Drying Solid Materials With Heat TRIZ Cases

Segmented discs with scrapers remove material buildup while mechanical vapor recompression raises steam temperature for energy-efficient drying.

Convective gas bars direct supply gas through feed holes and nozzles to dry print material without damaging the medium or increasing energy costs.

Injecting pressurized gas through sealed cavities drives moisture from concrete pores to the exterior surface.

Air pump moves dry air through piping to prevent corrosion from stagnant water.

Automated image processing detects nozzle deposit buildup by comparing live camera feeds against digital references, eliminating manual inspection time.

Segmented fan arrays maintain continuous airflow through lumber stacks, eliminating overheating risks from periodic reversals.

Tuning electromagnetic radiation to solvent absorption spectra enables uniform drying while preventing substrate deformation and discoloration.

Vacuum mixer extracts air and heating device evaporates moisture to condense vapors, eliminating foul odors in compact gastronomic settings.

A heat pump closed loop drying system recycles heated air by condensing moisture and reheating the gas for chamber reuse.

A control unit pre-heats the dryer to a higher target temperature before increasing outside air intake.

An upstream inlet air unit draws air between a substrate and a temperature controlling member, eliminating film wrinkling caused by trapped air pockets.

Embedded water channels cool reflectors, eliminating air intake contaminants and reducing startup time.

A planar gas path heater ejects gas across a substrate-heating surface to maintain uniform film growth conditions.

A pressure monitoring system detects airflow disruptions in wood drying compartments by measuring differential pressure between specific positions.

Ultrasonic cavitation removes heavy particles while microwaves dry pores, eliminating long thermal drying times.

External solvent recovery chambers condense volatilized solvents from ink-jet printing, reducing production costs.

A spray drying process reduces pathogens in dried plasma while maintaining protein stability.

Spatially assigned exhaust air streams remove moisture from substrates dried by infrared radiation and heated process gas.

Electrical isolation between adjacent LEDs enables high packing density, reducing maintenance costs while maintaining target irradiance levels.

Direct heating elements eliminate rolling line downtime by enabling precise temperature control of the refractory material during the drying cycle.

Pressurized nitrogen heating eliminates steam pressure risks, preventing cracking and reducing treatment time from days to hours.

A continuous-flow dryer uses partial exhaust air removal to create negative pressure and prevent dust emissions.

Alternating wiring patterns with protruding parts enable a square lattice of LED elements, preventing uneven curing of ultraviolet curable resins.

Aligning semiconductor wafers to uniform temperature gradient regions prevents breakage from non-uniform thermal stress during rapid thermal processing.

Segmented exhaust stacks and pressure sensors regulate humidity distribution, preventing thermal damage to wood veneers during high-speed drying.

Three-phase transformer configuration with Scott transformers balances current flow to heating lamps in vacuum environments.

Active cooling of a thermally conductive drum prevents print media charring while enabling higher power radiant drying speeds.

A hot gas feed ring surrounds the induced draft to uniformly distribute heat, eliminating temperature streaks that cause uneven textile drying.

A polyurethane or elastomer liquid distributor replaces metal components in rotary atomizers to reduce weight and assembly risks.

A low-temperature dryer heats gypsum boards below 130°C using warm air flowing between levels.