A research-driven technology company applying a single network-coordination framework across machine learning, traffic intelligence, and cognitive science — built from scratch, validated on real data, and protected under U.S. patent.
U.S. Provisional Patent #64/002,166Google TPU Research CloudNYU faculty engagementFounded 2024
Tier 1 — Core R&D
Research & flagship systems
Two flagships, one thesis. LOLM is the intelligence — a language model built from scratch that measures its own uncertainty and issues a receipt for every turn. QEV is the proof — the encrypted, signed, tamper-evident container those receipts travel in, and a complete product in its own right.
5 flagship systems
Machine Learning · Flagship★ Flagship
LOLM — Latent Order Language Model
Qira's flagship system: a language model built entirely from scratch — a hybrid Transformer–SSM architecture that separates language into surface and latent representations, rather than the standard single-stream approach.
Trained and reproduced across standard datasets on both GPU and TPU, supported by the Google TPU Research Cloud — the system the rest of Qira's research is built to serve.
Qira's trust layer: encrypted, signed, tamper-evident envelopes for any artifact — browser, CLI, desktop, and Android — with policy-aware workflows and verifiable trust semantics. Argon2id, XChaCha20-Poly1305, Ed25519, SHA-256.
It is what lets a LOLM receipt become evidence: any run can be sealed into a real QEV envelope and re-opened by the public verifier, because a claim about what an agent did only counts if it cannot be quietly rewritten afterwards. QEV also stands entirely on its own: MIT-licensed, live across four platforms, and useful for any file that has to survive being doubted.
Real-time intelligence for Phoenix freeways — corridors monitored around the clock and modeled as a coupled-oscillator network that predicts congestion cascades before they form.
Validated against the standard METR-LA research benchmark, with cascade predictions and crew-dispatch guidance generated continuously from live AZ-511 and HERE routing data.
A mathematical framework for the gap between what people know and what they can express under pressure — one gating function, g(K)=4K(1−K), and three confirmed response types.
Compressors, Expanders, and Suppressors — an empirical study with real subjects. Preprint published on Zenodo; ArXiv endorsement pending.
The coding AI that sees your codebase as a network. Not autocomplete — structural intelligence that understands how every file, function, and dependency connects to everything else.
Qira's network-coordination thesis applied directly to software: treat the repository as a graph and reason over its structure, not just its text.
Smaller bets, shipped tools, and side projects — built with the same rigor, but separate from the core research program.
3 shipped projects
AI Infrastructure Live · MVP
AEX — AI Efficiency Exchange
Measurement, verification, and registry for AI energy efficiency and compute flexibility. Workload identity, boundary-aware energy attribution, baselines, AES scores, sealed evidence, and demand-flex simulation — not a carbon marketplace.
A marketplace for verified digital goods. Every purchase issues a cryptographically signed receipt and license that anyone can verify — secured by Qira's QEV trust engine.
Qira's research centers on a single insight: the mathematical structures that govern phase transitions in physical networks also describe critical behavior in traffic systems, cognitive expression, and language-model training dynamics.
The same mathematics that detects a freeway congestion cascade also identifies the latent-order dynamics inside a language model and the gating behavior of conscious expression. This is not analogy — it is the same theory, applied at different scales.
By grounding every system in network coordination theory rather than domain-specific heuristics, our models don't merely fit data — they capture the dynamics that generate it.
◇ Network Physics
Mathematical modeling of how information, congestion, and instability propagate through connected systems — Kuramoto coupling, phase synchronization, and operating-band regimes.
⟲ Real-Time Inference
Continuous monitoring loops that detect anomalies and predict state changes before they cascade — production systems that run around the clock.
⇄ Cross-Domain Transfer
A single theoretical framework — validated empirically across transportation, cognition, and language — rather than three disconnected tools.
Team
Founders
A two-person research company — theory and systems, working end to end from first principles to live deployment.
Brandyn Leonard
Co-Founder & Research Lead
Littleton, Colorado
Lead architect of LOLM and originator of the gating functions and boundary conditions that underpin Qira's network-coordination theory. Drives the mathematical architecture connecting traffic dynamics, cognition, and adaptive training, and manages large-scale TPU training.
Systems architect behind Qira's live platforms — data infrastructure, real-time monitoring, and empirical validation. Leads deployment of the Phoenix Traffic Intelligence system and all of Qira's production engineering and cloud operations.