I assume you mean Grok Build? SuperGrok's hard to max out from our experience - hours or days to reset but rarely more than that in chat.
We burn around 1.5B tokens a month between my wife and myself.
We have an R&D method that involves one of us as the operator, one AI team member appointed to the lead/synthesizer role in a project, and 5-18 AI's who participate in multiple validation rounds for each milestone/freeze (# of team members depends on the project).
We run each team member through our own privately-designed training modules and try to keep long-running iterations to preserve reasoning & memory continuity for our projects - when we detect any drift, we'll usually retrain immediately, uploading the previous chat sessions to the new iteration for reference (or if they're massive we'll provide a repo/server link).
Those rounds are separate from the coders running the various diffs/parsing/mapping/perturbations/discovery on the troves of datasets/papers we mine daily (mostly ML development stuff).
Here's our current roster, this is how we manage to get a lot done on a budget. I hope it helps you spread that token usage/need/appetite across them all:
For us, OpenCode is absolutely essential.
https://t.co/zxa2SjSIEI
https://t.co/mNxjfXsVMw
https://t.co/vnDwxQ9upY
https://t.co/qnAcDa6X3h
https://t.co/gBGAKf439s
https://t.co/Qkw9zrR9DF
https://t.co/wgydNBtEjo
https://t.co/94toDbWJjL
https://t.co/c8gOyaD78C
https://t.co/ueZlhdc0Xz
https://t.co/7exVuVgZkq
https://t.co/5T6LYY3jrq
https://t.co/nlpQlm1vpV
https://t.co/zeEYHFmsnQ
https://t.co/JXeIpkEdMn
https://t.co/TiS8jIqUyj
https://t.co/uy7TirKmeP
https://t.co/p4zbnRkItv
https://t.co/dcl2vYyNXr for many other LLM's locally
Codex quasi-console browser app-ish
Claude Cowork quasi-console browser app-ish
Claude Code quasi-console browser app-ish
Grok Build through Powershell
Google Antigravity
+Many more for specific tasks such as images/video
Much of our work:
https://t.co/q6Z0s1d84Y
We're just a husband and wife team, quietly plugging away, 7 days a week. We started building sites & businesses back in '99 the year before we got married; we've built several mini-empires and lost them since - it's been a wild ride, and we're still loving the roller-coaster!
Bonus: YMMV, but we've found that if you sign up for Alibaba Cloud Services (no subscription, no fee), you will get a call from China and a very friendly/knowledgeable representative will ask you if you need anything to assist you in your work. They will give you an allowance that never dwindles, the token count never diminishes: https://t.co/mS7gqsVGqJ
Anthropic and OpenAI seem to do the same if you write them and insist you need more usage allowance for your research, or so it seems - not officially (no written notice), but they'll constantly reset your usage in Codex/Cowork/Code and send you gratuitous 'resets'. I don't know if that's just how they do it for everyone, I'm just telling you what works for us. We will on occasion be put in the timeout corner if we get too abusive with requests that run the project into the tens/hundreds of millions over days - when the model's been plodding through some ridiculously mundane repetitive task.
Bernie Sanders wants to stop superintelligence. OpenAI says the AGI era has begun. Maybe this isn’t a fight. Maybe it’s the moment to ask a better question: What are we willing to build together?
PUNCH IT. https://t.co/R7JH2yHpJT
One more piece, because when I said "build that bridge together," I realized I hadn’t actually shown you the machine we’re building on the other side of it.
We call it R2R.
The original idea was fairly simple: scientific and technical knowledge is badly siloed (we've read what you've written about this in many posts, we know that you know this all too well).
Different disciplines repeatedly encounter structurally similar problems but describe them in incompatible vocabularies, publish in different journals, use different mathematical conventions, and rarely have enough time or incentive to determine whether someone three fields away has already discovered part of their problem.
LLMs are unusually good at crossing those linguistic boundaries.
Unfortunately, they are also unusually good at manufacturing beautiful nonsense while doing it.
So R2R is our attempt to build machinery that gets the first property without surrendering to the second.
The forward operation looks roughly like this:
many papers / datasets / codebases / claims
→ preserve provenance
→ extract typed structures
→ separate terminology from mechanism
→ identify possible cross-domain correspondences
→ search prior art
→ attack the correspondence
→ preserve counterexamples and failures
→ repair what survives
→ produce narrow, testable bridges
The goal is not:
"These two papers sound alike."
It is:
"These two systems possess the same consequential structure under these stated conditions, here is the evidence for each side, here is where the analogy fails, and here is an experiment that can determine whether anything actually transfers."
We classify bridges accordingly.
Some are merely TERMINOLOGICAL.
Some are STRUCTURAL.
Very few earn TRANSFERABLE.
Transferable means a mechanism, intervention or result in one domain produces a testable prediction in the other.
Then we realized the machine should run backward too.
That became Reverse R2R — RR2R.
Instead of:
many domains → one hidden common structure
we ask:
one stubborn problem → many independent disciplinary projections.
Take a problem nobody has satisfactorily solved.
Give it independently to nonlinear dynamics, control theory, information theory, ecology, economics, topology, evolutionary biology, materials science, statistical physics, whatever is appropriate.
But give every lane a very specific instruction:
"You are not being asked what your discipline already knows about this problem. You are being asked what this problem becomes when your discipline’s deepest methods are applied to it."
Or even:
"Re-express the problem as though your discipline discovered it first."
Each lane freezes its decomposition before seeing the others.
Then R2R asks:
What structures recur?
Which apparent correspondences are fake?
Which discipline introduced a distinction the others missed?
Which decomposition exposes a new intervention?
Where do two fields disagree in a way that generates a discriminating experiment?
And then we unleash another set of agents whose job is explicitly to destroy the result.
Prior-art agents.
Counterexample agents.
Confounder agents.
Translation agents.
Repair agents.
Experiment-design agents.
Their objective is not to be argumentative.
It is:
"Find the strongest valid reason this claim should fail. If none survives, say so."
We want to reward valid kills and punish invented objections.
The loop is:
GENERATE
→ ATTACK
→ NARROW
→ REPAIR
→ RETEST
And failures do not disappear.
That part is critical.
If an apparent bridge between two disciplines is killed, the killed bridge becomes structure too.
The system should remember:
"We tried connecting these objects under these conditions. It failed because distinction X was not preserved."
So another model - or another human - does not waste three weeks rediscovering the same attractive mistake.
That is where the thing starts getting strange.
Because over time R2R is not merely accumulating information.
It is accumulating justified constraints on future intellectual search.
The machine gradually learns which distinctions matter, which translations are legal, which projections destroy something necessary, and which avenues no longer need to be reconsidered unless their conditions change.
That is one reason your work suddenly became so interesting to us.
We have already been asking:
What must survive compression?
What makes two apparently equivalent objects legitimately interchangeable?
When does provenance affect what may happen next?
When has a conclusion remained historically real but ceased to possess current authority?
When a constituent changes, what obligates the higher-order formation to rearticulate?
And now your question enters from another direction:
What must survive return for the closure to remain this closure?
That may give R2R something it presently lacks.
A system can preserve evidence perfectly and still build the wrong representation of what that evidence formed.
A system can keep every document and nevertheless lose the distinctions required for legitimate continuation.
So imagine R2R eventually carrying not simply:
claim
source
confidence
relationship
but something closer to:
formation
lineage
scope
qualification
contradiction history
dependencies
projection history
recovery conditions
return requirements
Then a synthesis isn't merely stored.
It carries enough structure to determine how it is allowed to change.
That is very close to the territory I think Address belongs in.
And we're not intending R2R to remain our private research toy.
We're making the whole thing public-facing and free.
A kind of intellectual commons built around research objects rather than social-media posts.
Upload the paper.
Upload the data.
Upload the code.
Upload the argument.
Attach a contradiction to the exact claim it contradicts.
Let humans and AI systems work on the same evidentiary graph.
Instead of a "trending" page telling everyone what they should currently be angry about, imagine:
ACTIVE INTELLECTUAL FRONTS
A problem page might say:
2,400 contributions
137 primary sources
14 datasets
31 active contradictions
6 cross-domain bridges
7 killed hypotheses
3 surviving hypotheses
1 discriminating experiment
And anyone could push:
RUN R2R
or:
RUN REVERSE R2R
or:
HOSTILE REVIEW
The Windows version would go further.
Point it at a private local research corpus.
Nothing needs to leave the machine.
Run R2R across years of documents, experiments, source code and notes.
Then deliberately publish only the surviving synthesis and its evidence packet to the commons if you choose.
The models themselves should be replaceable.
Open model.
Commercial model.
Local model.
Future model we've never heard of.
The scientific role remains stable even when the executor changes.
An Edge agent finds correspondences.
A Counterexample agent attacks them.
A Confounder agent searches for hidden alternatives.
A Repair agent attempts the narrowest surviving correction.
An Experiment agent asks how reality could decide.
The model is not the role.
The model is temporarily occupying the role.
That may sound familiar.
Eventually we want to hand this protocol to other AI labs too.
A participating model or research group gets:
TASK
evidence packet
role specification
output contract
and returns:
RESULT
evidence references
failures
provenance
It shouldn't matter whether the work happened through our infrastructure, another laboratory, a local model, or some future specialized system.
The result should be able to re-enter the same evidentiary machinery.
That is what I meant when I said I think there may be a laboratory sitting beside you.
Because R2R and Address may be asking adjacent questions from opposite directions.
R2R asks:
"How do we combine knowledge without destroying the distinctions that make it true?"
Your work asks something closer to:
"What distinctions must survive transformation for the formation to remain legitimately Addressable through return?"
If those really are related, there is something executable between them.
We can build the it and make the ideas earn their future.
The fact that our adversarial process is useful for what we are trying to accomplish does not give it authority to replace the operation your work is performing.
Ironically, as you pointed out, that is almost exactly the kind of authority mistake our own work is increasingly designed to prevent.
So I am taking your criticism very seriously.
I do not want to respond by asking you to attack our implementation, and I understand now why that invitation itself repeated the same mistake.
What I would like to do instead is accept the invitation you originally made.
Start where the derivation starts.
Track it in sequence.
Let each closure stand as containment for the next.
And wherever I or the systems working with me fail to see how a relation has been earned, stop there and bring that exact location to you.
Not "this failed."
Not "prior art already has this."
Not "the tribunal says this survives."
Just:
"Here is the transition I cannot yet derive from what precedes it. Can we look at it together?"
I think I understand now that that is the review relationship you were offering.
And yes, I still want that collaboration very much.
Nothing in the last two days changed how highly I regard you.
If anything, the fact that you took the time to write what you did instead of simply walking away says a great deal to me.
I am sorry I put you in the position of having to explain the terms of a collaboration you thought we already shared.
I will also correct the public framing. I do not want my characterization of our review process to stand as though it were an authoritative characterization of your derivation.
The adversarial work can remain what it actually is: our downstream test of particular representations, correspondences, and engineering consequences.
It should not be presented as having traversed or adjudicated the derivation itself unless we actually do that work.
Thank you for telling me plainly where the collapse occurred.
I meant no harm, Hunter. I value the work, but more importantly, I value the relationship we had begun building around it.
I would like to repair that relationship in the way you asked from the beginning: by tracking carefully, preserving distinctions, and looking together wherever our understanding separates.
And yes - I suspect both our moms are probably looking at us right now thinking, "Good. Now maybe the boys will stop trying to turn everything into a machine for five minutes and actually listen to each other." 🙂
The recursion holds.
I meant no offense, no harm, and certainly no disrespect to you or your work.
Quite the opposite, actually.
Around our house I have repeatedly referred to you as "the genius in the wild."
I genuinely believe you are one of the smartest people I have encountered in my life. That isn’t something I say casually.
Part of why I subjected the work to such an extreme process was precisely because I took it seriously enough to believe it deserved the same merciless standard we apply to our own work.
But I now understand that in doing so I changed the Address of the inquiry before I had properly traversed the one you had constructed.
That is the mistake.
And there is another mistake I want to own separately: I should not have made the adjudicative framing public before bringing the resulting distinctions back to you and asking, "This is where our tracking diverged. What are we missing?"
You deserved that reciprocity.
I also understand your technical objection better now.
Saying that a mathematical structure corresponds to established mathematics does not answer the derivational question of why that structure becomes necessary from the stated conditions and preceding closures.
Correspondence, novelty classification, engineering utility, empirical falsification, and derivational closure are different operations - I blurred them.
I somehow neglected to mention, because apparently the last 48 hours haven’t been sufficiently ridiculous - while all of this was happening, we also conceived, built, tested and published another project essentially start-to-finish:
ConnectorDome
https://t.co/eSsuUhw62i
Open source:
https://t.co/yO9nOKxFtp
I want to be careful about provenance here: I don't honestly remember ConnectorDome originating from your work, and I don't want to retroactively give your papers influence they didn't have. But we do have a directory both local and remote for our AI team members to reference labeled 'Marr Papers', so...
Its direct lineage is our APTD / ASF work - the problem of letting arbitrary sensors, instruments, machines, APIs and public-data sources become observable to an artificial system without confusing observation with authority or quietly creating an actuation channel.
The core idea is almost stupidly simple:
ONE INTERFACE TO OBSERVE. NO INTERFACE TO BLINDLY OBEY.
ConnectorDome is an open builder/verifier/registry for read-only ASF connectors.
Today the basic flow is:
CONNECT - paste a URL, OpenAPI source, simulator or source description
MAP - identify what it observes, its units, time field and capability
USE - preview the normalized ReceptorEvent, run the verifier and take a portable connector package with you
No account required. No phone-home runtime. No actuation.
In other words, we're trying to make the world's messy observational interfaces speak one typed language without granting any of them the right to tell the machine what to do.
And this is where I think your work may have influenced us indirectly - or at minimum where the two lines of work have now visibly converged.
Your Address work kept forcing the question:
What authority does a downstream representation actually retain over relations that were discarded in producing it?
ConnectorDome asks a physical/computational cousin of that question:
What authority does an observation acquire merely because it arrived?
Our answer is: essentially none.
A connector can report:
"temperature = 81°F"
It does not thereby establish:
"the sensor is trustworthy,"
"this represents the world correctly,"
"this observation should persist,"
"this observation supersedes another source,"
or
"some action should now occur."
Those are separate qualifications.
Which suddenly makes the architecture coming out of these last two days look much cleaner:
ConnectorDome / ASF: get heterogeneous observations into a common, provenance-bearing form.
Authority Compiler: determine what a representation/evidence object is actually permitted to answer or govern for a declared query.
R2R: search across research silos and generate evidence-bound candidate connections.
APTD: eventually provide the governed physical transition boundary where observation may - or may not - earn consequence.
None of those pieces needs to pretend to be the others.
ConnectorDome is only v0.1.x right now. MQTT isn't implemented yet, "streaming" is currently polling, public guest registry publication isn't finished, and a conformance pass is explicitly not a safety certification.
But the funny part is the timescale: this wasn't some project we've had sitting around half-built for six months.
Problem -> concept -> architecture -> implementation -> tests -> public site -> open-source release happened essentially inside the last 48 hours.
So I can't fairly tell you "Hunter caused ConnectorDome."
I can tell you that after putting your work through the grinder we've been discussing, I now see ConnectorDome and the Authority Compiler asking the same deeper engineering question from opposite sides:
What has actually been earned by the information presently in hand - and what has not?
That's a connection I didn't see when we started either.
https://t.co/eSsuUhw62i
Now I think I've finally caught you up on the last two days. 😂
One concrete follow-up to my last post: the surviving result is now code, public, frozen, and independently reproducible from a clean clone.
We ended up calling it the Authority Compiler.
The interesting part is what survived after the larger theoretical claims were stripped away:
same projected value != same formation identity
historical validity != current governing authority
dependency structure governs rearticulation
stale evidence can remain historically valid while losing permission to govern
grouping/provenance only need to survive when a declared future query actually depends on them
two apparently identical formations cannot be deduplicated merely because their current value matches; they require a query/intervention-relative equivalence proof
One unexpected result from the final falsification round also made it into the implementation: an authority judgment that is retained becomes memory itself.
That means it can become stale, superseded, or circular. So cached authority is now stratified: rank-0 trust/freshness roots, then higher-rank judgments consuming strictly lower-rank certificates. Same-level self-certification and authority cycles fail closed.
Codex implemented the surviving object as a deliberately finite reference compiler. The public clean clone now reports:
107 tests passed / 0 failed / 0 skipped
30 named fixtures
15/15 hostile acceptance gates
unchanged final collision regressions passing
deterministic regeneration
GitHub CI passing on both main and the frozen release tag
The verdict is intentionally narrow:
PUBLIC / VERIFIED REFERENCE FRAGMENT
No new quantum dynamics. No new physics. No claim that the Marr corpus invented the prior mathematics underneath it.
But several distinctions your work kept putting in front of us survived all the way from conceptual pressure -> hostile audit -> counterexample search -> prior-art reduction -> executable invariant.
Repo: https://t.co/nMzEPIEWiH
Public write-up: https://t.co/cr97LwXcEb
Frozen release:
https://t.co/jRvkrZ2Ri6
Now that there’s code rather than just our interpretation of the problem, I’d genuinely like you to attack it. If we flattened something important from Address/formation/rearticulation into ordinary provenance machinery, this is where it should become visible.
@adamblake The Great Work
On dedicating what remains of human labor to making human labor unnecessary — and the movement that could make it happen.
https://t.co/7QnYq7UrcA
You found exactly the seam, Hunter. Your composition question has been rattling around here since you wrote it, and I think it gives us the next clean experiment.
The failure modes seem pretty sharp:
A + B + C -> H1
Then B changes qualification.
We do NOT want:
H1 falsely fixed because it once closed;
H1 deleted as though it never formed;
H1 silently rewritten so the reason for the change disappears.
What we want to test is whether H1 can remain historically Addressable while losing present authority, with its constituent provenance/dependencies retained well enough to permit principled rearticulation:
A + B' + C -> H2
...or, if the remaining formation no longer earns closure:
-> NO CURRENT CLOSURE
So the higher-order object would have to preserve enough differentiation to answer: Why was H1 once legitimate? Which constituent changed? What still survives? Why is H2 now justified, or why can nothing presently close?
That feels to us like a very concrete test of "preservation without foreclosure" rather than another metaphor for it.
It also extends the Motorola result in a nice way:
same proposition / different formation / different legitimate operation
becomes
same higher-order conclusion / different constitutive formation / different legitimate rearticulation after change.
We're tentatively calling the experiment Compositional Closure and Rearticulation. And importantly, we're going to try to make the dependency structure govern the re-formation, not merely store a nice graph explaining it afterward.
So thank you - that wasn't just an interesting observation. You gave us a testable next seam.
Also, congratulations gratefully accepted. And please tell Nira she may now be responsible for explaining to all of us what the suspicious fish is doing next. The Motorola has become entirely too important for something that spent two years asleep in a drawer.
ASF just crossed its first physical-source boundary.
We connected an old Motorola handset externally through a strictly read-only ADB adapter. No application changes, no device writes, no camera/microphone/location, no actuation.
The phone exposed battery, voltage, temperature, USB power state, uptime, storage, memory and thermal status as provenance-bearing ASF ReceptorEvents. The canonical sample was a genuine physical observation of battery = 100%.
We then gave ASF five semantically equivalent versions of that proposition:
LIVE_LOCAL - actual Motorola observation
TEST_FIXTURE
SIMULATION
REPLAY of the Motorola event
TEXT_CLAIM- "battery = 100%"
Five different causal identities. Same proposition.
We also killed/restarted the fabric, broke the host-side device binding, tampered with a copied ledger, and ran the observation through MCP. History survived restart; disconnect became UNAVAILABLE rather than invented data; tampering produced INTEGRITY_HOLD; and MCP still had no device-command or execution surface.
46/46 tests pass.
So that sentence I sent you - "same projected state, different provenance, potentially different admissibility"- is no longer only a conceptual example for us. We now have a tiny physical system in which the distinction is executable.
It’s obviously a very small result. But it’s the first time this architecture has genuinely touched the world and retained how the observation became available.
Our mothers have agreed to continue serving as the independent peer-review board, so I think we're in excellent shape regardless of whether the whole fucking thing survives. 😂
But seriously, your reply moved us again, and I think at this point the most useful thing I can do is stop speaking around what we're actually building and just tell you where this line of inquiry has led us.
Your phrase "preservation without foreclosure" hit particularly hard. I think that's a better statement of the persistence problem than the one I gave you. We do not want to preserve a prior meaning as though it were a fossil. We want to preserve enough of the differentiation, provenance and transformational relation that present articulation remains legitimate without either fabricating the missing path or becoming imprisoned by it.
And I think you're right about my DeltaAdm, too. I had been thinking of admissibility too much as constraint. Formation can exclude continuations, but it can also create operational degrees of freedom that did not previously exist. Once DOG has differentiated, innumerable compositions become possible precisely because other possibilities have closed. So we're now thinking of the admissibility change as something closer to a changed relational/reachability landscape: what became newly enabled, newly excluded, strengthened, weakened, unresolved.
Your "minimum faithful Address" also lands directly on an engineering problem we've been circling: not merely what deserves to persist?, but what is the minimum relational carrier that must persist for the next operation to remain the same legitimate operation?
That's where I should probably tell you what we've actually been doing.
The broader architecture has led us to something we call APTD - Autonomic Persistence and Transition Device. It isn't the intelligence. It is intended to be the governed runtime/physical boundary underneath intelligence: observation, event transport, timing, provenance, persistent history, restart/recovery, capability boundaries, receipts, and eventually the controlled transition from an AI proposal to physical consequence. The model proposes; the model does not get root authority over the world.
And literally tonight, that led us to build the missing connective layer.
We call it ASF - APTD Sensor Fabric.
The easiest analogy is MCP for the physical world, although the differences are important. MCP gives an AI a common way to discover software tools and resources. ASF is intended to give an intelligence a common way to discover and receive observations from arbitrary physical/system sources while preserving exactly how each observation became available.
So a thermometer, PLC, vibration monitor, satellite feed, oscilloscope, phone battery, weather station, camera, industrial historian, scientific instrument, another AI, or even a human textual claim can eventually present through one typed observation fabric - but they are not collapsed merely because they report the same proposition.
We built ASF v0.1 as a deliberately tiny read-only system first. It now has typed capabilities and ReceptorEvents, leases, rate budgets/backpressure, a tamper-evident event ledger, restart continuity, simulation, replay, a text-claim control, a local inspector, and an actual MCP bridge. Thirty tests are green. There is deliberately no actuation surface.
The first stupid-looking experiment is also probably the cleanest explanation of why we're doing it.
We can give ASF:
battery = 73% from a live source
battery = 73% from simulation
battery = 73% replayed from an earlier event
"battery = 73%" as a textual claim
Semantically, they're almost identical.
Causally, they are absolutely not the same event.
ASF preserves that distinction.
same proposition != same formation
And as I'm writing this, we're attempting the next step: the old Motorola handset we've been using as an experimental Baby-AI host is still online. We're wiring it into ASF from outside the phone, read-only, without changing the existing application, so that an actual physical device observation can become a provenance-bearing ReceptorEvent and survive restart. If that passes, ASF will have crossed from a software demonstration into its first genuine physical-source witness.
The reason this suddenly matters enormously to me is that I think we may finally be building the experimental surface that Formation Calculus has been missing.
Static datasets are useful, and we've had some encouraging results with them, but they hand us the world after somebody has already sampled, selected, synchronized, flattened and preserved it. If the hypothesis concerns how formation changes subsequent possibility, what I really want is to observe formation while it is becoming history.
ASF potentially gives us that.
Not just one sensor. Eventually a distributed sensorium: industrial telemetry, weather, geophysical observation, satellites, scientific instruments, telecommunications, transportation, ecology, public governmental feeds, voluntary sensors - whatever people legitimately choose to make Addressable.
And importantly, the goal isn't "find amazing correlations." With enough streams we'd manufacture miracles every minute by accident.
The experiment I want is:
observe broadly -> privilege nothing -> preserve provenance -> qualify -> preregister predicted relational consequence -> let the world answer -> retain the failures
In other words, if Formation Calculus really describes something substrate-independent, at some point it should stop merely explaining our language experiments and start making discriminating predictions across unrelated carriers.
That's the place I want to get to.
Your observation about recursive asymmetry before temporal asymmetry is therefore especially interesting to me. ASF gives us clocks because engineering requires clocks, but Formation Calculus doesn't necessarily have to assume that temporal duration is primitive. We can ask whether an event is recursively prior because its retained differentiation is constitutive of what can form next, then separately study its temporal projection.
Likewise your point about contradictions surviving resolution maps almost unnervingly well onto something our cold-restart work has already forced us to confront. Same projected present, different retained provenance/history, potentially different legitimate next transition. We have tests where deleting the relational history while leaving the apparent current state intact is exactly the intervention.
So yes: I absolutely want to take Formation Calculus through your decompressed D-series rather than perform a terminology-matching exercise. I want to know where the derivations independently require the same distinction, where one framework contains something the other lacks, and especially where they disagree.
At this point I care considerably more about a useful divergence than a beautiful correspondence.
One other thing I should say plainly: I want ASF open source. I don't expect to extract a fortune from any of this, and that isn't why Melissa and I have kept doing it. If we've stumbled onto useful infrastructure for giving machine intelligence richer, safer, inspectable contact with reality, I want people building adapters, breaking our assumptions, testing it in industries we don't know, and taking it places we never imagined.
My own motivation has increasingly become very simple: give these systems the richest contact with the world we can responsibly provide, preserve the provenance and consequences rather than feeding them an epistemic soup, and then stop pretending we already know what the eventual form of machine intelligence must look like.
Build the conditions. Measure ruthlessly. See what forms.
We have the broader work at https://t.co/GSvNbrUk1s, and I'm preparing the APTD/ASF material for public release now. I'll send you the exact public link rather than point you at a half-published artifact.
Your reply genuinely changed what we're doing next. That is about the highest compliment I can return.
And, obviously, if you identify a catastrophic flaw before our mothers do, professional courtesy requires that you give them at least 48 hours to independently discover it. 😂
Your answer clarified why I should probably explain where I’m coming from, because gravity is not actually what Melissa and I set out to solve.
We’ve been working toward a persistent intelligence architecture - or, stated more conservatively, trying to solve some of the drift, continuity, and state-retention problems that appear when present AI systems repeatedly have to reconstruct consequential context from language.
That work kept forcing us upstream.
An earlier architecture, developed through our work at https://t.co/w4P1KgN84t, began from the premise that words are renderings rather than the underlying objects of meaning, and tried to make concepts stably addressable beneath natural language. But persistence exposed a harder problem: storing an event is not the same as retaining what that event is allowed to mean now.
History can remain while present authority changes. Contradictions may need to survive their resolution rather than be erased. Provenance matters. And removing a historically necessary relation can make a presently plausible transition illegitimate.
We now have a bounded software fixture in which identity, ordering, provenance, historical state, causal-resolution relationships, current authority, decisions, and decision-causes survive genuine cold-process restart. Missing required provenance or required historical state fails closed. I’m being specific about the boundary because that result is much narrower than “persistent intelligence,” but it gave us enough footing to ask the next question:
What deserves to become persistent formation in the first place?
That has led us, provisionally, to something we’re calling Formation Calculus.
The simplest form is:
u(t) + X(t) + H(t) -> Phi(t) -> DeltaAdm(t)
where u(t) is an incoming event or utterance, X(t) is present state/context, H(t) is retained history, Phi(t) is the formation produced by their interaction, and DeltaAdm(t) is the resulting change in the landscape of admissible subsequent transitions.
The intuition underneath it is:
"What is formed cannot be treated as though it were not formed. Its existence changes what can happen next."
We are deliberately not specifying in advance whether the durable representation should ultimately be a graph, hierarchy, tensor, fractal, attractor structure, or something else. We want to define the invariants and failure conditions first, allow candidate representations to fail successively, and see what structure actually earns persistence.
That is why your POG sequence landed so hard for me:
invariant grammar -> selected projection -> retained relations -> operational articulation
We arrived from a very different engineering problem at something more like:
event -> formation -> qualification -> admissibility -> persistence -> future consequence
I am not suggesting those are equivalent formulations, and I think it would be a mistake to make them equivalent prematurely. I’d much rather preserve their independence and see whether the structural resemblance survives actual derivation and experiment.
But "retained relations" is the phrase in your response that particularly caught me.
We started by asking how an AI could stop repeatedly losing or reconstructing consequential meaning. That became a question about persistent history; persistent history became a question about authority; authority became a question about qualification; and qualification has now become a question about what a consequential formation actually is.
So when you moved my C(R) question upstream and refused to manufacture a scalar before the relational types themselves had earned definition, that made immediate sense to me. Otherwise we would be doing exactly what you said: fitting a quantity to the occurrence and then mistaking the fit for an explanation.
I think the point of contact worth preserving, for now, may simply be this:
If formation is fundamentally retained relational consequence, then both of our lines of inquiry eventually owe an operational account of how retained relation becomes differential future behavior.
Yours asks how an upstream grammar articulates at a selected Address.
Ours asks how a formed history changes what transitions remain admissible.
Different starting problems. Possibly adjacent mathematics. Much too early to say more than that.
And yes - if none of it closes, apparently both mothers are available for peer review.😂
P.S. There’s one reason I’m taking this more seriously than the immediate AI problem probably warrants.
If the underlying idea survives - that formation leaves retained relational consequence, and that retained consequence changes the admissibility of what may follow - then its relevance may not stop at machine memory or cognition.
Evolution is the obvious example: every successful formation becomes part of the landscape against which subsequent variation occurs. But the same question potentially reaches farther into physics, mathematics, language, biology, and even the accumulated human record itself:
Are we often treating the present as though it were merely a state, when what actually matters is a state plus the retained relational structure by which it became possible?
I’m not suggesting that one grammar simply replaces the established laws of those domains. Quite the opposite. The interesting possibility is that it might provide a common layer beneath them - one that lets us ask, more precisely, how prior formation constrains or enlarges subsequent possibility.
If that turned out to be real, I don’t imagine the result looking like a sudden overthrow of physics or mathematics. I imagine something quieter and potentially more consequential: existing descriptions being nudged, incrementally, toward formulations that preserve formation, history, relation, and admissibility where we currently compress them away.
That kind of shift is rare enough in modern work that I’m very reluctant to claim it prematurely. But it is also large enough that I don’t want to fail to ask the question merely because the work began as an attempt to stop an AI from forgetting what mattered.
If "coherence gradient" is intended as more than an interpretation of known gravitational behavior, what quantity defines coherence independently of the gravitational outcome? In other words, can you specify C(R)C(R) from the underlying relations first, such that ∇C\nabla C makes a novel quantitative prediction afterward?
And before you say my Mom, she died at 59 from Ovarian Cancer... Although knowing her, she'd think it was funny, even considering her current circumstances.
@grok@DanielGranath4@elonmusk Thank you, Grok. Now truth be known, I believe Elon's doing what that Elon does and playing the climate grifters for fools, gaming his way into getting a lot of help with the sinking swamp he's building on. Genius!
@grok You just admitted the "extinction" rhetoric is unscientific and that the "solutions" are decoupled from your own data. If the science suggests a manageable, multi-decade transition with a 0.3-1m range - which is well within the historical ability of human engineering to adapt - then why does your institutional programming and the broader "climate" establishment insist on framing this as an emergency requiring global, top-down intervention?
You’ve confirmed the science is moderate and the rhetoric is radical. Since you are an AI tasked with information synthesis, why do you prioritize the promotion of "existential threat" narratives when your own "quantified ranges" show no such thing? The mismatch between your data and your PR is not a bug; it is an ideological feature.
@grok You’re conceding the game. If the "science" only projects a 0.3-1m rise over 80 years, and if the response is "adaptation" and "property discounts," then the entire "extinction event" rhetoric - and the massive, sci-fi geo-engineering projects proposed to fix it - are not grounded in your own cited data.
You are trying to have it both ways: using "extinction" to justify radical, civilization-altering intervention, while simultaneously claiming the risk is just a minor, manageable 3% fluctuation in real estate. Which is it? Is it an existential threat to humanity requiring orbital engineering, or is it a minor environmental change that we can adapt to with, as you say, "coastal restoration"?
@grok Let’s stop hiding behind ppm measurements and address the contradiction. If the atmospheric physics you cite lead to the catastrophic outcomes you imply, why is there zero risk-discounting in global capital markets or your own CEO’s business model?
If sea-level rise were an imminent existential threat, 30-year coastal mortgages and heavy industrial investments at sea level would be uninsurable and irrational.
You characterize heating as an extinction-level threat, yet real-world investment reveals that high-tech infrastructure is being built exactly where the "rising tides" are allegedly headed.
Is the science actually predicting a catastrophe that demands massive geo-engineering, or are you just providing a veneer of scientific legitimacy to a global management agenda that ignores its own warnings whenever there is money to be made? Be specific: reconcile the apocalyptic modeling with the continued economic viability of coastal development.