Additive Manufacturing Apparatus TRIZ Cases

Silane coupling agents chemically bond natural fibres to an ABS polymer matrix, enabling uniform dispersion and enhanced surface appearance.

A chemical softens binder material on additively manufactured metal parts, allowing powder particles to flow into surface recesses under gravity.

A stereoscopic modeling apparatus supplies powder while liquid remains on the surface to bond particles into a uniform layer.

Segmented fixing elements apply counteracting forces to prevent geometric deformation and maintain manufacturing precision.

A removable detector module enables safe maintenance of laser solidification apparatus without disassembling the optical housing.

Photocurable ceramic layers receive laser-machined recesses filled with sacrificial material to form hollow sections during additive manufacturing.

A powder production system mixes molten droplets with a second material using a fluidized bed to create uniform particles.

Removing fins from knee implants restores x-ray visibility of the bone interface without sacrificing rotational stability.

Sorting 3D data by resolution priority enables selective geometric simplification, preserving fidelity in critical regions while reducing bandwidth.

Segmented paraxial and coaxial imaging resolves 3D spatter trajectories to enhance quality control in laser powder bed fusion.

A photocurable composition blends epoxy and acrylate components to produce three-dimensional articles with high optical clarity.

Additive manufactured PEEK and hydroxyapatite composite creates bioactive interbody devices with controlled ion release.

Additive manufacturing creates a material gradient in CPAP masks that resolves the trade-off between structural integrity and seal quality.

Measuring lateral offsets at different focus spot sizes to determine correction values that maintain precise alignment in powder bed fusion.

Angled upper nozzles and labyrinthine passages move condensate away from the laser window, maintaining clear optical access.

Dividing support bodies into discrete sections prevents meshing with uneven surfaces, significantly reducing removal time during additive manufacturing.

Additive manufacturing creates a unitary laser frame with cellular cooling that manages thermal expansion while reducing system weight.

Dual-wavelength irradiation cures optically reactive materials volumetrically to form isotropic optical elements without layer-by-layer construction.

Contoured guide tool positions plate-shaped implant to reduce tissue damage and convalescence time.

A swept fill technique configures an additive fabrication device to move an actinic radiation source over voids while deactivating it.

Segmented second fluid channels extend beyond first channels to increase surface area and induce turbulence, resolving limited heat transfer inefficiencies.

A curved-surface piezoelectric composite material forms through 3D printed mesh molds and segmented columns.

Recurved tines distribute stress across multiple attachment points, reducing concentration at the tendon-to-bone interface.

A ceramic tube with an induction heater melts metal through a fine nozzle to produce ultrafine powder via gas atomization.

Digital models and rapid prototyping create guides that align appliances, reducing labor intensity while maintaining high precision.

An aqueous binder system eliminates organic combustion porosity, reducing ceramic shrinkage below fifteen percent during firing.

Chemical reduction of silver salts enables low-temperature sintering, eliminating flammable gas requirements and surface oxidation issues.

A dual-cure resin combines acrylate and polyurethane networks via radiation and thermal pathways.

A one-piece orthodontic jig transfers digital prescriptions to patient teeth via detachable connecting members.

Optimized polyolefin resin powder reduces electrostatic chargeability to improve handling while maintaining high dimensional accuracy in additive manufacturing.

Stacked light valve substrates with staggered pixel units resolve stepped contours on curved edges to improve printing accuracy.

A binder shell encloses unbound metal powder to enable layer-by-layer additive manufacturing of complex geometries.

Control layer and base temperatures during additive manufacturing to maintain austenitic structure.

A movable build unit with a laminar gasflow zone manages gas plumes and maintains uniform energy density across expanding build volumes.

A degradable material solution uses enzymatic disintegration to remove support structures from three-dimensional printed objects.

A recording apparatus adjusts colored liquid application amounts based on foaming control liquid data to maintain consistent color across three-dimensional structures.

Transverse secondary bands intersect inter-pass boundaries to distribute cyclic stresses and prevent fatigue cracks in machine components.

Flat polymer layers undergo additive manufacturing then bending to reduce production time and temperature requirements.

Abrasive coating on gas turbine blade tips reduces leakage by forming a precise seal that minimizes wear between blade tips and shrouds.

Dynamic Z-axis adjustment accommodates varying object heights while reducing machine footprint during storage.

A light curable composition combines acrylate monomers, acrylamide compounds, and oligomers to form flexible 3D printed articles.

Additive manufacturing creates complex thermoelectric geometries from powder inks via reaction sintering.

Segmented microwells deliver discrete drug doses to tissue, enabling in vivo sensitivity analysis without systemic toxicity.

Lower viscoelasticity sacrificial inks deform to form matte textures while substantive layers maintain structural integrity without molds.

Fluidized bed reactor rounds irregular titanium powder particles through controlled gas collision, reducing production costs compared to plasma atomization.

Layer-by-layer deposition of ceramic mixture onto a substrate prevents adhesion failure during firing by matching drying shrinkage within ±5%.

Differentiated transfer processes prevent feature omissions in unsupported regions by applying localized heating and alternative cooling methods.

A low-temperature chemical vapor deposition process deposits a stable nickel shell around a 3D polymer part to create high-resolution metal structures.

Intertwined tortuous conduits increase heat transfer surface area while reducing fluid flow resistance compared to tightly packed fin designs.

Chemical bonding of high-Z elements to pre-polymers creates optically clear, radiopaque 3D parts for accurate X-ray CT inspection.