After-Treatment Apparatus TRIZ Cases

Diagonal carbon-fiber strands absorb crucible expansion stress to prevent cracking, melt leakage, and shape loss in silicon crystal pulling.

A woven carbon fiber mesh with a carbonaceous inner layer stabilizes large crucibles, absorbs melt expansion, and improves heat transfer.

Chemical wet cleaning integrated with load locks and vacuum transfer cuts surface contamination before epitaxial growth without high-temperature baking.

A dual-arm transfer robot cuts substrate cool-down delays by adjusting chamber cooling time to transfer wait time, boosting throughput.

UV exposure and low-pressure gas activation improve low-temperature epitaxial deposition uniformity while limiting substrate heating.

Independent motors move lift pins and substrate supports separately, reducing sequential handling delays and improving chamber throughput.

Air-sensing feedback and heat exchange stabilize deposition temperature and improve by-product analysis, reducing chamber cleaning frequency.

A segmented hot-zone chamber uses steam injection and a labyrinth exit path to anneal wafers above 500°C and 50 bar without seal failure.

Carrier-gas vapor transport deposits perovskite films with separate temperature zones, lowering vacuum cost and limiting organic precursor degradation.

Localized heating through a chamber window preconditions substrate holders to reduce thermal shock, improve deposition uniformity, and raise throughput.

A small Si addition enables pressureless sintering of high-melting metal carbides, delivering dense, strong heat-resistant parts.

A sensor-guided jig detects nozzle position in a reaction tube to speed alignment, avoid boat contact, and maintain stable film formation.

Parallel processing volumes with side heating and shared gas exhaust improve epitaxial temperature uniformity, throughput, and growth rates.

Multiple vertically spaced substrates are processed together using shared gas flow and level-based heating to raise epitaxy throughput and uniformity.

A thermally isolated mini-environment enables high-temperature, high-pressure wafer annealing while keeping seals and chamber components cooler.

Stacked perforated metal layers cut heat loss while supporting thermal cycling and mechanical loads in high-pressure crystal growth equipment.

Automated clamp actuation secures the ingot receiving vessel to the isolation valve, reducing manual errors and seal leaks.

Sealed edge layers block gas and liquid penetration, helping quartz heat reflectors resist breakage, dust, and chemical washing.

A quartz-glass and siliceous powder laminate uses impermeable and buffer end layers to keep high reflectance, resist breakage, and allow chemical washing.

A graded buffer layer and impermeable edge seal help a quartz glass heat reflector resist cracking, dust, and chemical washing at high temperature.

Dual motor-driven support blocks enable independent lift pin and substrate support motion, cutting transfer delays in batch processing chambers.

A sensor-guided jig aligns a nozzle in a reaction tube, preventing boat and wafer contact while enabling stable film forming.

A separate material chamber and telescopic feeder let silicon charging proceed during rod removal, cutting cycle time in crystal growth.

Rounded PBN container apertures and controlled cut-face angles reduce conductive film peeling and breakage in electron beam evaporation.

A curved PBN container aperture with a 20°-80° cut angle reduces stress, prevents conductive film peeling, and extends evaporation life.

A collinear load-lock and manipulator layout stabilizes MBE substrate transfer, reducing dropping and heater short-circuit failures.

Mass flow controllers and pressure sensing replace slow pressure control in a MOCVD bubbler, enabling stable flow and faster gas composition changes.

Low-carbon, low-hydrogen gas-phase deposition anchors tantalum carbide into graphite pores to resist chemical attack and reduce coating delamination.

Nested spiral temperature elements even out thermal gradients during crystal growth, improving heating uniformity and reducing lattice defects.

Pump-purge cycles remove moisture and oxygen after maintenance, restoring an inert transfer-chamber atmosphere for defect reduction.

Controlled zirconium, yttrium, and scandium oxidation forms oxide dispersoids that improve platinum creep strength while shortening production.

This process limits 400–650°C exposure in Czochralski silicon to preserve carrier lifetime and uniform solar-cell efficiency.

High-shear agglomeration forms strong alumina beads with fewer processing steps.

Vacuum ports and helium flow control the furnace atmosphere, helping evacuate bubble-forming gases during fusion for high-purity quartz.

A rotating porous stirring blade supplies reaction liquid near its periphery, improving shearing and uniform fine particle production.

Rotating mandrel deposition creates uniform nanocrystalline diamond shells that resist plasma instabilities in laser fusion targets.

Halide gas intermediates resolve porosity and purity contradictions in metal nitride film growth, enabling high density crystalline compositions.