Drying Solid Materials With Heat TRIZ Cases

Segmented U-profiles with removable covers route supply lines internally, reducing contamination risks while maintaining mechanical stability.

Varying microwave frequencies remove moisture from electrode materials, preventing nodal planes and enabling continuous roll-to-roll processing.

A portable endoscope dryer uses a telescopic clamp to secure the instrument during rotation.

Mechanical drying and pelting create unfermented manure pellets with high NPK values and structural integrity.

A microwave applicator stiffens dielectric materials through internal heating.

A closed-loop heat pump drying system recovers energy from exhaust air to produce moderately heated, dry airflow for bulk materials.

Gas spectroscopy measures water vapor in canister headspace, replacing complex vacuum monitoring that increases radiation exposure risk.

A wavelength-selective filter reflects ultraviolet radiation while transmitting infrared light to a dedicated absorber.

A curing system uses a processor to customize bake cycles by adjusting temperature points on a graph displayed to the user.

Heated dry gas flows over blood smears in a laminar pattern, reducing drying time while preventing cell distortion caused by turbulent air.

A cooling plate guide groove directs exterior air into the substrate space to maintain pressure equilibrium during thermal processing.

Inclined heating means reduce in-plane temperature differences during printed circuit board drying.

A laminated heat radiation device uses a high-conductivity front substrate and low-emissivity rear metal to minimize heat loss from the back surface.

Adjusting rotation speed keeps centrifugal acceleration constant, preventing liquid film width expansion and residue defects.

Near-infrared radiant heat selectively evaporates residual liquid from electronic components, eliminating physical contact damage and bacterial growth risks.

Recessed heating lamp bases limit air flow between adjacent units to maintain envelope temperatures, preventing filament depletion from material deposition.

Segmented drying zones with progressive parameter changes reduce hydrophilic softgel processing time to under 24 hours while maintaining structural integrity.

Neutralizes rising damp by canceling humidity-generated electric field interference without chemical additives or external electrical power.

Counterflow rotary dryer reduces floor space and energy waste by circulating hot gas through rotating perforated plates.

Two-step flash lamp photo-irradiation raises substrate temperature at depth to repair defects without causing thermal damage to the semiconductor wafer surface.

Recycling radiation dryer exhaust air into the convective supply duct raises energy efficiency from 53% to 64% while controlling moisture.

A modulating damper and tube-axial fan maintain near-zero pressure differential, preventing air leakage that causes VOC emissions and pitch buildup.

An air nozzle design channels a medium through an outlet chamber to dissipate heat from an infrared light assembly.

A substrate treatment apparatus removes moisture and residues from wafers at atmospheric pressure using a movable carrier and controlled gas flow.

Nitrogen drying prevents polymer degradation while maintaining throughput.

A compact fluidized bed apparatus integrates air conditioning and filtration around the process chamber to reduce space requirements.

A cordless heating tool uses reflectors to focus radiant energy toward a focal region for precise object heating.

Sequential frequency application reduces curing time while maintaining structural strength and minimizing shrinkage cracks.

A toner heat treating apparatus uses a rotating member to distribute hot air spirally within the chamber.

Infrared radiation removes trapped solvents from nanofiber webs, eliminating polymer degradation risks and costly fluid stripping systems.

Compartmentalized oven design regulates hot air flow to improve temperature distribution uniformity across the fiber mat for precise binder curing.