EQUILIB Active Standing Platform

A standing surface that reads the structural state of the person on it in real time and responds. Two input channels: a bilateral plantar pressure array (128 sensors, 100Hz, full bilateral ZMP calculation) and a wearable lumbar IMU clip (trunk position across 3 axes). A model predictive controller calculates CoM drift velocity — the real-time standing fatigue biomarker — and generates commands to an active multi-axis articulating surface: anterior-posterior tilt, medial-lateral tilt (independently per foot zone), and multi-zone vertical variation across 6 addressable zones. Displacement range 0–4mm at platform edge. Rate 0.5–2mm/sec. The perturbation is imperceptible as instability but biomechanically significant as proprioceptive input. A longitudinal fatigue engine monitors four biomarkers across the shift and generates data-driven break recommendations when thresholds are crossed.

ZMP-APCS — Zero Moment Point Adaptive Plantar Correction System

A smart insole applying Zero Moment Point calculation — the same engineering principle that keeps bipedal robots upright — therapeutically to the human foot. A 64-sensor pressure grid at 100Hz calculates current ZMP position, compares it to an individualized neutral reference, predicts trajectory across the next gait phase, and delivers correction through two simultaneous channels:

Active sole redistribution: micro-actuated zones (pneumatic or piezo) independently adjust firmness and elevation to physically redirect ground reaction forces toward neutral ZMP

Haptic vibrotactile retraining: zone-specific actuators deliver directional proprioceptive cuing that retrains neuromuscular loading patterns over time — correction that persists when the device is not worn

Three form factors: therapeutic boot, smart insole, athletic performance attachment.

The Clinical Framework

Puberty functions as a biomechanical locking phase consolidating pre-existing structural tendencies

The center of mass is a bidirectional fulcrum — deviations above and below it propagate in both directions

Hip tension direction determines plantar loading pattern — medial tension drives inward collapse, lateral tension drives outward deviation

The plantar surface is the terminal neuroanatomical readout of the entire structural history above it

The musculoskeletal system is the structural container within which every other biological system operates — respiratory, digestive, neurological, vascular — and its deviation from neutral changes the spatial operating environment of all of them

What I Am Looking For

A builder or small team who wants to take on one or both of these as a commission project — building a functional proof-of-concept prototype and documenting the process.

I am not a corporation. I am a solo inventor whose body is breaking down from the career that gave him the knowledge to design these devices. I am offering:

A commission fee (negotiable, honest conversation about what I can offer)

Full patent documentation, sensor specifications, controller architecture, actuation parameters, and clinical framework manuscript — everything needed to understand what you are building and why

Clean IP arrangement: you own anything you create in the build process, I own the patents. Simple work-for-hire structure, NDA available if preferred

First right of refusal on any follow-on builds in the ecosystem

Attribution as the builder in all commercial and research documentation

If you document the build publicly — on Hackaday, on YouTube, on your own channels — I actively encourage that. The more people who see these devices being built, the better for both of us.

Suggested Build Sequence

Phase 1 — ZMP-APCS Insole (recommended starting point)

Lower complexity, lower cost, fastest path to a working demo. Components are commercially available. The engineering challenge is real...

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