See how a dual-purpose CO2 system evaporates stored liquid CO2 in a secondary evaporator to mai
See how RF output and multi-step temperature control stabilize supercooling without cavity sens
See how a radio-synchronized control unit inhibits compressor activation during night hours usi
See how a siphon mechanism and partitioned reservoir prevent hot condenser air from entering th
See how multiple cold fingers with flexure regions thermally combine cryocoolers to increase co
See how dynamic cooling power and damper adjustment maintain refrigerator temperature stability
See how variable-speed compressor and damper control maintains storage temperature within set r
See how an engine-driven compressor and generator enable temperature-controlled storage to oper
See how delay-power operation reduces refrigerator compressor cycling and power consumption whi
See how a ferromagnetic capsule and magnetic wand enable liquid nitrogen freezing of spirits, e
See how a ferromagnetic capsule and magnetic wand enable liquid nitrogen freezing of spirits to
See how a double-walled chest insert with refrigerant gel stabilizes humidity and buffers tempe
See how a thermal barrier divides a cryogen vessel into upper and lower compartments to maintai
See how delay-power operation and dynamic damper adjustment maintain stable refrigerator temper
Composite TES modules absorb and conduct heat to stabilize cryogenic temperatures while reducing thermal gradients, mass, and volume.
An isolating heat exchanger separates primary and secondary refrigerant loops to cut complexity while enabling ice storage and direct cooling.
An intermediary gas loop and controlled heating keep NMR cooling gas dry, pressurized, and stable without condensation or droplet formation.
A sealed cryogenic exchanger uses controlled condensation and variable heating to keep NMR gas dry, pressurized, and temperature-stable.
Independent GM and GM/JT cooling with gas heat transfer stabilizes superconducting coils during excitation and demagnetization.
An isolating heat exchanger separates primary and secondary refrigerant loops, enabling flexible ice-make, ice-melt, and direct cooling with lower cost and power use.
A spring rod braces the evaporator across insulated walls to absorb wall variation while limiting movement, rigidity loss, and noise.
An isolating heat exchanger separates primary and secondary refrigerant loops to improve ice storage cooling efficiency, flexibility, and cost.
An isolating heat exchanger and thermosiphon separate primary and secondary refrigerant loops to simplify ice storage cooling and cut power use.
An internal absorbing muffler in the oil separator dissipates compressor pressure pulsations into heat, cutting vibration and noise without added footprint.
A cam and return spring open refrigerator doors with fewer motor reversals, cutting wear, speeding sequential opening, and detecting faults early.