Concept Paper v0.1 — September 2026

We Gave AI Language.
Maybe It Needs
Machine Code.

A systems hypothesis: agents may preserve performance while reducing autoregressive reasoning by using machine-facing semantic decisions, typed state, and governed reusable fast paths.

This work presents an architectural hypothesis and proposed experimental framework. It does not claim experimental validation.

Illustration of semantic computing
The central problem

Natural language as a universal bus

Contemporary LLM agents often serialize internal coordination and reasoning through natural language. A model plans, narrates a tool call, interprets textual results, restates state, and repeats.

Language remains indispensable at the human interface. But using it as the default internal computational protocol is an engineering choice—not an axiom.

state → LLM → reasoning text → tool → textual observation → LLM → …
A limited analogy

From logic gates to semantic gates

Logic gates map signals to deterministic outputs. A semantic gate would map state to a constrained, learned probability distribution—context-dependent, fallible, but directly usable by software.

From logic gates to cognitive opcodes

FIG. 01 — The computing stack

STATE→SEMANTIC DECISION→RELEVANT .94 / RISKY .08 / NOVEL .76
A speculative instruction set

Cognitive opcodes

These names are illustrative, not a proposed standard. The research question is which operations are general, separable, calibratable, and composable enough to justify becoming primitives.

OBSERVEATTENDRECOGNIZEABSTRACTRECALLPREDICTHYPOTHESIZEVERIFYASSESSSELECTACTESCALATESTOP
A cognitive opcode

FIG. 02 — A cognitive opcode

Machine-facing coordination

Cognitive Intermediate Representation

Verbose natural-language reasoning

“The test failed because the expected key was 9000 but the loop only produced values through 8999. This looks like an off-by-one error.”

Compact machine-oriented representation

OBS[test=T17,status=FAIL]
EXPECT[key=9000]
OBSERVED[max_key=8999]
HYP[off_by_one=.97]
NEXT[inspect:loop_boundary]

A production implementation could use typed objects, latent state, or a hybrid. The point is not the syntax: human-readable prose is not required at every internal boundary.

An event-driven graph around shared state

Cognitive Runtime

Intent, relevance, novelty, risk, memory matches, progress, tool requirements, uncertainty, and language can be evaluated in parallel. Components may be deterministic code, learned classifiers, vision encoders, retrieval systems, specialist models, or a general reasoner.

Cognitive runtime architecture

FIG. 03 — The graph, not any single model, becomes the intelligent system.

Shared state

Goals, entities, evidence, memory references, progress, and uncertainty.

Probabilistic control

Confidence, entropy, abstention, and calibration drive escalation and policy.

Conditional compute

Invoke expensive language reasoning only when the state actually demands it.

System Two can teach System One

Governed cognitive JIT compilation

UNKNOWN TASK→EXPENSIVE REASONING→RECURRING PATTERN→CANDIDATE FAST PATH→VALIDATION→PROMOTION→INEXPENSIVE EXECUTION

This is not merely caching. A promoted fast path must have defined validity conditions, calibration behavior, versioning, test coverage, monitoring, and a reversible rollback path.

Cognitive JIT compilation

FIG. 04 — Compilation is a governed lifecycle, not a shortcut around evaluation.

What is actually being proposed

A narrow, defensible synthesis

Individual ingredients have substantial prior art. This proposal does not claim to invent modular cognition, latent reasoning, cognitive architectures, or compilation of deliberation. Its proposed research direction is their combination:

SEMANTIC GATES→COGNITIVE OPCODES→COGNITIVE IR→HETEROGENEOUS RUNTIME→PROBABILISTIC CONTROL→GOVERNED COMPILATION
Prior art

The idea has ancestry

Soar, ACT-R & blackboards

Shared state, specialized processes, procedural learning, and Soar’s chunking already establish key precedents.

Neural program systems

Neural Programmer-Interpreters and Neural Module Networks show reusable, compositional computation.

Hierarchical RL / options

Temporally extended actions with initiation conditions and termination are direct precedents for abstraction over action.

MRKL, ReAct & Toolformer

LLMs as components within larger systems, able to reason, act, and use specialized external capabilities.

DSPy & LMQL

Programming models and compilation for LM pipelines—not merely ad-hoc prompt strings.

Voyager

Experience can accumulate as executable, retrievable, and refinable skills.

Coconut & latent reasoning

Reasoning need not be decoded into ordinary language at every intermediate step.

Jev / typed decisions

A timely System-One-style primitive: machine-facing distributions rather than generated strings. Its architectural claims remain vendor claims.

See the supported bibliography and the full paper for precise distinctions and links.

Falsifiable experiment

At matched performance, does it cost less?

Compare a conventional reasoner/tool loop against a cognitive runtime that uses a machine-facing state layer and cheap semantic decisions before and after expensive reasoning. Escalate only for uncertainty, novelty, or policy.

Baseline versus cognitive runtime experiment

FIG. 05 — A minimal experiment does not require a new foundation model.

TASK SUCCESSREASONING CALLSREASONING TOKENSINPUT TOKENSWALL-CLOCK TIMETOOL CALLSREPEATED / META REASONINGCALIBRATION & ABSTENTIONCOMPUTE / COST WHERE MEASURABLE
Primary source

Read the full concept paper.

The paper contains the complete argument, prior-art discussion, scope note, and references.