Drying Solid Materials With Heat TRIZ Cases

Segmented suction openings distribute negative pressure evenly, preventing media lifting and ink transfer while maintaining high evaporation rates.

A vertical tube reactor with a permeable membrane sleeve separates descending aerosol droplets from ascending drying gas to enable diffusive solvent removal.

Mechanical agitation prevents mold growth from poor airflow while reducing labor intensity during drying.

Active cooling prevents overheating and pattern collapse during semiconductor substrate processing.

A substrate drying apparatus uses supercritical fluids to remove solvents from semiconductor wafers.

Hot vapour injection evaporates hydrocarbons from drill cuttings at lower temperatures, preserving molecular structure and reducing energy consumption.

Non-uniform electric fields induce dielectrophoresis in EHD drying, separating vapor from liquid phases to resolve high energy consumption trade-offs.

A gas-permeable counter-reflector introduces cooling gas to prevent condensation and reduce bubble formation in solvent-based printing ink drying.

Top-down airflow through the drying layer prevents local overheating and ensures uniform cereal dehydration.

Segmented lamp sockets allow individual bulb replacement, reducing downtime and optimizing space in epitaxial deposition chambers.

Inverted radiation emitters heat the glass substrate to cure organic coatings, preventing cracks caused by high power density.

A heating region adjacent to a cooling gas supply maintains temperatures above the dew point to prevent condensate formation on treatment chamber walls.

Discrete contact points on the edge lip minimize temperature gradients during rapid heating.

A vacuum heating cooling apparatus uses a movable substrate base to position wafers for rapid thermal processing.

Depositing a polymer-nanoparticle solution between high aspect ratio structures prevents capillary collapse, then plasma removes the support.

Stackable drying trays nest vertically to reduce storage height, while a removable splash guard protects the mechanical space from liquid entry.

Variable frequency microwave heating evaporates solvents from medical device coatings through dielectric action across 300 MHz to 40 GHz.

A continuous drying system uses microwave radiation and radio frequency energy to heat fibrous materials.

A rotating tubular member with independent temperature zones continuously transfers frozen substances through sublimation stages.

A circuit substrate drying method moves the wafer through a liquid bath to form a meniscus, applying thermal radiation directly to that transition area for rapid evaporation.

Optic group reflecting members distribute radiation to treat head and tail surfaces, resolving non-uniform coating issues.

Suction regeneration prevents saturation of the moisture-absorbing material, maintaining drying effectiveness and reducing contamination risks.

GaN LED arrays heat silicon substrates during alignment, eliminating dedicated preheating stations and reducing processing time.

Optimizing guide roller surface roughness to 2-8 micrometers prevents liquid peeling and image defects while maintaining high drying speeds.

Increasing roller contact area balances heating duty cycles, reducing power consumption imbalances while maintaining consistent drying performance.

A drying section generates electromagnetic waves to evaporate liquid from a recording medium while a gas intake section removes the vapor.

A vacuum-pressure drying system uses a heated platen to boil off moisture from electronic devices, preventing component damage caused by excessive heat.

A reflector redirects infrared rays from a dual-tube heater toward the film, reducing furnace wall absorption and lowering required heater output.

Installing a line filter between the extractor and pressure valve prevents salt accumulation, reducing cleaning time and ammonia wastewater.

Intermediate space mediator prevents granular accumulation and jamming before shutters, enabling reproducible discharge quantities.