Transportation And Packaging TRIZ Cases

See how a rotating whisk at fixed position uses Couette Flow shear energy to produce repeatable

See how a raised counter-tool with height differentiation and tapered edge enables effective do

See how vibration-assisted agitation during powder dispensing prevents clumping and ensures uni

See how a ramp mechanism and sliding support convert minimal force into 180° receptacle rotatio

See how an epicyclic gearbox rotates curved blades at 15-60 rpm to automate gentle ingredient f

See how an integral transmission frame directly mounts motor and transmission members to reduce

See how nested pump chambers with passive check valves and a flexible mixing chamber enable con

See how an accordion-folded bottom wall moves under pressure to enable even water distribution

See how camera-based gesture recognition enables hands-free food processor control, reducing co

See how reduced thickness areas on capsule entry surfaces enable pressure-activated water entry

See how weight and acoustic sensors detect comminution state in real time, enabling automatic p

See how a magnetic locking mechanism automates tool-to-shaft connection in food preparation dev

See how gradual heating with basket agitation extracts more natural oil from coffee grounds, re

See how asymmetric locking geometry enables secure tool-to-shaft connection in both rotation di

See how a straw-integrated agitator converts linear drinking motion into rotary mixing via spir

See how in-capsule pasteurization with timed hot-water submersion kills bacteria before brewing

See how angled cutting projections and vortex flow overcome buoyancy to crush floating tablets

See how a coupling-based locking mechanism prevents accidental blender activation in portable s

See how integrating a spectrometer into a food preparation device enables real-time nutritional

See how a sealed capsule with internal piercing member and frangible regions delivers precise f

See how a two-stage foam pump uses sequential pressure control and air-to-liquid ratio adjustme

See how a multi-reservoir dispensing device with separate ingredient cartridges enables customi

See how compressed air mixed with washing water increases spray force and atomization, reducing

See how a planetary gear unit with dual coupling pieces drives mixing and kneading tools at opt

See how a tubular cartridge with removable closure cap maintains low-oxygen storage for beverag

See how a rotatable chamber bottom decouples compression and rotation movements to reduce pisto

See how a single stirring member rotates wire elements to switch between whisk and spoon config

See how a stationary sensor and wireless module enable real-time medium monitoring without tool

See how a C-shaped bristle element cleans vessel bottom, wall, and cover simultaneously during

See how dual-silane hydrolysis with polymeric templating agents forms robust, formaldehyde-free

See how linear arrangement of inlet, outlet, and barcode reader in a beverage machine delivery

See how a split-type beverage dispenser uses a detachable fizz infuser with safety valves and m

See how segmented motor-base design, rubber dampers, and multi-dimensional blade ventilation re

See how continuous hot water circulation during tea capsule brewing maintains optimal extractio

See how a double-walled vessel integrates Peltier cooling and phase change material to eliminat

See how a threaded magnet anchor embeds inside wall material to hold objects magnetically, elim

See how a movable extraction plate with central and peripheral portions adapts to capsules of d

See how a circuit-board stator generates a rotating magnetic field to transmit torque without b

See how oblique and vertical folding lines on hook members create an octagonal opening, increas

See how a segmented brew chamber accommodates differently sized beverage capsules while minimiz

See how a wing-like volute blade in planetary motion automates gentle folding, lifting and turn

See how a puncturing cartridge adaptor enables multiple beverage flavors and limited-time offer

See how a mobile device reads codes outside the harsh beverage machine environment and transmit

See how a motorized auger extrudes viscous slush drinks through a sidewall conduit, preventing

See how modular integration of weighing, dissolution, and dispensing units reduces multi-step d

See how a dimensionally stable, foldable cover transforms into a spoon-like stirrer, eliminatin

An M-compound coating on NdFeB alloy powders improves wettability and grain boundary diffusion, raising coercivity with less Dy or Tb.

An oxygen- and moisture-impermeable organic coating protects sensitive alloy powder in storage, then pyrolyzes with minimal residue before sintering.

M oxides at grain boundary triple points localize oxygen in NdFeB magnets, improving corrosion resistance and press formability without losing magnetic properties.

Coated silver particles decompose above 160°C to bond copper and other metal surfaces without pretreatment or mechanical pressure.

An M-compound coating on NdFeB alloy powders improves grain boundary diffusion, raises coercivity, and cuts heavy rare earth use.

A low-evaporation solvent firing composition improves printability and thickness uniformity while cutting wafer-shaping waste.

Controlled Fe-based powder composition, size distribution, and circularity cut core loss while preserving high flux density and productivity.

A sol-gel coating with metal alkoxide and organic phosphoric acid boosts resistance and permeability to cut high-frequency eddy current loss.

A rare-earth iron nitride composite raises resistivity while preserving permeability, reducing eddy current loss in high-frequency use.

High-temperature calcination, cracking, and annealing create soft magnetic powder that cuts hysteresis loss in 1-3 kHz dust cores.

A fluorinated silicon coating keeps soft-magnetic powder resistive and permeable above 120°C while limiting eddy current losses.

Phosphorus-coated iron powder raises resistivity and avoids organic binders, cutting high-frequency core losses while preserving strength.

Different insulation coating thicknesses on amorphous and nanocrystalline particles cut core loss while preserving DC bias and permeability.

Glass-coated conductive powder improves photolithographic resolution while reducing firing shrinkage and inner-electrode resistance.

Dual silicon surface coatings on magnetic particles improve compact density and strength while preserving moldability for bonded magnets and dust cores.

By separating the metal shell before crushing the electrode assembly, this case preserves shell reuse and improves recovery of copper, aluminum, and plastic.

Using polycarbonate in a pre-sintering sheet cuts residual organics after sintering, improving electrical conduction and module reliability.

A two-stage heating process forms oxide insulation, relieves bending stress in the coil conductor, and avoids oxidation that raises resistance.

Pre-crystallizing soft magnetic alloy powder and curing below its crystallization threshold preserves uniform nanocrystals and low core loss.

Indirect furnace heating with a reducing atmosphere opens spent batteries safely, limits oxide formation, and simplifies material recovery.

Si-rich segregation in Fe-Si powder grains and boundaries raises resistance, suppressing eddy currents while preserving permeability at high frequency.

Using two insulating powder sizes in the binder helps a powder magnetic core maintain permeability while improving withstand voltage.

A three-layer rare-earth coating builds continuous grain boundary phases, limits grain growth, and raises NdFeB magnet coercivity.

A rare-earth-rich shell and phosphorus compound coating help bonded magnet powder retain coercive force after 300°C heating.

A dual-particle magnetic core uses controlled aspect ratios and insulation coating to limit electric field concentration while preserving permeability.

La/Ce hydride and copper diffusion strengthens grain boundaries in anisotropic bonded magnetic powder, raising coercivity and heat resistance at lower cost.

Amine-coated copper particles enable sintered joints that resist atmospheric oxidation while maintaining joinability and thermal conductivity.

Resin-coated media and controlled phosphate heat treatment cut oxidation during SmFeN powder mixing while preserving Zn diffusion and magnetic properties.

Controlled dense and porous regions in a rare earth aluminate sintered body improve wavelength conversion, luminous efficiency, and light convergence.

Heating recovered treatment liquid to release ozone, then remixing ozone gas, enables reuse without unintended substrate oxidation.

An inorganic nano-dispersant prevents Sm-Fe-N powder agglomeration, enabling uniform coating on Nd-Fe-B particles and better magnet density.

Slidable upper and lower mold parts form a step that redistributes metal particles, improving anode wire fixation while reducing density variation.

Controlled boron addition and molten-salt reduction produce tantalum powder with high capacitance, low leakage current, and good moldability.

A metal sintered joining material uses dispersed pores and filler particles to relieve thermal stress while maintaining bonding strength.

Cu segregation deeper than 30 nm and nanocrystal control lower core loss while resisting magnetic saturation at high current.

By tuning Si, Cr, S, oxygen content, and surface area, this powder improves magnetic permeability and particle insulation in dust cores.

A multi-peaked soft magnetic powder with rounded 45-300 µm composite particles improves dust-core flowability while reducing material loss.

Bypass pressure sensing replaces delayed offline checks to control battery paste viscosity, solids, and outlet pressure during continuous mixing.

A fluorinated silicon coating raises soft-magnetic powder resistivity without sacrificing core density, improving high-temperature magnetic core stability.

Separating mixing from pressure build-up improves homogeneity, shaping pressure, and material quality in energy storage material processing.

Partial disintegration to 149 mesh-pass powder cuts recycling time while preserving magnetic properties in rare earth sintered magnets.

A curved compression punch improves magnetic powder packing and alignment, enabling bonded magnets with higher filling factor and orientation.

Rounded rare-earth powder particles made by post-grinding abrasion reduce sharp edges and help magnets reach higher energy density.

Fluoride-coated magnetic powder confines Dy/Tb to grain boundaries, raising coercive force while limiting flux loss and rare earth cost.

Low-temperature heating plus ultrasound separates black mass from spent Li-ion electrodes while reducing energy use and loss of graphite and lithium.

A coated magnetic bead balances particle size, density, and low coercive force to prevent settling and aggregation while maintaining strong extraction.

UV, visible, and IR spectra track particle size, mixing ratio, and dispersion in electrode suspension for real-time process correction.

Ultrasonication forms a sulfide, fluoride, or nitride protective layer on lithium metal powder to curb dendrites and improve first-cycle efficiency.

An inorganic oxide and water-soluble polymer coating improves powder compaction while preserving resistance, permeability, and low eddy-current loss.

RTM alloy infiltration along grain boundaries raises hot-pressed NdFeB coercivity while limiting residual magnetism loss and heavy rare-earth use.