Additive Manufacturing Apparatus TRIZ Cases

Centrifugal separation removes excess resin from additive manufacturing parts, enabling rapid throughput and material reuse without wash liquids.

Voxel-controlled conductive and dielectric agents form electrodes directly in the print, eliminating separate component placement steps.

Ionic cellulose derivatives resolve solubility-concentration contradictions, enabling high-strength shaped articles via inkjet printing.

Reversible supramolecular interactions tune viscoelastic properties to resolve structural integrity and rheological performance contradictions.

A 3D bio-printer deposits bio-ink and activator drops to form a hydrogel mold that encapsulates cells.

Aluminum alloy composition enables high-strength lightweight workpieces via additive layer manufacturing.

Powder bed fusion additive manufacturing produces creep-resistant ferritic/martensitic steel with enhanced strain yield strength and ductility.

A self-transforming structure combines a flexible fibrous composite with an added material to achieve predictable shape changes via differential thermal expansion.

Microwave radiation heats powder particles to sintering temperatures, reducing thermal stress and energy consumption compared to laser sintering.

Segmented wick layers balance high capillary pressure against flow resistance, delaying dry-out and increasing heat flux densities in vapor chambers.

Retained support structures within additive manufactured heat exchanger channels enhance fluid turbulence and thermal conduction.

Selective inkjet absorber application enables low-cost diode laser sintering, bypassing expensive CO2 systems.

A jacket surrounds a precursor component to define the outer surface geometry before mold fabrication.

Incorporating silane crosslinkers into polyamic acid solutions resolves bead collapse during high solid content printing by establishing a robust network.

A hybrid compensation approach combines measured data and simulation to calculate a nonlinear scale factor map.

Polybutylene terephthalate resin powder resolves water absorption issues in high-temperature environments.

Interposing powder between sacrificial and fabrication layers increases friction to stabilize the build surface.

Segmented high and low pressure stages reduce metal droplet collision probability to enhance fine powder yield while maintaining surface quality.

Granular balls support 3D objects during sintering to prevent gravitational deformation while improving thermal conductivity and reducing process duration.