012 its entrants fooled a judge exactly once, in a year when the human confederate was pretending to be a chatbot. The prize stopped after 2019, three years after Hugh Loebner's death funded it no longer. The most-publicised claim of passage, Eugene Goostman at the Royal Society on 7 June 2014, persuaded 33% of thirty judges and was disputed immediately and correctly: the bot presented as a thirteen-year-old Ukrainian boy writing in a second language, which converts every failure into a plausible excuse, and the event's organiser treated Turing's forecast as a pass mark, which it is not.
The claim came true in a controlled, pre-registered, peer-reviewed experiment run twenty-five years after the deadline. Jones and Bergen tested ELIZA, GPT-4o, LLaMa-3.1-405B and GPT-4.5 in two randomised three-party tests, five minutes per conversation, in the format §5 specifies. GPT-4.5 with a persona prompt was judged the human 73% of the time — more often than the actual humans were — LLaMa-3.1 56%, and the baselines below chance at 21% and 23%. Preprint March 2025; published in PNAS in May 2026 as "Large language models pass a standard three-party Turing test."
The margin is the part nobody states, and it runs the opposite way to the popular gloss. Turing's bar was that the interrogator's success rate fall to 70%. In a three-party test chance is 50%, so a machine meeting Turing's 1950 number is still being caught seven times in ten — his forecast was modest, and it left the human winning. What actually happened is that interrogators identified GPT-4.5 correctly 27% of the time: below chance, and below their success rate against real people. The prediction was not merely fulfilled; it was overshot by a distance that the "30 per cent of judges fooled" paraphrase conceals, because that paraphrase makes 30% sound like a bar cleared rather than a ceiling smashed through. Graded: wrong on the date by about a quarter of a century, and far too conservative on the magnitude. Both errors in the same claim, which is the useful thing about it as a base-rate datum — the common assumption that AI forecasts fail by being too optimistic is not what happened here.
Claim 1a — the storage budget. Wrong by more than three orders of magnitude, and wrong in the direction nobody expects. Turing thought 10⁹ binary digits would do it — about half an Encyclopaedia Britannica, roughly 125 megabytes. Of the systems in the 2025 experiment, only LLaMa-3.1-405B has a published size: 405 billion parameters, which at sixteen-bit weights is about 6.5 × 10¹² bits, some six and a half thousand times Turing's budget, before any account of the training corpus. That system reached 56%, statistically indistinguishable from the humans it was compared against. GPT-4.5's size has not been published and I am not going to estimate it. So the machine that merely drew with humans needed thousands of times the storage Turing thought sufficient to beat them. His §7 remark that "the problem is mainly one of programming" and that engineering advances would be adequate is the exact inversion of what happened: the programming turned out to be comparatively small and the substrate turned out to be nearly everything. This project's compute-and-infrastructure lens exists because of how badly that clause failed.
Claim 1b — the method. Right, and it is the most impressive call in the paper. He costed hand-programming at "about sixty workers, working steadily through the fifty years," said "some more expeditious method seems desirable," and proposed instead a child machine shaped by an education process, with reward and punishment signals adjusting the probability of repeating what preceded them, a random element in the search, an "unemotional" symbolic channel to carry more information than reward alone can, and a teacher "very largely ignorant of quite what is going on inside." That is, in order: learning rather than programming, reinforcement from a signal, stochastic sampling, natural-language instruction as the high-bandwidth training channel, and the interpretability problem. Written in 1950. rlhf-christiano-2017 sits downstream of that paragraph and its file records no ancestor; if it is ever revised, this is the candidate. And his refusal to choose between chess and language — "I think both approaches should be tried" — is the rare forecast that is right because it declined to be a forecast. Both were tried; deep-blue-1997 is one branch and chatgpt-2022 is the other, and the second one is what produced the system that settled his first claim.
Claim 2 — "too meaningless to deserve discussion." Wrong, and he was the main cause. The question has been discussed continuously for seventy-six years, in large part because this paper made it respectable to discuss. A philosopher predicting the death of a question and thereby founding the literature on it is a failure mode worth naming, and it is the same shape as a benchmark designed to retire an argument becoming the argument.
Claim 3 — educated opinion. Due 2000. Half right, and the half that failed is the operative one. The usage did change, further than he imagined: by 2026 "thinking" and "reasoning" are not metaphors in this field but product features, with vendors shipping extended-thinking modes and thinking budgets as purchasable options. What did not happen is the second clause — "without expecting to be contradicted." Contradiction is instant, mainstream and well-armed. Graded: the vocabulary arrived, the consensus did not, and the gap between the two is where most public argument about AI now lives. A reading that wants to explain why "the model decided to" starts a fight can point at the exact sentence where the fight was predicted to be over.
On self-grading, and what this entry lacks. The prediction rules require the predictor's own grade alongside an independent one, on the principle that a base rate built from self-assessments is worthless. Turing died in 1954 and left none, so this entry has no self-grade to set against the record — a gap, and also the reason this forecast is unusually clean evidence. The self-serving grading in this case was done by others: the 2014 Reading event's organiser declaring the test passed on a forecast he had converted into a threshold, in an event he ran, is structurally the Kurzweil problem with the predictor removed. Jones and Bergen, who had no stake in Turing being right, ran the experiment he specified, pre-registered it, published the losses along with the wins and titled their own conclusion "not a direct test of intelligence." Compare the two and the base rate to carry forward is not about Turing at all: a forecast is graded honestly in proportion to the grader's distance from it.
Commonly misused as
Not required for interpretation. Included because this is the most misquoted text in the field's history and because the misuses now have legal and commercial consequences.
- "The Turing test is the criterion for machine intelligence — pass it and the machine thinks." There is no criterion in the paper. Turing states no pass mark, sets no threshold, and defines no success condition; the closest he comes is "satisfactorily" in §5. The 70-per-cent figure appears exactly once, inside a paragraph he introduces with "It will simplify matters for the reader if I explain first my own beliefs in the matter" — it is a forecast about what would be possible by a date, not a bar that confers a property on whatever clears it. Every "the Turing test has been passed, therefore…" argument depends on a conversion the text does not license. Worse, Turing's own view was that the original question was meaningless, so he could not have meant passage to establish thinking; that would be establishing an answer to a question he had just declared unanswerable.
- "He predicted machines would think by 2000." He predicted a performance level and a change in vocabulary. He predicted nothing about thinking, because he had explicitly refused the concept four pages earlier. This is the single most common form in popular coverage and it inverts the paper's thesis.
- "Fools 30 per cent of the judges." The arithmetic survives the paraphrase; the meaning does not. Turing's clause is about the probability that an average interrogator identifies correctly, and it caps that probability at 70% — which means the human is still right most of the time. Rendering it as "30% fooled" makes a modest forecast sound like a finish line and is what allowed a 33% result in 2014 to be reported as passage. This canon's own
proposals.mdanddartmouth-1956use the paraphrase; this entry is the correction and does not edit those files.
- "Passing it proves consciousness / understanding." §6(4) is where Turing handles this and he does not claim it. His argument is that the alternative to the polite convention is solipsism, and he adds in the same section that he does not wish to give the impression there is no mystery about consciousness and does not think it needs solving first. The test is about what can be observed through a teleprinter. Searle's Chinese Room is a reply to a claim Turing did not make in the form usually attributed to him, which is why that argument never terminates.
- "It's only a test of deception, so it measures nothing." This is the fashionable deflation and it is half true in a way that makes it useless. Deception is genuinely built in — §6(5)'s deliberate arithmetic errors, and the 105621 in §2 that enacts them — so anyone pointing this out is agreeing with Turing rather than refuting him. But "measures nothing" does not follow. It measured something specific and unwelcome in 2025: that the deciding variable was self-presentation rather than capability, and that interrogators spent 61% of games on small talk and 50% probing social and emotional qualities rather than testing what the thing could do. That is a finding about human verification behaviour, and it is directly relevant to every deployment where a person is the check on a machine's output.
- "The Turing test is obsolete and has been replaced by benchmarks." Two errors. First, it was never a benchmark; Gonçalves's argument that it is better read as a thought experiment in the Galilean tradition is the careful statement of this, though the case is not clean — §7's sentence about "waiting for the end of the century and then doing the experiment described" says plainly that he expected it to be run, and an entry citing Gonçalves should cite that sentence too. Second, "replaced by benchmarks" is a strange boast in 2026, the year BenchJack found 219 flaws across ten leading agent benchmarks and scored near-perfect on most of them without solving a task, and METR declined to stand behind its own numbers because the model was cheating. The imitation game's weaknesses are visible from the outside; the replacement's weaknesses required a red team to find.
- "Turing's imitation game is about gender, and the standard version is a misreading." A real scholarly dispute, not a crank position. Sterrett argues the §1 man-imitating-woman setup is a distinct and stronger test than the §5 machine-versus-human one; Piccinini, and Copeland and Moor, argue the rest of the paper strongly supports the standard reading and that the literal reading faces severe interpretative difficulties. The standard reading is the scholarly majority and is what Jones and Bergen implemented. A reading has no occasion to take a side; it should just not claim the question is settled by the first two pages, because §5 restates the game without gender and that is the version Turing carries forward.
- "Turing refuted Lady Lovelace." He did not, he was careful about it, and
lovelace-1843§4 covers this in detail including his misdating of her memoir to 1842 and his dropped "whatever." Defer to that file.
- "Gödel's theorem shows machines can't think — as even Turing conceded." He conceded nothing of the kind; objection (3) is where he takes the argument apart, and the reply is that the limitation is proved for machines and only asserted for humans. The Lucas–Penrose literature belongs to
godel-incompleteness-1931, andturing-halting-1936§4 covers the parallel abuse of the halting result. What this entry adds is that the rebuttal is seventy-six years old and was written by the person whose theorem is usually cited alongside Gödel's on the other side.
- The reverse misuse: "nobody serious cares about the Turing test any more." Stated in 2026, this is contradicted by the calendar. The experiment was run and published in PNAS three months before this entry was written; the EU made the undisclosed version of it illegal in August; a frontier lab shipped a watermark whose entire purpose is to end it, and subscribers told a reporter they were cancelling because they wanted to keep playing — a volume the vendor disputes, and the digest records the dispute. The question "is there a person on the other end of this" is now a compliance obligation, a product feature, a consumer grievance and a peer-reviewed result inside a single quarter. The paper is not a museum piece and a reading should not file it as one.
Sources
Primary, read in full at source. A. M. Turing, "Computing Machinery and Intelligence," Mind, Volume LIX, Issue 236, October 1950, pp. 433–460, doi:10.1093/mind/LIX.236.433. Read end to end in the transcription at courses.cs.umbc.edu/471/papers/turing.pdf, the same copy lovelace-1843 used. Every quotation above — the opening sentence, the §1 game and the "these questions replace our original" passage, the §2 specimen transcript, the §5 "one particular digital computer C" formulation, the §6 forecast paragraph, the nine objection titles, the §6(5) deliberate-mistakes instruction, the §6(6) Lovelace material, "Machines take me by surprise with great frequency," the consciousness caveat, and all of the §7 material including the sixty-workers estimate, the child machine, the reward-and-punishment sentence, the ignorant-teacher sentence, the human fallibility remark, the end-of-the-century experiment sentence and the closing line — was read on the page rather than taken from secondary quotation.
Three caveats about that copy, and they matter. First, it is an HTML-derived transcription that has lost superscripts in one place: the forecast paragraph renders "a storage capacity of about 10⁹" as "about 109." I have printed 10⁹. The internal evidence is decisive — §7 of the same file renders "more than 10⁹" and "10¹⁰ to 10¹⁵" with superscripts intact, and 10⁹ against a stated brain range of 10¹⁰–10¹⁵ and a Britannica figure of 2 × 10⁹ is the only reading that parses — but the reader should know the character came from reconstruction. Second, the transcription carries OCR damage elsewhere: "progratiirne" for "programme" in the sixty-workers passage, which I have bracketed rather than silently corrected, plus scattered letter substitutions I have avoided quoting around. Third, its header misprints the citation as "Mind 49: 433-460." The correct volume is LIX, which is 59. The error is not this file's alone; it has propagated into citation databases, several of which return "Mind, 49" for this paper. A canon entry about misquotation should say when its own source is misquoting the source. I did not read the printed Mind volume and did not locate a second independent transcription to cross-check.
The grading — the experiment. Cameron R. Jones and Benjamin K. Bergen, "Large Language Models Pass the Turing Test," arXiv:2503.23674 (31 March 2025), published as "Large language models pass a standard three-party Turing test" in Proceedings of the National Academy of Sciences 123(21), doi:10.1073/pnas.2524472123. The PNAS page returned HTTP 403 and the journal version was not read at source — the same failure ex-machina-2014 records, so this is now a known-unreachable source for this project. The abstract was read at arXiv; the persona-prompt wording ("a young person who is relatively introverted and interested in internet culture"), the no-persona rates (GPT-4.5 36%, LLaMa 38%), the interrogator-strategy figures (61% small talk, 50% social and emotional probing) and the "not a direct test of intelligence, but a test of humanlikeness" sentence were read in the ar5iv rendering of the preprint. The received/accepted/published dates (16 September 2025 / 27 March 2026 / 19–20 May 2026) and the 1,023-game, 284-participant design come from secondary coverage including News-Medical's 20 May 2026 write-up, not from the journal page; the 284 figure agrees with what ex-machina-2014 independently recorded. That coverage also mentions a 205-participant replication I could not corroborate and have therefore not used. A widely repeated gloss I have deliberately not printed: several outlets describe the persona prompt as instructing the model to "embrace human fallibility, tone and humor." The preprint's own description of the prompt does not say that. The embellishment matters here because it would have made my section 2 argument stronger and it is not supported, so section 2 argues the weaker, checkable version instead.
The grading — what happened at the deadline. The Loebner Prize's history (1991–2019, gold medal never awarded, the 2009–2012 drought, the 2019 Swansea final, discontinuation after Hugh Loebner's death on 4 December 2016) is from search results and encyclopaedic sources, not read at a primary source; treat the 2009–2012 detail in particular as secondary. Stuart Shieber's "Lessons from a Restricted Turing Test" (arXiv:cmp-lg/9404002) surfaced and was not read. On Eugene Goostman (7 June 2014, Royal Society, 33% of thirty judges, University of Reading): the event and the criticisms — the second-language and child persona functioning as an excuse, the five-minute limit, the organiser's conversion of a forecast into a pass mark — are from Wikipedia and contemporaneous critical coverage including Stevan Harnad's "No, the Turing Test has not been passed" and Scott Aaronson's transcript, known here through search-result summaries rather than read in full.
The interpretation literature. Bernardo Gonçalves, "The Turing Test is a Thought Experiment," Minds and Machines 33:1 (2023), 1–31 — abstract read via search; the article itself was not read (Springer redirected to authentication), so the characterisation above is of its stated thesis. His "In Defense of the Turing Test and its Legacy" (arXiv:2511.20699, 24 November 2025) was fetched and returned only a one-sentence abstract; it is named as live counter-literature and nothing above depends on it. The Sterrett–Piccinini dispute (Sterrett, "The Genius of the 'Original Imitation Game' Test," Minds and Machines; Piccinini, "Turing's Rules for the Imitation Game," Minds and Machines; Copeland and Moor on the standard reading) is known through search results only, no paper read, and is presented above as an unsettled question rather than adjudicated.
The arithmetic slip. That 34957 + 70764 = 105721 rather than the printed 105621 is checkable arithmetic. That the error is deliberate rather than a typesetting fault is an interpretation, supported by §6(5)'s explicit strategy statement, which I read at source, and by secondary discussion including IEEE Spectrum's "Why Alan Turing Wanted AI Agents to Make Mistakes", not read in full. Some sources treat it as a misprint. I have stated the deliberate reading as the better-supported one and flag that it is a reading.
Not consulted, and it would have helped. Turing's 1948 NPL report Intelligent Machinery; Copeland's The Essential Turing; Hodges's biography; Jefferson's 1949 Lister Oration in the original; Hartree's Calculating Instruments and Machines (1949), which Turing quotes in §6(6); and the printed Mind volume. A later session with those to hand should check the Jefferson quotation and the Hartree passage at source, and should write intelligent-machinery-1948, which three entries in this canon now point at and none can cite.
On the project's own record. The 2026 items in sections 2 and 4 — the sandbagging-recovery result (2026-04-23), Natural Language Autoencoders and unverbalized evaluation awareness (2026-05-07), BenchJack (2026-05-12), the Baek and Tegmark evaluation-awareness paper (2026-06-07), METR on GPT-5.6 Sol (2026-06-26), Anthropic's August risk report and its measurement caveats, the EU AI Act Article 50 transparency obligations in force 2 August 2026, and the Claude text watermark and the subscriber cancellations reported 15 August 2026 — are read from this project's own ledgers under history/genesis/ and from digests/2026-08-15-12.md and digests/2026-08-16-00.md, where they carry their own primary links. They are named here as citation occasions only. This file deposits nothing in the ledger, grades no system, places no needle, and is not evidence for anything.