Drying Gas Arrangements TRIZ Cases

Parallel cold and warm heat pump branches cut airflow resistance and energy use in laundry drying while speeding moisture removal.

A rotating brush clears lint from the dryer filter automatically, maintaining airflow, reducing manual cleaning, and lowering fire risk.

Elastic support protrusions hold the dryer lower duct with controlled spacing, absorbing vibration and suppressing collision noise during operation.

A scraper-cleaned duct filter and removable lint collector keep drying exhaust cleaner while reducing clogging and breakdown risk.

Counter-flow inlet and outlet air pathways precool humid air and reheat dry air around a cooled core to cut dehumidification energy use.

Sensor-based updates to load size and air flow improve dryer cycle time prediction, reducing overdrying, wrinkles, and wasted energy.

A top-mounted heat-pump condensing module frees cabinet space in laundry dryers while dehydrating and reheating recirculated drying air.

A separable heat pump switches between cabinet drying and standalone dehumidification, using mode-based compressor control to improve energy use.

A float-coupled electrode sensor detects condensed water level and triggers pump-out, simplifying moisture management in condensation dryers.

Adaptive exhaust temperature set points cut dryer temperature swings, reducing energy use, drying time, and fabric overheating.

Dynamic conveyor belt speed helps a textile dryer heat up and cool down faster, cutting energy waste while keeping drying temperature stable.

Narrow air inlets and a spaced flow-guide plate form a double-slit intake that cancels sound waves and cuts hand dryer noise.

A ducted heater and fan use 12V or USB power to dry footwear without a bulky floor stand, improving portability and outlet flexibility.

Rolling averages of compressor watts, refrigerant pressure, or temperature indicate true dry-cycle completion and avoid energy-wasting over-drying.

Locking the drain tank, air filter, and switch cover prevents tampering, water dripping, and improper shutdown while keeping maintenance access controlled.

Hot water spray, vacuum suction, and hot air dry chandelier crystals quickly without chemicals, tenting, or dripping.

Inverter motor control keeps drum speed and recirculating airflow stable despite lint-clogged heat exchangers, cutting drying time and overheating.

Dryness sensing adjusts wool-course drying time and heater use to meet wool mark targets while limiting shrinkage and deformation.

Elevated outlet placement biases refrigerant toward the high-pressure path while desiccant removes moisture that could freeze and obstruct flow.

A siphon-shaped drain path and separate reservoir guide condensate away from drying air, preventing fluff clogging and heat exchanger wetting.

A guiding portion steers dryer support elements over the pouring opening to prevent bush hooking, condensate spills, and extraction blockage.

A sloped reservoir and guide plate remove evaporator condensate, preserving heat exchange efficiency and keeping the condenser clean.

An inlet filter cleans recirculated dry air in a clothes cabinet, limiting odor and dust transfer while keeping treatment uniform.

Conductive baffles and visual dryness selection help a laundry dryer control moisture precisely and verify sensor faults without disassembly.

Relative filter-cleaner movement removes lint automatically, maintaining dryer airflow and lowering firing risk from buildup.

Separate drying chambers, sensor-based air recycling, and controlled purging improve drying efficiency while reducing fabric damage and static.

Pressurized heated air and vacuum drying remove wall moisture through existing outlets, avoiding holes, dust, and long restoration delays.

A ready-to-mount top condensing module frees cabinet space by integrating drying-air dehumidification, heating, and condensate separation.