Moulding Tools TRIZ Cases

Gas blown onto the mold surface clears vapor and residue during laser marking, helping maintain laser output and sharp identifiers.

Integral core bumpers set wall thickness in investment casting, then resized pilot holes are plugged and brazed to stop leakage.

Interchangeable supports on a common base hold different part trees securely, cutting fixture count, labor, and floor space.

A robotic hot knife automates wax mold joining with controlled heat, position, and contact time to improve weld consistency and reduce defects.

Cold airflow through a hollow cutter clears waste sand and removes cutting heat to protect frozen mold surface quality and cutter life.

Residual core-positioning holes are resized and brazed with sealing plugs to prevent leakage while preserving wall thickness in cast components.

Forecasting sand compactibility across foundry stages enables set point adjustment for water, additives, and mixing time to cut casting rejections.

A robot releases an iron-alloy insert with clearance, then mold magnets pull it into place to avoid guide-rod damage and simplify casting.

Residual holes from core positioning are resized and brazed with compatible sealing plugs to prevent leakage and preserve wall thickness.

Angled tip rods at 5-12° help swept turbine blade cores meet sizing criteria, reduce rod breakage, and lower casting scrap rates.

A ternary alloy interlayer formed from active filler and preceramic polymer helps refractory alloy parts resist oxidation and coating cracking.

Oblique tip rods in a swept blade core preserve rod sizing, improve casting stability, and form dirt-purge through-holes.

Shared retaining members position two small ceramic cores in a blade mold, improving alignment without doubling support points.

Ultrasonic aerosol humidification keeps core sand mixtures moist in mixing and feeding zones, preventing crusting, clogging, and cleaning stoppages.

Refractory protuberances protect the anti-oxidation coating from handling friction while keeping a molybdenum casting core easy to position.

Conventional sand mold production struggles with varied small lots; robotic cutting and Z-coordinate alignment reduce cutting and dimensional errors.

A high-filler preceramic coating forms ceramic and ternary alloy layers to limit oxidation and inter-diffusion during heat treatment.

Retaining members position complex blade cores precisely in wax injection molds.

A display control device stores mold inspection results and determines relevant molds based on positional relations to the work area.

A lubricating head with a nozzle setting system uses electronic management to activate individual nozzles in a matrix arrangement.

A feeder insert supply element features a deformation region that inverts during relative movement to absorb compaction forces.

A boron nitride and fumed alumina release agent coating reduces pull force during metal article removal from molds.

A closed-end electrode device with flow-through holes enables electrolytic treatment solution circulation inside bottomed holes.

A mold valve closure uses melt momentum to seal vents rapidly.

A robotic core blowing device uses a fluidizing chamber to transfer aggregate materials into molds.

Composite riser bases with insulating microspheres prevent contraction defects by controlling thermal behavior without increasing mould size.

Resin and metal composite tubes prevent bending and abrasion during insertion, ensuring uniform fluid application in long molds.

Nested indicator elements in a compact housing increase pattern combinations while maintaining a small footprint, enabling precise quality traceability.

Bending a refractory metal stock core creates precise cooling passages, eliminating fragile ceramic cores and expensive hard tooling.

Angled tip rods maintain producible sizing criteria in swept airfoils, reducing scrap rates from rod breakage during casting.

A die-casting valve device positions an electromagnetic selector valve inwardly to shorten the gas drainage path.

An oxidation-resistant isolation layer prevents weight block degradation during casting, ensuring strong structural integration.

A casting transfer device uses a robot arm to position core and casting mechanisms without flipping parts.