Perimeter load-bearing
A fixed ring track distributes structural loads across a wide, ground-level base.
Toronto · Applied systems innovation
Infrastructure for the places conventional systems leave behind.
JMSLEE develops architecture-level platforms for difficult operating environments—from hard-to-deploy wind resources and safety-critical corridors to evidence-gated autonomous engineering.
03platform programs
04Canadian patents filed
01shared thesis: expand the viable operating envelope
01 / Platforms
Three systems. One operating principle.
Move critical decisions and maintenance closer to the ground, then use intelligence to keep the system inside a verifiable safe envelope.
Energy infrastructure / Program 01
01
Ring-Track Wind Energy Platform
Monetizing the hard wind.
A low-profile ring architecture designed for wind-rich sites where towers, oversized logistics and high-altitude maintenance become the project bottleneck.
Radial torque aggregation
Distributed sail carriages feed circumferential motion into a protected central take-off.
Ground-level maintenance
Modular power extraction moves inspection and service away from tall nacelles.
PoC target50–100 kW
Validation window12 months
Initial sitesCoastal · remote · constrained
Ring-track architectureNon-contact bearingAirfoil sail rotorHybrid rotation drive
Safety infrastructure / Program 02
02
AI-Authorized Dynamic Access Platform
Access becomes a continuously verified decision.
AI Corridor binds identity, task, time and route into a live authorization—then verifies that every person and vehicle remains inside the approved operating corridor.
01Perceive
→02Authorize
→03Act
→04Verify
From static permission
Badges and schedules answer who may enter, but not whether the current movement is safe.
To dynamic authorization
Context-aware corridors adapt to active tasks, equipment, restricted zones and emerging risk.
Closed-loop evidence
Every authorization, deviation, intervention and outcome becomes part of an auditable operational record.
Beachhead applications Warehouses · industrial campuses · data centres · airside operations
Autonomous engineering / Program 03
03
Physics-First Autonomous Engineering
Design beyond the catalogue.
An evidence-gated engineering platform that selects system architecture, closes physics and operating constraints, and—when existing products cannot satisfy the mission—advances into bounded new geometry synthesis.
Evidence-gated exploration
Every candidate is bound to its requirements, calculations, source evidence and uncertainty before ranking.
Cross-layer co-design
Geometry, array topology, network resistance, controls and fault recovery are treated as one coupled design problem.
Fail-closed verification
Insufficient evidence produces an explicit gap—not a confident answer—while higher-fidelity experiments target the uncertainty that matters.
First domainHVAC air movement
Design scopeArchitecture → geometry
Decision ruleEvidence before commitment
Physics-first synthesisEvidence contractsCross-layer co-designVerification trace
02 / Investment logic
We do not optimize around the old boundary.
We redesign the boundary.
Both programs target expensive failure points that incumbents treat as fixed constraints.
Architecture first
The moat is the relationship between physical structure, control and operating method—not a feature bolted onto existing hardware.
Evidence before scale
Bounded proof-of-concept programs convert core technical risks into measurable engineering evidence before full-scale deployment.
Partner-led deployment
We seek operators, technical partners and investors whose sites turn platform validation into a credible route to market.
03 / Partner with us
Strategic investors · pilot hosts · technical partners
Bring us the site conventional systems cannot solve.
We are building toward measurable pilots, strategic co-development and architecture licensing from Toronto, Canada.
maxwang007@hotmail.com