Four autonomous AI agents continuously detect urban heat anomalies at 2-meter pedestrian height, simulate physics-based cooling interventions, and deliver construction material advisories with verified ROI.
True human exposure
Thermodynamic ROI
Hot-weather pouring

The Problem & The Solution
Urban Heat Islands are not just an abstract climate stat — they cause severe pedestrian health hazards, grid surges, and premature concrete failures on construction sites.
Traditional satellites measure asphalt/roof surface radiant heat, missing the ambient air temperature at 2-meter pedestrian height where humans live and breathe.
ThermoAgent integrates real-time 2-meter air temperature feeds from FortyGuard to deliver true physiological heat stress alerts.
Extreme ambient heat causes premature concrete flash-setting, aggregate shrinkage cracking, and worker heatstroke, costing millions in rework.
Built-in Construction Planner models hydration heat, recommends low-heat slag/fly-ash mix designs, and schedules optimal night-pour windows.
Municipalities invest in random tree planting and reflective roofs without verifying which building clusters yield maximum cooling ROI.
Autonomous multi-agent simulation calculates exact cooling degrees (°F), annual HVAC kWh savings, and payback period before spending capital.
Watch how our autonomous multi-agent platform continuously audits urban heat anomalies, simulates physics-based cooling interventions, and delivers ready-to-execute capital reduction strategies.
Simulate how high-albedo roofing, urban canopy expansion, or ACI 305R concrete mix adjustments yield quantifiable temperature drops and capital savings.
Autonomous Pipeline
Instead of manual inspection or siloed GIS exports, four specialized AI agents work autonomously — continuously scanning, auditing, simulating physics, and generating actionable capital briefs.
Continuously scans microclimate sensor feeds across urban grids. When 2-meter pedestrian air temp spikes +3.5°F above baseline, it flags an active thermal anomaly.
Inspects 3D building geometry, roof albedo, surface emissivity, and surrounding tree canopy deficits to pinpoint the primary heat-trapping structures.
Performs thermodynamic simulations on proposed cooling interventions — testing high-albedo coatings, urban tree canopies, and permeable pavements before deployment.
Synthesizes physics models into actionable executive briefs, contractor material specifications, ACI 305R compliance schedules, and multi-year ROI reports.
Enterprise Features
Measures ambient air temperature at 2 meters — the exact atmospheric layer where citizens breathe and thermal stress occurs.
Evaluates job-site temperature risks, optimizes concrete mix recipes with SCM replacements, and creates compliant hot-weather pour plans.
Calculates district-wide HVAC load reduction, annual electricity savings, carbon credit equivalents, and projected capital payback.
Interactive hexagonal heat maps, 3D extruded building models, and real-time intervention toggle layers for immediate visual impact.
Trigger threshold for autonomous UHI alerts
Pedestrian measurement height for ground truth
Autonomous AI team running audit to reporting
Average construction rework & heat risk reduction
Track ongoing construction job sites — hospitals, commercial towers, public infrastructure — and analyze local ambient temperatures to prescribe the exact concrete mix, curing protocol, and pour timetable per ACI 305R hot-weather guidelines.
Institutional · 42,000 m² · Active Foundation Phase
Recommended Material Formulation
Type II/V Low-Heat Portland Cement + 30% Slag replacement + Retarding Admixture
Recommended Execution Window
Night pouring window (10:00 PM – 5:00 AM) & continuous water curing per ACI 305R
See heat hotspots on a live 3D map, run thermodynamic simulations, and generate actionable engineering reports.