Additive Manufacturing Apparatus TRIZ Cases

Additive manufacturing merges multi-piece waveguide structures into single monolithic units, eliminating assembly complexity and reducing production time.

Sintering cermet granules in a carburizing atmosphere prevents adhesion while maintaining spherical shape for additive manufacturing.

A monolithic body of phase change material encapsulates electrical conductors and contains liquid-tight coolant channels for efficient heat dissipation.

Thermal imidization converts the printed resin into high-temperature polyimides, overcoming melt processing barriers.

An additive manufactured ear shell merges the antenna socket with the body to resolve positioning precision versus assembly complexity.

A wearable sensor uses a carbon black sensing film to detect temperature changes via electrical resistance shifts.

A metal shaped article production method uses a support material layer to enable precise cutting of constituent material layers before sintering.

A hermetically sealable powder handling system moves metallic powder between storage and build chambers without exposing the material to ambient air.

A de-protecting agent selectively removes protecting groups from polymer chains to enable controlled coalescing during additive manufacturing.

Alternating bio-compatible polymer and cell-mixture strands create a hybrid scaffold with controlled pore size.

Low-carbon steel powder relies on intermetallic precipitates to achieve 40 HRC hardness, resolving the trade-off between wear resistance and toughness.

Sensors measure surface heights to identify deviations, enabling virtual planarization that improves dimensional accuracy without physical planarizers.

An additive manufacturing apparatus uses an evaluation unit to determine spectral information of radiation emitted during the layerwise consolidation process.

A method constructs patient-specific surgical guides using non-segmented 3D medical images to position implant models directly.

Thiol-isocyanate monomers form semi-crystalline structures that resolve brittleness in 3D printed parts while maintaining rapid curing speeds.

Copper alloying boosts thermal conductivity in WC cemented carbide while maintaining abrasion resistance during additive manufacturing.

Print internal structures and segmented molds to cast transparent objects with visible inner geometries.

Additive manufacturing fabricates the hinge pin within the knuckle to eliminate separate assembly steps and reduce material waste.

Additive manufacturing creates a porous layer matching the patient's bone structure, resolving stability issues in joint arthroplasty.

Generative manufacturing deposits distinct materials into individualized shoe insole regions for precise transitions.

A solvent with controlled boiling point and relative energy difference dissolves binder resin in ceramic secondary particles to stabilize layers during 3D shaping.

A 3D printed shell with negative relief guides resin and reinforcement fibers into precise shapes without permanent molds.

Cryogenically ground biodegradable polymer powders with unsintered calcium phosphate additives enhance powder flowability for selective laser sintering.

Custom cranial remodeling headwear uses additive manufacturing to create layered structures directly from patient data.

Helium or Helium-Argon gas mixtures replace traditional inert gases in additive manufacturing to enhance scanning speed and reduce porosity.

Additive manufacturing creates controlled surface roughness on cosmetic applicators to enhance product transfer efficiency.

Conformal heat transfer inserts shape fluid conduits to match lens cavity geometry, eliminating thermal gradients that cause weld-lines and warping.

A spectroscope unit splits a single laser beam into multiple separate beams to enable parallel processing on the workpiece surface.

A CAM device sets feeder channel dimensions to manage ceramic flow distribution in dental press cavities.

Electromagnetic forces in the ejector device enable selective jetting of small droplets, reducing porosity and surface irregularities in molten aluminum prints.

Spatially coherent light sources project computed patterns into photoresponsive media for precise volumetric fabrication.

A process for preparing continuous fiber filaments using aqueous PAEK impregnation and cylindrical die calendering.

Aliphatic linkers in cyclopolymerizable monomers resolve the contradiction between high resolution and strength while providing hydrolysis resistance.

Additive manufacturing creates patient-specific porous metal prostheses that resolve the trade-off between structural strength and bone integration.

Electromagnets on a ferromagnetic recoater arm attract and collect abraded material, preventing powder contamination and reducing component failure rates.

A 3D printing head assembly deposits material layers onto a rotating substrate to build three-dimensional objects.

Removable build module with moveable support member enables continuous additive manufacturing operations, reducing time delays between jobs.

Single-bead open-loop toolpaths eliminate support structures, reducing material waste and printing time for large-scale additive manufacturing.

Segmented modules join via welding to extend heat pipe length while maintaining precise groove dimensions and low thermal resistance.

Solubilize blowing agents in a preform under pressure then release the pressure to expand the polymeric material into a mold cavity.

A 3D printed plastic seedling reference sample enables precise three-dimensional X-ray optical inspection device calibration.

Small-diameter powder fills surface asperities in 3D printed objects, eliminating granular texture without degrading mechanical strength.

Selective microwave absorption via a polar fusing agent coalesces polymer, while an immiscible hydrophobic detailing agent blocks spread to define sharp edges.

Merging separate parts into a single monoblock eliminates leak-prone interfaces while maintaining precise internal duct geometry.

Increases shaping material width in specific partial paths to prevent hang-up and maintain accuracy when moving between bulk and remnant raster segments.

Integrated cleaning stations with rotating wipes and wet members maintain print head purity, preventing nozzle clogs that reduce manufacturing throughput.

Direct antenna formation on collar webs eliminates adhesive layers and reduces production time for RFID-tagged cigarette pack components.

Anneal thin-walled structures to eliminate thermal stresses, preventing deformation and cracking in selective laser melting.