Granulation By Liquid Drop Formation TRIZ Cases

See how injecting a second supercritical fluid flow into the throttling device enables controll

A relocated granule outlet and internal deflection device shorten conveying paths, cutting granulation plant height without losing capacity.

A ceramic-surfaced cyclone recovers fine powder during spray drying, raising granule yield while keeping metallic impurities at 20 ppm or less.

Hydrophilic nanowire regions within hydrophobic surfaces isolate nanosized droplets and improve target capture for digital ELISA and ddPCR.

A pressure gradient and inert-gas cooling form low-fine-fraction granules, reducing dust and electrostatic issues in OLED material handling.

Extrusion and water binding turn biodegradable pellets into packaging components with structural integrity and moisture resistance.

A reactant bath crosslinks nutrient-rich hydrocolloid drops at high throughput, producing uniform beads that resist syneresis.

An oxidizing agent and rapid cooling convert phosphate- and iron-bearing slag melt into amorphous glass for high-hydraulicity binder.

Internal deflectors extend drop trajectories within the gelling bath, preventing cluster formation at high production frequencies.

An air-less nebulizing unit pressurizes feeding solutions to generate micro-drop jets impacting a gelifying liquid surface.

A prilling tower uses a funnel-shaped conveying structure to move solid product via gravity and air flow.

A particle generating apparatus forms drops from a flowable medium and solidifies them on a specialized surface to create uniform particles.

Liquid droplet generators eject solute droplets into a second liquid stream to extract solvent and form solid beads.

Axial upflow mixing decouples liquid level fluctuations from prill plate pressure, resolving viscosity and control precision trade-offs.

A polymerization reactor design guides monomer droplets vertically into a fluidized bed using specific hydraulic diameter ratios.

Inorganic slurry additives replace organic binders to prevent black coring while maintaining mechanical resistance in ceramic tiles.

A nozzle system controls flow parameters to adjust particle diameter, resolving broad size distribution in continuous precipitation.

Atomizing a D-tagatose and functional polymer feed solution to produce solid composite particles, replacing slow crystallization with rapid spray drying.

Heated nitrogen accelerates porous molybdenum and tungsten aggregates through a nozzle to resolve brittle material adhesion issues.

A spray drying apparatus produces dense spherical magnesium oxide particles using distilled water and heat treatment.

Extension tubes with hydrophobic outlets and shear devices produce uniform microparticles, resolving diameter variability from surface tension.

Applying a hydrophobic coating to the rotating outer drum prevents residue adhesion, ensuring uniform droplet deposition without secondary drops.

Supercritical fluid mixing resolves nozzle clogging and physical property degradation by eliminating high-temperature heating during polymer granulation.

Gas flow control manages droplet velocities to prevent coalescence, resolving broad particle size distribution issues in toner manufacturing.

A pulsation device adjusts frequency and pressure amplitude to match inherent resonator frequencies for precise oscillation control.

Multiple parallel nozzles maintain precise particle size characteristics while scaling up SEDS productivity.

Localized turbulence injection enables low-temperature spray drying, reducing material degradation and equipment volume.

Internal acicular release agents prevent offset without crushing toner particles under mechanical stress.

Centrifugal plasma atomization transforms tungsten monocarbide grit into spherical powder under inert atmosphere.

Ultrasonic spray pyrolysis converts molybdenum salt precursors into uniform oxide particles for scalable manufacturing.

Flash nozzle cavitation atomizes heated feed suspension, resolving low solubility bottlenecks to produce homogeneous particles.

Fins on the spray drying head direct gas flow to aerosolize blood plasma, eliminating refrigeration needs and thawing delays.

Crosslinking polymer droplets in mid-air using digital light processing creates structured particles with precise size control.

Segmented spray drying and fluidized bed agglomeration produce mechanically stable particles up to 1000 μm, resolving abrasion issues in high-load applications.

Counter-current gas flow in a reaction tube cools liquid drops into monodispersed particles, resolving aggregation and heat transfer bottlenecks.

Polar aprotic capture fluids collect nanoparticle aerosols to resolve suboptimal collection efficiency and enable enhanced photoluminescent properties.

Positioning the cryogas supply unit above the spray nozzle creates a cooling envelope that prevents product deposits on the equipment and walls.

Sequential granulation merges wet and dry stages in one unit, eliminating the separate drying step that increases energy consumption.

Modulating vibration frequency and amplitude via flow rate feedback reduces urea droplet dispersion, resolving precision versus complexity trade-offs.

Segmented reactors enable rapid cooling below the gelation point, preventing coalescence and aggregation while maintaining high production speed.

Flame spray pyrolysis synthesizes cubic LLZO electrolyte powder at 670°C, preventing lithium loss and enabling co-sintering with NMC cathodes.

Introducing nitrogen-rich gas between pumps in a spray-drying process to form low-density detergent powder.

Thermoplastic polymer particles with controlled aspect ratio and roundness generate thermal energy during processing via cold crystallization.

Atomized mannitol granules enable direct compression tablet production with reduced lubricant content.

Injecting pressurized secondary fluid creates localized turbulence that enhances mass transfer, enabling ultrahigh efficiency spray drying at low temperatures.

Introduce antiblocking agents through an external annular gap to eliminate fouling-prone transverse pipes and prevent dryer wall caking.

Pelletized dianhydrohexitol prevents caking during storage by controlling moisture content and utilizing phase transitions to stabilize shape.