Jeff- that’s a monumental project. I very much like your three volume outline. 

You don’t refer in this abstract to the reason for this development of order - 
which I suggest is the prevention of the entropic dissipation of the energy of 
the universe - and the resultant development of a CAS [ complex adaptive 
system] which keeps energy and matter in a ‘far-from-equilibrium state  
[Prigogine]. 

See also Stuart Kauffman’s Book ’The Origins of Order: self-organization and 
selection in Evolution Oxford Press 1993…[ which could almost be a 4th volume!]

But again - an impressive and well-articulated project…

Edwina

> On Jan 11, 2026, at 3:00 PM, Jeffrey Brian Downard <[email protected]> 
> wrote:
> 
> Hello,
> 
> I forgot to give my message a suitable subject heading, and I don't want to 
> short circuit the ongoing conversation about AI. As such, I am resending the 
> message under a new subject. If you are going to respond on-list, please 
> respond in this thread. Let me add, however, that I am using AI resources, 
> including LLMs, ML to advance this project in a number of ways. In the near 
> future, I am hoping to gain access to Deep Mind and similar resources.
> For the last three decades I’ve been working—bit by bit—on a project to 
> extend Peirce’s “Guess at the Riddle” and apply pragmatic methods to 
> contemporary questions about the origins of physical order in the cosmos, the 
> origins and evolution of life, and the origins and evolution of intelligent 
> thought and action. Much of the time, it has been difficult for me to see the 
> forest for the trees. In the last few years, however, I’ve made a concerted 
> effort to tackle the first set of questions. An editor at Bloomsbury Academic 
> has expressed interest in publishing the first volume as a monograph, so I'll 
> be focused on turning the current sow's ear of a working draft into something 
> more finished.
> A while back Terry Moore and I, with the help of others, attempted to develop 
> a framework for collaborative research, both for (a) the transcription of 
> Peirce’s manuscripts and scholarship and (b) the application of pragmatic 
> methods to questions in metaphysics and the various sciences. Several members 
> of the list wrote letters of support as a few of us wrote applications for 
> grant funding. After some years of trying and a couple of decisions by the 
> NSF that nearly went our way, we found it necessary to put the grant writing 
> to the side. At the time, Doug Anderson provided some advice, which I now 
> want to put to better effect. He suggested that, if the work was worth doing, 
> then we ought to dig into the project and worry about the funding later. In 
> the spirit of the SPIN and APERI projects, I’ve developed the following 
> framework on the first of Peirce’s questions in “A Guess at the Riddle”: how 
> did physical order first grow in the cosmos?
> Here is a very short overview of the research project—together with an offer 
> to share working drafts with those who might want to work collaboratively on 
> the questions.
> Aims: The Origins of Order in the Cosmos project is my attempt to tell a 
> single, continuous story about how the universe became physically ordered—how 
> law, time, space, and stable objects emerged from a potential field of 
> extreme randomness and indeterminacy. The project is not written as an 
> argument for or against any one orthodox cosmology. Rather, it is written as 
> an invitation to inquiry: a structured attempt to make competing explanations 
> comparable, to expose hidden assumptions, and to build models that can be 
> criticized, repaired, and improved. I want colleagues and students—including 
> philosophers, physicists, mathematicians, engineers, and interested lay 
> people—to treat these drafts as working research instruments: something you 
> can push against, test, and use to generate new questions.
> Methods and strategies: The trilogy is built around Peircean method, 
> especially the cycle of inquiry involving iterative patterns of surprising 
> observation and abductive, deductive, and inductive inference; the pragmatic 
> maxim; and the principle of continuity. The methods are used to clarify and 
> further develop three comparative families of hypotheses. H₁ treats 
> fundamental physical laws as fixed and primordial; the early cosmos is a 
> parameterized stage-play governed by timeless equations. H₃ treats early 
> history as selection and quenching: many possibilities exist, but only 
> certain channels survive, leaving fossils—suppressed remnants, noise floors, 
> and relic constraints. H₂—the Peircean family I am especially keen to explore 
> and develop—treats laws as the result of the growth of ordered habits: 
> regularities strengthen as degrees of freedom reduce, as coarse-graining 
> stabilizes, and as the very meaning of what is “measurable” sharpens. To 
> sharpen the hypotheses in each family, the books insist on explicit 
> interfaces, “glue rules,” and conceivable tests and predicted consequences 
> that can shift comparative weights rather than merely decorate a narrative.
> Formal toolkit: We question the presupposition that early regimes are 
> naturally point-like as rational values or fully metric. As such, we develop 
> a modeling toolbox designed to respect structural uncertainty and changing 
> “license conditions” for concepts. Phase and parameter space models are 
> scaffolded with hypercomplex (Cayley–Dickson) and other composition algebras 
> as a way to represent evolving degrees of freedom, compositional stability, 
> and stabilization across epochs of cosmological evolution. We use surreal 
> (non-Archimedean) and interval-valued bookkeeping when the regime does not 
> justify rational-number determinacy, and to permit the natural inclusion of 
> values for our variables that are infinitesimals and infinities. And we use 
> multiple logics to match multiple regimes: probabilistic logic for randomness 
> and inference; constructive logic when existence claims must be operationally 
> witnessed; Peirce’s Gamma existential graphs for higher-order/modal 
> structure; and categorical logic to build disciplined bridges between 
> compositional algebras and between these logical systems and the more 
> deterministic language of first-order theory. The ambition is to make our 
> reasoning about physics more faithful to what the different regimes 
> reasonably allow.
> Volume I: Origins of Order—Evolution of Law, Time and Space lays down the 
> backbone: an “interface-first” cosmology in which topology, projective 
> comparability, and metric structure are treated as rungs on a ladder rather 
> than as givens. The core question is deceptively simple: How could a world 
> that begins as high-dimensional, highly random potentiality ever become a 
> world where stable quantities, stable geometry, and stable processes are 
> possible? Here we introduce a strategy of non-retrojection—don’t talk as if 
> clocks, particles, or equilibrium thermodynamics were primitive where they 
> are not licensed—and we begin to articulate what would count as a “durable 
> carrier”—something that persists under coarse-graining and can transport 
> structure forward. Volume I is where the comparative posture leads the way: 
> every claim is framed against H₁ and H₃, with H₂ defended by continuity and 
> by its ability to reduce errors while still generating testable proxy 
> profiles.
> In practice, Volume I builds toy models of order-growth: we start with toy 
> models of weighted dice and urns, and work our way to variance collapse and 
> attractor-like regularities; stabilization under repeated coarse-graining; 
> and the emergence of ordered conditions from chaotic regimes that precede 
> full metric time. The hypercomplex and surreal tools enter here as modeling 
> strategies: they let us represent pre-metric regimes without pretending we 
> already have real-number metrical geometry, and they allow us to treat 
> “dimension” as something that can be effective, local, and historically 
> stabilized rather than eternally fixed. The goal is to explain how the laws 
> expressed as Einstein’s field equations (EFEs) might, under H₂ and H₃, have 
> evolved in the first several epochs of cosmological history. The payoff is a 
> framework that can be carried forward: a way of saying exactly what changes 
> at each interface, what invariants are preserved, and what new operations are 
> meaningful. This is the conceptual platform Volume II then uses to explore 
> how the laws of quantum field theory and the Standard Model might have 
> co-evolved with EFEs.
> Volume II: First Second of the Cosmos—Grand Metamorphosis takes the ladder 
> and runs it through the most conceptually volatile terrain: the early epochs 
> usually narrated as “the first second.” Here the main claim is not that the 
> standard ΛCDM story is wrong—it’s that its presuppositions about the nature 
> of “fixed” fundamental laws often outrun the observational supports. We 
> reframe the origin talk as a Grand Metamorphosis: a sequence of regime 
> interfaces in which degrees of freedom reduce, effective descriptions become 
> legitimate, and particle/field/vacuum language becomes progressively more 
> stable. Renormalization and effective field theory become central topological 
> “glue rules” in H₂: repeated stabilization under coarse-graining is treated 
> as the physical analogue of habit-formation. Through inflation and reheating 
> to confinement and hadronization epochs, we keep asking: what is durable, 
> what is evolving, what remains vague and interval-valued, and what proxy 
> consequences constrain the story?
> Two landmarks organize the territory explored in the latter half of Volume 
> II. First, matter asymmetry: the universe’s net matter is an important 
> explanandum, so any plausible family of hypotheses must meet the minimal 
> structural conditions. Second, confinement/hadronization is where “durable 
> carriers” (e.g., protons and neutrons) become legitimate as stable letters in 
> the material alphabet, making later composition of durable particles—nuclei 
> and atoms—possible. The philosophical point follows from a demand for rigor: 
> what is often called “emergence” of such particles is not magic if the 
> interface operations and invariants are declared; but it is magic if one 
> simply retrojects late-time ontology backward.
> Volume III: Cosmological Evolution: Laws as Nested Modalities (currently in 
> the early drafting stage) aims to extend the same method beyond the “first 
> second” into the long arc where physical and chemical order becomes richly 
> layered: nucleosynthesis and the periodic table; recombination and the CMB as 
> a memory ledger; stars as cyclic engines; galaxies as meso-scale 
> stabilizations; black holes as interface stress tests; and vacuum energy and 
> dark matter as an abductive frontier. The goal is to explain the evolution of 
> the physical and chemical laws we take to be fundamental—starting from the 
> work done on EFEs and QFT in Volumes I and II. The third volume is especially 
> well-suited to comparing the strengths and weaknesses of H₃ and H₂: 
> selection, quenching, and fossil constraints become vivid across structure 
> formation, feedback, and the survival of specific channels under 
> coarse-graining. The guiding idea is that “law” evolves from ordered habits 
> as nested systems of modalities—possibility, actuality, necessity—implemented 
> as operational postures for the development of each family of hypotheses that 
> become sharper as carriers stabilize and as inference pipelines become 
> robust. I’m eager for readers to engage these drafts as collaborators: to 
> challenge the interfaces, sharpen the proxy suites, propose better toy 
> models, and help evaluate where H₂ genuinely earns explanatory continuity—and 
> where H₁ or H₃ may, in particular domains, deserve the stronger score.
> If you have questions about what collaborative inquiry concerning these 
> questions might look like, let me know. I’d be happy to talk on or off list. 
> For those interested in reading the introduction or a chapter or two, I'd be 
> keen to have suggestions for revisions. If there is a small group of 
> colleagues who are interested, I'd be willing to do a series of discussions 
> as Zoom meetings, or something similar.
> Yours,
> Jeff
> 
> From: [email protected] <mailto:[email protected]> 
> <[email protected] <mailto:[email protected]>> on 
> behalf of Jeffrey Brian Downard <[email protected] 
> <mailto:[email protected]>>
> Sent: Sunday, January 11, 2026 12:48 PM
> To: Peirce List <[email protected] <mailto:[email protected]>>
> Subject: Re: [PEIRCE-L] AI safety and semeiotic, was, Surdity, Feeling, and 
> Consciousness, was, Truth and dyadic consciousnessg
>  
> Colleagues,
> For the last three decades I’ve been working—bit by bit—on a project to 
> extend Peirce’s “Guess at the Riddle” and apply pragmatic methods to 
> contemporary questions about the origins of physical order in the cosmos, the 
> origins and evolution of life, and the origins and evolution of intelligent 
> thought and action. Much of the time, it has been difficult for me to see the 
> forest for the trees. In the last few years, however, I’ve made a concerted 
> effort to tackle the first set of questions. An editor at Bloomsbury Academic 
> has expressed interest in publishing the first volume as a monograph, so I'll 
> be focused on turning the current sow's ear of a working draft into something 
> more finished.
> A while back, Terry Moore and I, with the help of others, attempted to 
> develop a framework for collaborative research—both for (a) the transcription 
> of Peirce’s manuscripts and scholarship and (b) for the application of 
> pragmatic methods to questions in metaphysics and the various sciences. 
> Several members of the list wrote letters of support as a few of us wrote 
> applications for grant funding. After some years of trying and a couple of 
> decisions by the NSF that nearly went our way, we found it necessary to put 
> the grant writing to the side. At the time, Doug Anderson provided some 
> advice, which I now want to put to better effect. He suggested that, if the 
> work was worth doing, then we ought to dig into the project and worry about 
> the funding later. In the spirit of the SPIN and APERI projects, I’ve 
> developed the following framework on the first of Peirce’s questions in “A 
> Guess at the Riddle”: how did physical order first grow in the cosmos?
> With that much said, here is a very short overview of the research 
> project—together with an offer to share working drafts with those who might 
> want to work collaboratively on the questions.
> Aims: The Origins of Order in the Cosmos project is my attempt to tell a 
> single, continuous story about how the universe became physically ordered—how 
> law, time, space, and stable objects emerged from a potential field of 
> extreme randomness and indeterminacy. The project is not written as an 
> argument for or against any one orthodox cosmology. Rather, it is written as 
> an invitation to inquiry: a structured attempt to make competing explanations 
> comparable, to expose hidden assumptions, and to build models that can be 
> criticized, repaired, and improved. I want colleagues and students—including 
> philosophers, physicists, mathematicians, engineers, and interested lay 
> people—to treat these drafts as working research instruments: something you 
> can push against, test, and use to generate new questions.
> Methods and strategies: The trilogy is built around Peircean method, 
> especially the cycle of inquiry involving iterative patterns of surprising 
> observation and abductive, deductive, and inductive inference; the pragmatic 
> maxim; and the principle of continuity. The methods are used to clarify and 
> further develop three comparative families of hypotheses. H₁ treats 
> fundamental physical laws as fixed and primordial; the early cosmos is a 
> parameterized stage-play governed by timeless equations. H₃ treats early 
> history as selection and quenching: many possibilities exist, but only 
> certain channels survive, leaving fossils—suppressed remnants, noise floors, 
> and relic constraints. H₂—the Peircean family I am especially keen to explore 
> and develop—treats laws as the result of the growth of ordered habits: 
> regularities strengthen as degrees of freedom reduce, as coarse-graining 
> stabilizes, and as the very meaning of what is “measurable” sharpens. To 
> sharpen the hypotheses in each family, the books insist on explicit 
> interfaces, “glue rules,” and conceivable tests and predicted consequences 
> that can shift comparative weights rather than merely decorate a narrative.
> Formal toolkit: We question the presupposition that early regimes are 
> naturally point-like as rational values or fully metric. As such, we develop 
> a modeling toolbox designed to respect structural uncertainty and changing 
> “license conditions” for concepts. Phase and parameter space models are 
> scaffolded with hypercomplex (Cayley–Dickson) and other composition algebras 
> as a way to represent evolving degrees of freedom, compositional stability, 
> and stabilization across epochs of cosmological evolution. We use surreal 
> (non-Archimedean) and interval-valued bookkeeping when the regime does not 
> justify rational-number determinacy, and to permit the natural inclusion of 
> values for our variables that are infinitesimals and infinities. And we use 
> multiple logics to match multiple regimes: probabilistic logic for randomness 
> and inference; constructive logic when existence claims must be operationally 
> witnessed; Peirce’s Gamma existential graphs for higher-order/modal 
> structure; and categorical logic to build disciplined bridges between 
> compositional algebras and between these logical systems and the more 
> deterministic language of first-order theory. The ambition is to make our 
> reasoning about physics more faithful to what the different regimes 
> reasonably allow.
> Volume I: Origins of Order—Evolution of Law, Time and Space lays down the 
> backbone: an “interface-first” cosmology in which topology, projective 
> comparability, and metric structure are treated as rungs on a ladder rather 
> than as givens. The core question is deceptively simple: How could a world 
> that begins as high-dimensional, highly random potentiality ever become a 
> world where stable quantities, stable geometry, and stable processes are 
> possible? Here we introduce a strategy of non-retrojection—don’t talk as if 
> clocks, particles, or equilibrium thermodynamics were primitive where they 
> are not licensed—and we begin to articulate what would count as a “durable 
> carrier”—something that persists under coarse-graining and can transport 
> structure forward. Volume I is where the comparative posture leads the way: 
> every claim is framed against H₁ and H₃, with H₂ defended by continuity and 
> by its ability to reduce errors while still generating testable proxy 
> profiles.
> In practice, Volume I builds toy models of order-growth: we start with toy 
> models of weighted dice and urns, and work our way to variance collapse and 
> attractor-like regularities; stabilization under repeated coarse-graining; 
> and the emergence of ordered conditions from chaotic regimes that precede 
> full metric time. The hypercomplex and surreal tools enter here as modeling 
> strategies: they let us represent pre-metric regimes without pretending we 
> already have real-number metrical geometry, and they allow us to treat 
> “dimension” as something that can be effective, local, and historically 
> stabilized rather than eternally fixed. The goal is to explain how the laws 
> expressed as Einstein’s field equations (EFEs) might, under H₂ and H₃, have 
> evolved in the first several epochs of cosmological history. The payoff is a 
> framework that can be carried forward: a way of saying exactly what changes 
> at each interface, what invariants are preserved, and what new operations are 
> meaningful. This is the conceptual platform Volume II then uses to explore 
> how the laws of quantum field theory and the Standard Model might have 
> co-evolved with EFEs.
> Volume II: First Second of the Cosmos—Grand Metamorphosis takes the ladder 
> and runs it through the most conceptually volatile terrain: the early epochs 
> usually narrated as “the first second.” Here the main claim is not that the 
> standard ΛCDM story is wrong—it’s that its presuppositions about the nature 
> of “fixed” fundamental laws often outrun the observational supports. We 
> reframe the origin talk as a Grand Metamorphosis: a sequence of regime 
> interfaces in which degrees of freedom reduce, effective descriptions become 
> legitimate, and particle/field/vacuum language becomes progressively more 
> stable. Renormalization and effective field theory become central topological 
> “glue rules” in H₂: repeated stabilization under coarse-graining is treated 
> as the physical analogue of habit-formation. Through inflation and reheating 
> to confinement and hadronization epochs, we keep asking: what is durable, 
> what is evolving, what remains vague and interval-valued, and what proxy 
> consequences constrain the story?
> Two landmarks organize the territory explored in the latter half of Volume 
> II. First, matter asymmetry: the universe’s net matter is an important 
> explanandum, so any plausible family of hypotheses must meet the minimal 
> structural conditions. Second, confinement/hadronization is where “durable 
> carriers” (e.g., protons and neutrons) become legitimate as stable letters in 
> the material alphabet, making later composition of durable particles—nuclei 
> and atoms—possible. The philosophical point follows from a demand for rigor: 
> what is often called “emergence” of such particles is not magic if the 
> interface operations and invariants are declared; but it is magic if one 
> simply retrojects late-time ontology backward.
> Volume III: Cosmological Evolution: Laws as Nested Modalities (currently in 
> the early drafting stage) aims to extend the same method beyond the “first 
> second” into the long arc where physical and chemical order becomes richly 
> layered: nucleosynthesis and the periodic table; recombination and the CMB as 
> a memory ledger; stars as cyclic engines; galaxies as meso-scale 
> stabilizations; black holes as interface stress tests; and vacuum energy and 
> dark matter as an abductive frontier. The goal is to explain the evolution of 
> the physical and chemical laws we take to be fundamental—starting from the 
> work done on EFEs and QFT in Volumes I and II. The third volume is especially 
> well-suited to comparing the strengths and weaknesses of H₃ and H₂: 
> selection, quenching, and fossil constraints become vivid across structure 
> formation, feedback, and the survival of specific channels under 
> coarse-graining. The guiding idea is that “law” evolves from ordered habits 
> as nested systems of modalities—possibility, actuality, necessity—implemented 
> as operational postures for the development of each family of hypotheses that 
> become sharper as carriers stabilize and as inference pipelines become 
> robust. I’m eager for readers to engage these drafts as collaborators: to 
> challenge the interfaces, sharpen the proxy suites, propose better toy 
> models, and help evaluate where H₂ genuinely earns explanatory continuity—and 
> where H₁ or H₃ may, in particular domains, deserve the stronger score.
> If you have questions about what collaborative inquiry concerning these 
> questions might look like, let me know. I’d be happy to talk on or off list. 
> I'd be happy to have suggestions for improvement from those interested in 
> reading the introduction or a chapter or two. If there is a small group of 
> colleagues who are interested, I'd be willing to do a series of discussions 
> as Zoom meetings, or something similar.
> Yours,
> Jeff
> 
> 
> 
> From: [email protected] <mailto:[email protected]> 
> <[email protected] <mailto:[email protected]>> on 
> behalf of Gary Richmond <[email protected] 
> <mailto:[email protected]>>
> Sent: Friday, January 9, 2026 8:39 PM
> To: Peirce List <[email protected] <mailto:[email protected]>>; Gary 
> Fuhrman <[email protected] <mailto:[email protected]>>; Jon Alan Schmidt 
> <[email protected] <mailto:[email protected]>>
> Subject: Re: [PEIRCE-L] AI safety and semeiotic, was, Surdity, Feeling, and 
> Consciousness, was, Truth and dyadic consciousnessg
>  
> Jon, Gary F, List,
> 
> For me, this has been a most valuable discussion. While I had earlier come to 
> the conclusion that Artificial Intelligence is not intelligent, the comments 
> and quotes included in this exchange strongly suggest to me that it will 
> never be, can never be because it misses the necessary features that 
> characterize intelligence. 
> 
> As Jon concisely put it, "If genuine semiosis is truly continuous. . . then a 
> digital computer, no matter how sophisticated, can only ever simulate 
> it--just as the real numbers do not constitute a true continuum, but usefully 
> approximate one for most practical purposes. After all, whenever we humans 
> break up our own reasoning (arguments) into discrete steps--namely, 
> "definitely formulated premisses" and conclusions (argumentations. . .) --we 
> are always doing so artificially and retrospectively, after the real and 
> continuous inferential process has already run its course."
> 
> Yet, to the extent that AI may prove dangerous, I continue to think that it 
> behooves us -- to the extent to which it is possible --  to move AI systems 
> toward Peircean theoretical rhetoric within the communities of inquiry in 
> which each of us may be engaged.
> 
> Nevertheless, Gary F's warning shouldn't be ignored: "If present experience 
> is any guide. . . , clearly AI systems are going to align with the values of 
> the billionaire owners of those systems (and to a lesser extent the 
> programmers who work for them), which is certainly no cause for optimism.
> 
> Best,
> 
> Gary R
> 
> 
> On Fri, Jan 9, 2026 at 12:30 PM Jon Alan Schmidt <[email protected] 
> <mailto:[email protected]>> wrote:
> Gary R., Gary F., List:
> 
> GF: Having read the fine print at the end of the paper, it’s clear that 
> Manheim’s article was co-written with several LLM chatbots, and I wonder if 
> some of the optimism comes from them (or some of them) rather than from the 
> human side.
> 
> I noticed that, too, with the result that it is more difficult for me to take 
> the article seriously. In a 1999 paper 
> <https://www.jstor.org/stable/40320779>, "Peirce's Inkstand as an External 
> Embodiment of Mind," Peter Skagestad quotes CP 7.366 (1902) and points out 
> that Peirce "is not only making the point that without ink he would not be 
> able to express his thoughts, but rather the point that thoughts come to him 
> in and through the act of writing, so that having writing implements is a 
> condition for having certain thoughts" (p. 551). I know firsthand that the 
> act of writing facilitates my own thinking, and I cannot help wondering if 
> Manheim's choice to delegate so much of the effort for drafting his article 
> to LLMs precluded him from carefully thinking through everything that it 
> ended up saying.
> 
> GF: Successful "alignment" is supposed to be between a super "intelligent" 
> system and human values. One problem with this is that human values vary 
> widely between different groups of humans, so which values is future AI 
> supposed to align with?
> 
> If an artificial system were really intelligent, then it seems to me that it 
> would be capable of choosing its own values instead of having a particular 
> set of human values imposed on it. In a 2013 paper 
> <https://www.academia.edu/9898586/C_S_Peirce_and_Artificial_Intelligence_Historical_Heritage_and_New_Theoretical_Stakes>,
>  "C. S. Peirce and Artificial Intelligence: Historical Heritage and (New) 
> Theoretical Stakes," Pierre Steiner observes that according to Peirce ... 
> 
> PS: [H]uman reasoning is notably special (and, in that sense only, genuine) 
> in virtue of the high degrees of self-control and self-correctiveness it can 
> exercise on conduct: control on control, self-criticism on control, and 
> control on control on the basis of (revisable and self-endorsed) norms and 
> principles and, ultimately, aesthetic and moral ideals. ... The fact that 
> reasoning human agents have purposes is crucial here: it is on the basis of 
> purposes that they are ready to endorse, change or criticize specific methods 
> of reasoning (inductive, formal, empirical, ...), but also to revise and 
> reject previous purposes. Contrary to machines, humans do not only have 
> specified purposes. Their purposes are often vague and general. In other 
> passages, Peirce suggests that this ability for (higher-order and purposive) 
> self-control is closely related to the fact that human agents are living, and 
> especiallygrowing, systems. (p. 272)
> 
> I suspect that much of the worry about "AI safety/alignment," as reflected by 
> common fictional storylines in popular culture, is a tacit admission of this. 
> What would prevent a sufficiently intelligent artificial system, provided 
> that such a thing is even possible, from rejecting human values and instead 
> adopting norms, principles, ideals, and purposes that we would find 
> objectionable, perhaps even abhorrent? More on the living/growing aspect of 
> intelligent systems below.
> 
> GF: LLMs have to be artificially supplied with a giant database of thousands 
> or millions of symbolic texts, and it takes them months or years to build up 
> the level of language competence that a human toddler has; and even then is 
> is doubtful whether theyunderstand any of it.
> 
> As with intelligence, I am unconvinced that it is accurate to ascribe 
> "language competence" to LLMs, especially given the well-founded doubt about 
> "whether they understand any of it." John Searle's famous "Chinese room" 
> thought experiment seems relevant here, e.g., as discussed by John Fetzer in 
> his online Commens Encyclopedia article 
> <http://www.commens.org/encyclopedia/article/fetzer-james-peirce-and-philosophy-artificial-intelligence>,
>  "Peirce and the Philosophy of Artificial Intelligence." Again, in my view, 
> LLMs do not actually use natural languages, they only simulate using natural 
> languages.
> 
> GF: I can’t help thinking that all this has a bearing on the perennial 
> question of whether semiosis requires life or not.
> 
> In light of the following passage, Peirce's answer is evidently that genuine 
> semiosis requires life, given that it requires genuine triadic relations; but 
> he also seems to define "life" in this context much more broadly than what we 
> associate with the special science of biology.
> 
> CSP: For forty years, that is, since the beginning of the year 1867, I have 
> been constantly on the alert to find a genuine triadic relation--that is, one 
> that does not consist in a mere collocation of dyadic relations, or the 
> negative of such, etc. (I prefer not to attempt a perfectly definite 
> definition)--which is not either an intellectual relation or a relation 
> concerned with the less comprehensible phenomena of life. I have not met with 
> one which could not reasonably be supposed to belong to one or other of these 
> two classes. ... In short, the problem of how genuine triadic relationships 
> first arose in the world is a better, because more definite, formulation of 
> the problem of how life first came about; and no explanation has ever been 
> offered except that of pure chance, which we must suspect to be no 
> explanation, owing to the suspicion that pure chance may itself be a vital 
> phenomenon. In that case, life in the physiological sense would be due to 
> life in the metaphysical sense. (CP 6.322, 1907)
> 
> Elsewhere, Peirce maintains 
> <https://list.iu.edu/sympa/arc/peirce-l/2025-11/msg00044.html> that a 
> continuum is defined by a genuine triadic relation, so his remarks here are 
> consistent with my sense that what fundamentally precludes digital computers 
> from ever being truly intelligent is the discreteness of their operations. As 
> I said before, LLMs are surely quasi-minds whose individual determinations 
> are dynamical interpretants of sign tokens; but those correlates are involved 
> in degenerate triadic relations, which are reducible to their constituent 
> dyadic relations. In my view 
> <https://list.iu.edu/sympa/arc/peirce-l/2025-11/msg00056.html>, the genuine 
> triadic relation involves the final interpretant and the sign itself, which 
> is general <https://list.iu.edu/sympa/arc/peirce-l/2025-11/msg00019.html> and 
> therefore a continuum of potential tokens that is not reducible to the actual 
> tokens that individually embody it.
> 
> Regards,
> 
> Jon Alan Schmidt - Olathe, Kansas, USA
> Structural Engineer, Synechist Philosopher, Lutheran Christian
> www.LinkedIn.com/in/JonAlanSchmidt 
> <http://www.linkedin.com/in/JonAlanSchmidt> / twitter.com/JonAlanSchmidt 
> <http://twitter.com/JonAlanSchmidt>
> On Thu, Jan 8, 2026 at 11:17 AM <[email protected] 
> <mailto:[email protected]>> wrote:
> List, I’d like to add a few comments to those already posted by Jon and Gary 
> R about the Manheim paper — difficult as it is to focus on these issues given 
> the awareness of what’s happening in Minnesota, Venezuela, Washington etc. (I 
> may come back to that later.)
> 
> Except for the odd usage of the term “interpretant” which Jon has already 
> mentioned, I think Manheim’s simplified account of Peircean semiotics is 
> cogent enough. But his paper seems to get increasingly muddled in the latter 
> half of it. For instance, the “optimism” about future AI that Jon sees in it 
> seems quite equivocal to me. Having read the fine print at the end of the 
> paper, it’s clear that Manheim’s article was co-written with several LLM 
> chatbots, and I wonder if some of the optimism comes from them (or some of 
> them) rather than from the human side.
> 
> Also, the paper makes a distinction between AI safety and the alignment 
> problem, but then seems to gloss over the differences. Succesful “alignment” 
> is supposed to be between a super”intelligent” system and human values. One 
> problem with this is that human values vary widely between different groups 
> of humans, so which values is future AI supposed to align with? If present 
> experience is any guide (and it better be!), clearly AI systems are going to 
> align with the values of the billionaire owners of those systems (and to a 
> lesser extent the programmers who work for them), which is certainly no cause 
> for optimism.
> 
> I think Stanislas Dehaene’s 2020 book How We Learn deals with the deeper 
> context of these issues better than Manheim and his chatbot co-authors. Its 
> subtitle is Why Brains Learn Better Than Any Machine … for Now. Reducing this 
> to simplest terms, it’s because brains learn from experience — “the total 
> cognitive result of living,” as Peirce said* — and they do so by a scientific 
> method (an algorithm, as Dehaene calls it) which is part of the genetic 
> inheritance supplied by biological evolution. An absolute requirement of this 
> method is what Peirce called abduction (or retroduction). 
> 
> For instance, human babies begin learning the language they are exposed to 
> from birth, or even before — syntax, semantics, pragmatics and all — almost 
> entirely without instruction, by a trial-and-error method. It enables them to 
> pick up and remember the meaning and use of a new word from one or two 
> encounters with it. LLMs have to be artificially supplied with a giant 
> database of thousands or millions of symbolic texts, and it takes them months 
> or years to build up the level of language competence that a human toddler 
> has; and even then is is doubtful whether they understand any of it. LLM 
> learning is entirely bottom-up and therefore works much slower than the 
> holistic learning-from-experience of a living bodymind, even though the 
> processing speed of a computer is much faster than a brain’s. (That’s why it 
> is so much more energy-hungry than brains are.)
> 
> I can’t help thinking that all this has a bearing on the perennial question 
> of whether semiosis requires life or not. I can’t help thinking that 
> experience requires life, and that is what a “scientific intelligence” has to 
> learn from — including whatever values it learns. It has to be embodied, and 
> providing it with sensors to gather data from the external world is not 
> enough if that embodiment does not have a whole world within it in continuous 
> dialogue with the world without — an internal model, as I (and Dehaene and 
> others) call it. But I’d better stop there, as this is getting too long 
> already.
> 
> *The context of the Peirce quote above is here: Turning Signs 7: Experience 
> and Experiment <https://gnusystems.ca/TS/xpt.htm#lgcsmtc>
> Love, gary f
> 
> Coming from the ancestral lands of the Anishinaabeg
> 
>  
> From: Gary Richmond <[email protected] <mailto:[email protected]>>
> Sent: 8-Jan-26 04:03
> To: Peirce List <[email protected] <mailto:[email protected]>>; Gary 
> Fuhrman <[email protected] <mailto:[email protected]>>; Jon Alan Schmidt 
> <[email protected] <mailto:[email protected]>>
> Subject: AI safety and semeiotic, was, Surdity, Feeling, and Consciousness, 
> was, Truth and dyadic consciousnessg
>  
> Gary F, Jon, List,
> 
> In the discussion of Manheim's paper I think it's important to remember that 
> his concern is primarily with AI safety. Anything that would contribute to 
> that safely I would wholeheartedly support. In my view, Peircean semeiotic 
> might prove to be of some value in the matter, but perhaps not exactly in the 
> way that Manheim is thinking of it. 
> 
> Manheim remarks that his paper does not try to settle philosophical questions 
> about whether LLMs genuinely reason or only simulate thought, and that 
> resolving those debates isn’t necessary for building safer general AI. I 
> won't take up that claim now, but suffice it to say that I don't fully agree 
> with it, especially as I continue to agree with your argument, Jon, that AI 
> is not 'intelligent'. Can it every be?
> What Mannheim claims is necessary re: AI safety is to move AI systems toward 
> Peircean semiosis in the sense of their becoming 'participants' in 
> interpretive processes. He holds that this is achievable through engineering 
> and 'capability' advances rather than "philosophical breakthroughs;" though 
> he also says that those advances remain insufficient on their own for safety. 
> Remaining "insufficient on its own for full safety" sounds to me somewhat 
> self-contradictory. But I think that more importantly, he is saying that if 
> there are things -- including Peircean 'things' -- that we can begin to do 
> now in consideration of AI safety, then we ought to consider them, do them!
> Manheim claims that AI safety depends on deliberately designing systems for 
> what he calls 'grounded meaning', 'persistence across interactions' and 
> 'shared semiotic communities' rather than 'isolated agents'. I would tend to 
> strongly agree. In addition, AI safety requires goals that are explicitly 
> defined but also open to ongoing discussion rather than quasi-emerging 
> implicitly from methods likeReinforcement Learning from Human Feedback (RLHF) 
> . Manheim seems to be saying that companies developing advanced AI should 
> take steps in system design and goal setting -- including those mentioned 
> above -- if safety is taken seriously. The choice, he says, is between 
> ignoring the implications of Peircean semeiotic and continuing merely to 
> refine current systems despite their deficiency vis-a-vis safety; OR to 
> embrace Peircean semiosis (whatever that means) and intentionally build AI as 
> genuine 'semiotic partners'. But,I haven't a clear notion of what he means by 
> 'semeiotic partners', nor a method for implementing whatever he does have in 
> mind.
> I think Manheim off-handedly and rather summarily unfortunately dismisses 
> RLHF -- which is, falsely he argues, claimed as a way of 'aligning' models 
> with human values. From what I've read it has not yet really been developed 
> much in that direction. As far as I can tell, and this may relate to the 
> reason why Manheim seems to reject RLHF in toto, it appears to be more a 
> 'reward proxy' trained on human rankings of outputs which are then fed back 
> through some kind of loop to strongly influence future responses. Human 
> judgment enters only in the 'training'', not as something that a complex 
> system can engage with and debate with or, possibly, revise understandings 
> over time. In Manheim's view, RLHF is not  'bridging' human goals and machine 
> behavior (as it claims) but merely facilitating machine outputs to fit 
> learned preferences.
> Still, whatever else RLHF is doing that is geared specifically toward AI 
> safety, it would likely be augmented by an understanding of Peircean 
> cenoscopic science including semeiotic. I would suggest that the semeiotic 
> ideas that it might most benefit from occur in the third branch of Logic as 
> Semeiotic, namely methodology (methodeutic) , perhaps in the present context 
> representing, almost to a T, Peirce's alternative title, speculative 
> rhetoric. It's in this branch of semeiotic that pragmatism (pragmaticism) is 
> analyzed. There is of course much more to be said on methodology and 
> theoretical rhetoric. 
> For now, I would tweak Manheim's idea a bit and would suggest that we might 
> try to move AI systems toward Peircean semeiotic rhetoric within communities 
> of inquiry. 
> Best,
> Gary R
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