HVAC & INTERNAL ENVIRONMENTAL CONTROL
We design and optimize internal airflow distribution, ventilation networks, and thermal comfort profiles within commercial buildings, cleanrooms, and vehicle cabins. Our simulations map age-of-air metrics, pollutant dispersion tracks, and buoyancy-driven natural convection currents to ensure compliance with strict ASHRAE and cleanroom standards. This predictive analysis optimizes duct geometries, fan placements, and diffuser angles to drastically lower HVAC energy demands.
Electronics Thermal cooling Management
We optimize component-level and board-level heat dissipation to maximize the long-term reliability of high-power microelectronics. Utilizing advanced thermal-fluid modeling, we integrate phase-change materials, optimize heat pipes, and engineer customized heat sink geometries to mitigate hot-spot formation. Our analysis aims to prevents thermal throttling, safeguards delicate semiconductor junctions, and extends the life of ruggedized electronic enclosures.
CRYOGENIC & EXTREME ENVIRONMENT SYSTEMS
We engineer sub-ambient and cryogenic systems to maintain strict thermal insulation and structural stability under ultra-low storage conditions. Our models capture non-linear material properties, cryogenic thermal conductivity variations, and phase transitions down to liquid nitrogen or liquid helium levels. This specialized analytical capability safeguards propellant delivery lines, scientific sensors, and super-cooled superconducting hardware.
Orbital & Spacecraft Thermal Control
We design and verify passive and active thermal control systems (PTCS/ATCS) to survive the brutal radiation environments of deep space. Our team models orbital solar flux, planetary albedo, and deep-space radiation sinks across radiator panels. These predictive models ensure satellite payloads and sensitive optical equipment remain within strict operational limits throughout severe beta-angle variations.