FALCON benchmark emblem
VERITY · Brain-computer interfaces · October 2026

A neural prosthetic should work when its user wakes up.

Brain signals drift from day to day. VERITY calibrates to each session's own unlabeled neural activity instead of requiring a new supervised movement-and-labeling routine. It ranks #1 overall on the public FALCON H1 EvalAI leaderboard as of Oct. 29, 2026, with held-out R² 0.71. It reports a confidence posture for every timestep.

#1
Overall · public FALCON H1
0.71
Held-out R² mean · public score
0.77
Held-in R² mean · public score
CPU
Few-Shot Unsupervised · no GPU

From supervised experiment to usable product

A laboratory can ask a participant to repeat known movements while a technician recalibrates a decoder. An everyday assistive device cannot depend on that ritual every morning. It has to interpret today's changed neural signals without today's labels already being available.

Few-Shot Unsupervised is the benchmark category that tests that missing capability. VERITY's result does not make a clinical claim; it demonstrates a practical path for removing one of the barriers between a controlled BCI experiment and a marketable neural prosthetic.

The product test is simple: can the interface calibrate to the person today, without asking the person to help retrain it first?


What is different

The system does not hide everything inside one aggregate score. It measures whether the evidence for each prediction is strong enough to trust, and reports a confidence posture for every timestep.

The operator sees the predicted movement and how strongly the evidence supports it. Not just “the arm moved here”, but “the arm moved here, and this is how strongly the evidence supports that prediction.”

A system that always produces an answer is not a verification system.


Public leaderboard snapshot

FALCON H1 · Human 7-DOF Reach and Grasp · public EvalAI leaderboard. Snapshot observed 24 September 2026, not the current standing. Sorted by held-out R² mean (↑). Ranks 5 and 6 sit between OMEN and ABACUS.

Rank on 24 SepTeamHeld out R²Held in R²Out σCategory
1Credasis (VERITY BCI FSU, CPU-only)0.680.770.10FSU
2NDT2 Multi Oracle (FALCON baseline)0.630.680.08Oracle
3TaskFuse FSS0.600.670.11FSS
4OMEN FSS0.600.680.09FSS
7ABACUS (FSU)0.570.660.10FSU

Current standing, Oct. 29, 2026: VERITY is #1 on FALCON H1. Held-out R² is 0.71, ahead of the NDT2 Multi Oracle baseline at 0.63. Held-in R² is 0.77. The entry is Few-Shot Unsupervised. EvalAI normalized latency for this submission is 1.59. That figure is container time on the evaluator, not on-device speed. Rankings change.


What FALCON measures

FALCON (Few-shot Algorithms for Consistent Neural decoding) is a community benchmark for intracortical brain-computer interfaces. Decoders trained on early sessions often fail on new days when neural signals drift. FALCON evaluates how well adaptation methods restore performance with only a small amount of calibration data on held-out days.

The H1 task uses 176-channel Utah-array recordings with 7 degrees-of-freedom movement decoding. Few-Shot Unsupervised adaptation uses each session's neural activity without movement labels.

Documented limits

LimitationDetail
One participantFALCON H1 is a single human implant, not a multi-person clinical trial
Not a medical devicePublic-benchmark result. Not an FDA clearance or a clinical claim
Board latencyNormalized latency 1.59 is EvalAI container time, not on-device inference

We report every session, including the ones where performance is weakest.


Specifications

Leaderboard rank#1 overall, Oct. 29, 2026
Held-out / held-in R²0.71 / 0.77
Held-out R² std0.08
EvalAI normalized latency1.59
HardwareCPU only
On-device footprintUnder 1 MB
CategoryFew-Shot Unsupervised
On-device inferenceUnder 6 ms / timestep
Neural bin size20 ms (50 Hz)
Channels / DOF176 / 7
Air-gappedYes
PosturePer-timestep confidence

Same philosophy, new surface

Quantum verification, network anomaly detection, and intracortical decoding: one commitment across domains. Reproducible evidence, transparent limits, and calibration without forcing new labels on the user.