Division Integration
PHASE FLASH
Provides the vacuum chambers within which Phase Flash's flash evaporation operates. Sub-torr pressure environments are a prerequisite for controlled vapor deposition at cryogenic temperatures — without Vapor Vacuum's UHV chambers, Phase Flash cannot achieve the clean vapor phase transitions that underpin its separation and desalination technology.
STELLAR FURNACE
Ultra-high vacuum environment for plasma confinement vessel interiors. A fusion reactor's plasma cannot interact with residual gas molecules — any pressure above 10−8 torr quenches the plasma and poisons the confinement. Vapor Vacuum engineers the internal vessel environment of every Stellar Furnace compact toroid, maintaining XHV conditions during both startup and sustained operation.
METALLIC SCIENCES
Vacuum arc remelting furnaces require Vapor Vacuum chamber systems. Metallic Sciences' most demanding alloy production processes — including MS-12 entropy-stabilized alloy and CVD diamond growth — occur inside Vapor Vacuum UHV enclosures. Arc remelting under high vacuum eliminates dissolved gas inclusions and oxide contamination that would compromise the mechanical properties of the finished alloy.
AETHERIC SCIENCES
Photonic chip fabrication requires Class 0 vacuum clean rooms. Aetheric Sciences' photonic processor production relies on molecular-beam epitaxy and atomic layer deposition processes that cannot tolerate airborne contamination at any concentration. Vapor Vacuum delivers and maintains the clean-vacuum environment — a hybrid of traditional cleanroom particle filtration and UHV outgassing control — in which every Aetheric photonic wafer is grown.
LORENTZ AEROSPACE
Space-grade vacuum seals for MHD propulsion systems. Lorentz Aerospace's magnetohydrodynamic drive channels must maintain hard vacuum at the plasma interface while operating under thermal cycling between cryogenic and multi-thousand-Kelvin conditions. Vapor Vacuum engineers the sealing systems — metal knife-edge flanges, NEG-coated transition sections, and active leak-monitoring infrastructure — that keep MHD exhaust channels isolated from ambient atmosphere during ground testing and transit.
23 RESEARCH REFERENCES
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