Additive Manufacturing Apparatus TRIZ Cases

A solvent-free polyimide formulation enables rapid solidification in additive manufacturing processes.

Strut flexures constrain parasitic motion while allowing controlled axial displacement, resolving overconstraint issues in precision mounts.

Flat fillers form a network structure in the soluble polymer to suppress foaming and maintain accuracy when exposed to high humidity.

Additive manufacturing creates tailored protective packaging that reduces design complexity and shipping damage costs.

Al-Mg-Li-Sc alloys resist solidification cracking during additive manufacturing through controlled precipitation of scandium, lithium, and magnesium.

Dynamic refrigerant control manages cooling capacity based on set temperatures, reducing cycle times without increasing equipment size or cost.

Additive manufacturing of hollow unit cells using reusable ceramic bead templates creates one-piece porous structures with controlled orifices.

Iterative heat transfer simulation determines optimal laser re-melting parameters for additive manufacturing powder layers.

A voxel grid simulation system calculates distortion factors from powder density variations to generate compensated part meshes for additive manufacturing.

Nubs on the overpress tool maintain a fixed gap that spreads liquid resin uniformly, eliminating air entrapment and reducing sanding time.

A multi-field additive manufacturing device uses sound field control and microwave heating to precisely position and sinter ceramic powder.

A hybrid connection uses alternating fully-fused and under-fused regions to join 3D printed parts with controlled strength.

A 3D printed fiber-reinforced resin article undergoes induction heating to soften the matrix before pressurization.

Segmented inks define precise boundaries within powder layers, resolving ink spread issues that cause uneven outer surfaces and irregular steps.

Yttria-stabilized zirconia particles promote equiaxed solidification in aluminium alloy additive manufacturing.

Staggered bead profiles improve interlayer bonding and increase shear strength by up to fifty percent compared to traditional co-planar configurations.

Laser diffraction compares particle-size distributions to quantify residual nanoparticles, resolving slow localized analysis bottlenecks.

A telecentric lens projects a collimated scale pattern onto tissue for non-contact dimensional measurement.

Zoned polyurethane structures in a ski boot inner shoe resolve pressure points while maintaining structural integrity for effective power transfer.

Segmenting inkjet heads into color and clear units resolves manufacturing precision trade-offs by enabling accurate inner region thickness control.

Conductive coating on polymeric rapid prototypes reduces lead time from weeks to hours while maintaining durability.

Stepwise powder mixing in a high-throughput 3D printing system maintains fixed component proportions, reducing material waste during small sample preparation.

Individually movable and rotatable heating elements adjust heat distribution across the workpiece area to maintain precise thermal conditions.

A Quantum Cascade Laser image head focuses infrared radiation to sinter powder layers with high precision.

A sacrificial scaffold enables conformal coating to form thin heat exchanger walls.

Recovers reactive prepolymers from additively manufactured parts via thermal decomposition and solvent extraction, enabling closed-loop resin reuse.

Flood energy source exposes metal powder layers to radiated energy for consolidating transformations.

A nested data array structures multiple cranial remodeling orthosis device portions for concurrent additive manufacturing.

Aligning parts with pixel boundaries eliminates inter-part variation caused by uneven software adjustments, reducing scrap rates and lowering production costs.

A prismatic mold holds a ribbon and device in place during adhesive application.

Selective laser melting produces cutting tool holders with flow-optimized coolant ducts and vibration dampening cavities to reduce manufacturing time.

A flowable compound hardens then re-melts to interpenetrate structures, securing objects without thermal melting.

Ink compositions using natural regoliths and elastomeric binders enable flexible 3D printing of objects.

Viscosity-enhancing admixtures and clay increase yield stress in dry cementitious mixtures, preventing equipment buildup during continuous 3D printing.

Additive manufacturing builds thermoplastic shaft components layer-by-layer on a base element using disposable molds for rapid production.

Heterocyclic compound lowers hot melt molding temperature while maintaining elastic modulus and reducing gas generation during thermal processing.

Block polyetheramide powder resolves impact resistance and grindability trade-offs in layer-by-layer manufacturing processes.

Continuous transverse gas flow eliminates vacuum purging to achieve high chemical utilization efficiency and uniform thin-film deposition on large substrates.

Rapid prototyping merges base and teeth production to resolve fit accuracy versus manufacturing complexity.

Nitrogen diffusion creates hardness gradients in titanium alloys, eliminating material waste from subtractive machining while maintaining ductility.

Photoinhibition layers suppress resin curing at the vat window, eliminating mechanical stress and print failures caused by strong adhesion forces.

In-situ polyurethane foam formation within 3D printed shells resolves internal pressure risks while enabling complex geometries.

Vibrating retained impacting element cleans internal additive manufacturing channels, reducing labor costs and preventing external feature damage.

Low molecular weight oligomers resolve binding strength versus printhead kogation.

A 3D printable composite material mixes acrylic monomers with recycled photopolymer for large-scale construction printing.

Support material for energy-pulse-induced transfer printing enables complex three-dimensional object fabrication.