Products & technology
Transfer heat rapidly into high-enthalpy PCM through a conductive network. Low supercooling and cycling stability support repeated storage and release, connecting waste heat and low-cost energy to process demand through plates, cores and cabins.
Products we supply
PCM materials and storage plates
High enthalpy concentrates storage in the selected phase-change range, while low supercooling reduces delayed solidification and helps match process delivery temperatures.
PCM and plate geometry selected for source/sink temperatures and cycling conditions.
Product detailsConductive cores and storage cabins
The continuous graphite network reduces internal heat-transfer bottlenecks. Plate layers and flow paths then make stored heat available within the required period.
Plate assemblies, flow channels and heat-exchange interfaces sized for capacity and power.
Product detailsShape-stable modules and integration
Pore confinement limits phase separation. Shape-stable leak-resistant design and flame-retardant selected formulations provide a material basis for repeated operation and integration.
Stacked, tubular, custom-plate and air-channel formats, validated with equipment partners.
Product detailsULTRAST / MATERIAL SCIENCE
Design usable heat, transfer power and cycling life together so stored energy serves the process when required.
01 / High conductivity: move heat into PCM faster
A continuous three-dimensional graphite network provides heat paths and reduces internal heat-transfer bottlenecks in UltraST.
Data and validation basisHeat-exchange validation: charge/discharge curves at specified flow and temperature difference
02 / High enthalpy: store heat within limited space
Latent heat stores energy within the selected transition range; usable capacity follows the effective PCM content of the finished product.
Data and validation basisModel parameters: latent heat, effective PCM mass and module capacity
03 / Low supercooling: solidify nearer the target range
Reduce delayed solidification so the material can store cooling or release solidification heat closer to its intended temperature range.
Data and validation basisMaterial validation: phase-change range and solidification onset
04 / Stable cycling: recover capacity repeatedly
Confinement limits component migration and phase separation to support thermal performance over repeated charge/discharge cycles.
Data and validation basisDurability: enthalpy, phase separation and conductivity after cycling
05 / Flame retardancy for safer integration
Flame-retardant selected UltraST formulations work with encapsulation; combustion performance is assessed for the material and finished product.
Data and validation basisTest documentation: formulation and product combustion performance
06 / Shape-stable, leak-resistant design
Pore confinement and the composite skeleton hold the PCM core, reducing migration and liquid-leakage pathways after melting.
Data and validation basisProduct validation: dimensional stability, leakage condition and interfaces
UltraST targets high conductivity and enthalpy, low supercooling and stable cycling, with shape-stable leak-resistant design and flame-retardant selected formulations. Metrics apply to the selected formulation, temperature range and product; microcapsules are assessed for their own materials and processes.
Storage plates, stacked cores and heat exchangers in waste-heat or process loops.
Transfer available heat into PCM through a heat exchange interface.
Release stored heat into a compatible process loop when demand arises.
After discharge, connect the next heat source. Temperature differences and schedules determine the cycle.
EXPLORE FURTHER
Performance and available capacity depend on the product, operating conditions and validation.
Engineered PCM plates with embedded flow channels. Specify into your own heat exchanger or process module — we provide chemistry, plate geometry, and integration spec.
Pre-engineered stacked-plate cores with inlet / outlet manifolds, instrumentation interfaces, and validated charge / discharge curves. Sized to your process or HVAC loop.
An annular PCM cold-storage sleeve sized to the outer diameter of HVAC chilled / cooling-water pipes. It stores cold and shaves peaks right at the pipe, damps supply/return temperature swings, and slows temperature rise inside the line during chiller stops or power loss.
A plate-type PCM cold-storage module built into fresh-air / ventilation ductwork. It charges cold during off-peak or overnight hours and discharges at peak to pre-cool the supply air — trimming peak fresh-air load and steadying supply-air temperature.
Transfer available heat into PCM through a heat exchange interface.
Release stored heat into a compatible process loop when demand arises.
After discharge, connect the next heat source. Temperature differences and schedules determine the cycle.
Structures and cycles illustrate the principle. Selection, capacity and performance depend on operating conditions and validation.
Discuss this application
Source and sink temperatures, flow rates, operating windows and target capacity.