Charge Manipulation TRIZ Cases

See how a two-stage pulverizing system reduces frictional heat and granular texture in rice gel

See how retractable, linkable glass panel stands reduce transport trips and CO2 emissions by se

See how pivotable frames on horizontal axes enable compartment racks to adapt orientation for e

See how retractable ball casters with eccentric actuation and self-locking prevent unintentiona

See how pivotable frames on a base rack enable dynamic compartment orientation, accommodating g

Closed-loop magnetic levitation keeps substrates clean while correcting floating-unit position and posture for accurate transfer between process units.

Magnetic feedback adjusts tensile force during heat treatment to keep soft magnetic strip permeability uniform despite local thickness variation.

Magnetically driven sliders enable flexible solar module layouts without retooling, while improving placement precision and reducing rejects.

Lateral stirrup ejection on a belt conveyor separates rolling tubular or spherical parts into predictable batches without compressed air.

Preheating thick blank zones before furnace entry improves heating uniformity in hot stamping while reducing furnace length, energy use, and cycle time.

Infrared temperature mapping and local heating correct cold spots during furnace-to-press transfer, cutting cycle time and stabilizing forging quality.

Long jointed push rods with limited pivot motion and magnetic field disruptors raise billet push force while reducing buckling and eddy heating.

Active-metal soldering in a continuous furnace bonds ceramic to metal foil at lower temperatures while improving substrate conductivity.

Silver-free active solder joins metal foil to ceramic at lower heat, improving substrate conductivity while reducing silver migration.

Long revolute-jointed push rods store in an arcuate enclosure to prevent buckling, raise billet push force, and reduce eddy current heating.

Billets slide directly on a clay graphite slider inside the induction coil, reducing rail wear, maintenance, and heat loss in billet heating.

Layered buffer mechanisms use melting-furnace flue gas to preheat feedstock, recover waste heat, and meter charging more accurately.

A packed-bed direct recycle cooler bypasses the reformer to temper and dry bustle gas, cutting energy use, fouling, and duct complexity.

A tilted rail section pre-corrects vehicle member angle and softens wheel entry impact, reducing vibration at the mounting table.

Varying oxygen-rich gas pressure in a coaxial supersonic-subsonic burner reshapes flames to cut thermal load and NOX in metallurgical units.

Hot-charged pellets, shaft pre-reduction, and superheated reducing gas cut ironmaking energy use, cost, and carbon emissions.

Movable hold-down devices secure substrates on guides to prevent lift and backslip, improving positioning accuracy despite belt tolerance and slippage.

Precomputed SKU slotting uses sales velocity, temperature zones, and transport capacity to cut travel distance and raise fulfillment throughput.

A protected outer gas register isolates process gases from hydrogen combustion in pellet induration, cutting NOx formation.

Multiple cutting stations, a rotation unit, and shuttle transport balance cycle times, raise output, save floor space, and improve safety.

Visual feedback from the melting chamber adjusts extruder motion to stabilize cold iron feed, improve melting efficiency, and cut power use.

Breaking HBI and HCI into smaller fragments speeds melting in arc furnaces, raising DRI feed rate without higher energy input.

Adding carbon in the tap hole runner raises pig iron carbon content while keeping the lower-CO2 DRI electric smelting route.

Integrated lifting on each bearing stand raises the support pin vertically, simplifying metallurgical vessel bearing replacement and cutting downtime.

Upward gas flow and a hotter temperature-maintaining zone improve CO2 discharge during cathode material firing, protecting quality and throughput.

Direct carbon injection into molten pig iron raises DRI-based carbon content while keeping CO2 emissions low and sulfur levels controlled.

Multiple parallel tracks return saggars to the oven inlet under fluctuating loads without variable-speed control or complex automation.

Calibration-based oven temperature mapping assigns samples to positions that match target temperatures, enabling one firing run with better consistency.

Direct silicon addition in the tap-hole runner cuts CO2 and improves pig iron quality from DRI for high-grade steelmaking.

Direct reagent injection into the pig iron layer removes sulfur in-furnace, cutting CO2 impact and avoiding extra steel desulphurization steps.

Movable deflection rollers vary strip path length in an overaging chamber, enabling dwell time control without changing strip speed.

Separating oxygen jet impact from carbon addition improves denitrification and reaction efficiency in arc furnace molten steel production.

A waisted sleeve with a reduced clamping section preserves interference fit and torque transfer in roller hearth furnaces despite thermal expansion.

Segmented refractory sections and annular connectors let blast lances match local heat, slag, and mechanical loads while improving durability.

Compressed gas expands adiabatically in the smelting unit to cool slag directly, simplify heat control, and improve mixing.

Recovered sensible heat preheats raw material while electric calcination cuts fuel use and enables a CO2-rich exhaust stream for sequestration.

Injecting desulphurizing reagent into the pig iron layer removes sulphur before steelmaking, lowering CO2 impact and treatment cost.

Waste flue gas preheats combustion air and supports mixed ammonia-natural gas firing to cut kiln fuel use and CO2 emissions.

Measured oxygen is compared with a machine-learning prediction to separate process variation from true sintering pallet air leaks.

Independent fume channels and controlled packing coke flow keep vertical carbon baking continuous while unloading baked bodies.

Rosin-coated polymer particles keep stacked glass sheets separated in humid conditions while improving adhesion, removability, and biodegradability.

Direct carbon injection into the molten pig iron layer raises DRI-based pig iron carbon content while keeping CO2 lower and enabling more scrap use.

Compact electric heaters at individual shaft gas inlets cut inactive gas volume, heat loss, and preheating footprint in sponge iron reduction.

Replacing bend-prone inorganic fiber belts with smooth heat-resistant rollers enables stable firing-furnace conveyance with lower tensile stress.

Mixed integer programming sets slab length and charging position from overhang and skid constraints to lower scab defect probability.

Mixed integer programming balances slab length, charging position, and skid overhang across furnaces to cut creep-related scab defects.

Triangular interlocks and spacers keep grate bars aligned during thermal expansion, reducing wear and preserving gas flow in sintering machines.

Microwave level sensing controls crucible metal charging timing to avoid bridging, cut power waste, and keep furnace supply efficient.

Direct electric heating, insulation, and filtered discharge cut heat loss, slag, and oxidation in batch metal melting for foundries.

A honeycomb refractory shielding shoe cuts furnace shoe weight, avoids welding-heavy installation, and supports long-term storage.

Segmented material curtains prevent irregular expansion and caking by directing particles centrally within the furnace shaft.