Drying Solid Materials Without Heat TRIZ Cases

Sufficient modified placental tissue recruits stem cells to injury sites, and vacuum dehydration reduces drying time without damaging tissue integrity.

Load sensors track condenser ice accumulation to calculate product temperature, resolving measurement precision limits without adding thermal sensor complexity.

Chemical drying pills absorb residual water from pipelines, eliminating heavy equipment costs and corrosion risks.

A substrate drying method uses a sublimation agent film to dry the front surface of patterned substrates.

Automated controllers adjust temperature and pressure profiles to prevent structural collapse during sublimation.

Nitrogen injection establishes pressure gradients that expel trapped air and moisture, eliminating pinholes in biocomposites.

Vacuum drying treats wet electroactive layers to achieve uniform thickness, resolving non-uniform evaporation issues in electronic device manufacturing.

Dynamic Parameters Estimation algorithm calculates real-time product temperature from chamber pressure data.

Alternating pin groups prevent Mura defects and curvature by shifting contact points during vacuum drying.

Cycling air pressure in the drying chamber boosts moisture evaporation rates, shortening drying time without requiring larger vacuum equipment.

A cell freeze-drying system supplies warmed nitrogen to a precooled chamber for sublimation.

A flexible polymeric container enables rapid lyophilization through dynamic pressure control and infrared heating.

Integrating a sound generator into the reception apparatus accelerates sublimation and reduces energy consumption by eliminating separate condenser chambers.

Variable frequency control of a synchronous motor delivers uniform torque at low speeds, eliminating overheating risks and reducing apparatus dimensions.

A vacuum cleaning apparatus uses a temperature-controlled condensing chamber to rapidly dry workpieces after solvent vapor treatment.

Partial-width grooves segment the baked good for easy portioning without exposing fillings, resolving the trade-off between handling ease and mess prevention.

Segmented carriage and removable guides enable automated loading while maintaining aseptic cleaning access.

Freeze aqueous fluoropolymer suspension then sublimate carrier to yield dry powder, avoiding tight agglomeration and fibrillation.

Supercritical carbon tetrafluoride eliminates surface tension during wafer drying, preventing crystal grain collapse and reducing production costs.

Uniform nitrogen gas flow sublimates solidified films on substrates, preventing pattern collapse caused by uneven liquid removal.

Nesting the collector within the cold chamber prevents moisture ingress and ice melting during transfer.

A thin film multilocular collagen structure promotes nerve tissue regeneration without laminin or nerve growth factor.

Centrifugal dryer rotor lifters and high-angle agglomerate catcher increase pellet throughput capacity while maintaining low moisture content.

Alternating constant-pressure and constant-temperature phases control sublimation rates while preventing overheating damage to sensitive substances.

Integral outward deflectors disrupt circular flow and prevent banding, maintaining rotor clearance while enhancing particle flow rates.

Series-connected Venturi nozzle generators produce a horizontal solvent vapor flow that reduces heating time and energy consumption in vacuum drying.

A moving belt transports beads through fluid removal and collection zones using reduced pressure for automated processing.

High-velocity gas injection separates polymer pellets from water slurry to retain latent heat for self-initiated crystallization.

A vacuum throttle flash generator accelerates air through a choke point to create sub-atmospheric pressure for moisture removal.

A drying apparatus uses sequentially positioned fans to generate high air pressure and airflow.

Segmented pressure drying manages mixed solvent evaporation to eliminate thickness variations and ensure uniform organic film formation.

Continuous dehydration system recovers waste heat to preheat initial matter, reducing specific energy consumption and eliminating idle periods.

Electromagnetic sensors measure material moisture content to dynamically adjust drying parameters, eliminating offline testing delays and energy waste.

A segmented vacuum drying tank uses a button-operated seal to maintain internal pressure within a compact shell.

Bottom inlet and top outlet ports in the buffer tank prevent particle accumulation while absorbing pressure fluctuations.

A substrate drying nozzle directs an inclined gas flow to collide downstream of the discharge position, removing rinse agent from the wafer surface.

A protective apparatus with a stiffening plate and vacuum seal ring prevents screen collapse caused by negative pressure during vacuum drying.

Segmented air paths with insulating layers prevent dew condensation while maintaining high heat efficiency for printed matter.

A control system monitors and adjusts drying parameters using real-time sensor data.

A selectively permeable membrane allows solvent vapor escape from containers during freeze-drying.

Multivariate analysis creates process fingerprints to monitor freeze-drying conditions in real time.

Tangential inlet design guides wet plastic granulate into a centrifuge dryer rotor with reduced mechanical impact.

A substrate drying method places a liquid sublimation agent on the front surface while supplying a high vapor-pressure liquid to the rear.

Vacuum plant oil extractor uses electric gas pump and food-grade tray to separate essential oils from solvents via evaporation.

A substrate processing guard isolates the wafer area while an internal nozzle supplies liquid and inert gas to replace ambient atmosphere.

Vacuum adiabatic expansion enables continuous multi-effect evaporation of high-moisture biomass, eliminating energy-intensive drying steps.

Matching flow passage cross-sections to gap spaces suppresses turbulence and prevents impurity adhesion on substrates.

A vacuum drying condenser applies a temperature gradient to balance solvent evaporation rates, resolving uneven ink drying in OLED panels.

Segmented gas injection targets wall cavities directly, resolving the trade-off between rapid drying productivity and building occupancy constraints.

Height-adjustable connection opening optimizes evacuation speed and uniformity across shelves while eliminating separate inspection valves.