Additive Manufacturing Apparatus TRIZ Cases

Additive manufacturing merges the inner and outer walls into a monolithic structure, eliminating weld leaks while maintaining thermal efficiency.

Geopolymer composites replace conventional cement to reduce energy consumption and CO2 emissions while maintaining structural strength.

Segmenting the gas flow path into discrete linear pores resolves the contradiction between structural strength and gas permeability in metal 3D printed molds.

Delayed-activation hindered amine light stabilizers neutralize post-cure free radicals without interfering with the curing process.

A user device captures 3D images of objects to create precise replicas for customized product manufacturing.

Parameter-based modeling resolves CAD inefficiencies, enabling efficient representation and fabrication of dense micro-pillar arrays.

An automated mechanical system transports blanks to rapid production machines for customized jig formation.

A 3D printer extruder system determines compensation coefficients by printing test patterns at varying speeds and analyzing the resulting material flow characteristics.

Replacing fibrous rings with elastomeric seals prevents fiber shedding and powder migration in additive manufacturing.

Under-solidified fracture channels guide crack propagation in 3D printed objects, preventing sharp fragment formation.

Suction element integrates passage opening for energy beam in additive manufacturing device.

A rubber-modified polystyrene filament with polyolefin additives enables fused filament fabrication support structures.

A binder fluid containing latex particles and an amine-bearing phosphonic adhesion promoter enhances the tensile strength of green body objects in 3D printing.

Titanium precursor compounds bind silver nanoparticles during sintering to form contiguous conductive features, reducing aggregation and improving adhesion.

Additive manufacturing creates precursory structures with phase change material to form complex hollow articles from flexible polymers.

Direct light processing creates thin ceramic filaments spanning core and shell portions in investment casting molds.

Reciprocating felting needle deposits interlocked fibers to form soft three-dimensional objects.

Cyclopolymerizable monomers with specific ethenyl or ethynyl moieties form inks that improve impact resistance while maintaining low viscosity.

A lifting tower with a sliding boom positions an extruder to print buildings, reducing structural complexity and assembly costs.

Spring-driven impact rods apply controlled kinetic blows to weaken adhesion bonds, enabling easy removal of stuck 3D prints.

Segmented layer bead patterns modify fracture angles to boost shear strength while limiting manufacturing complexity.

A duration controller maintains constant irradiation device operation times across selected layers in metal powder additive manufacturing.

Multi-material plugs fill 3D printed coil channels to create integrated circuits, eliminating manual soldering and improving signal-to-noise ratio.

Thermoplastic polyurethane powder bed materials with controlled particle sizes and melting temperatures enable selective electromagnetic fusing for high-strength parts.

Binder-free laser sintering of graphite and fuel powder eliminates porosity and cracking while enhancing thermal conductivity.

Adjustable mounting members lock onto a base member to resolve the trade-off between adaptability and device complexity in revision surgeries.

A dithering mechanism oscillates the light beam to control spot size during additive manufacturing scanning.

A mirror optic assembly uses a reflector to redirect light from one LED through apertures.

Segmenting the airfoil into distinct material portions enables controlled failure, reducing load transfer and fan case weight.

Contextualized sensor data links build events to analytics, resolving context-less measurement issues and reducing subsurface porosity defects.

Hot isostatic pressing and heat treatment reduce porosity by 40% while retaining columnar grains to achieve yield strengths exceeding 120 ksi.

Retaining unfused metal powder between the heat exchanger core and housing absorbs thermal stress, eliminating heavy robust structures.

Transition layers with sloped walls interconnect hollow cells in additive manufactured parts to enable fluid flow.

Additive manufacturing apparatus incorporates continuous fibers in multiple orientations to resolve anisotropy and achieve isotropic mechanical properties.

Radially contracting dielectric elastomeric actuator eliminates percutaneous tubing to reduce infection risk in implantable cardiac assist devices.

Three-dimensional compressible adjuncts resolve tissue thickness variations by applying a minimum 29 kPa stress threshold for consistent sealing.

Optimizing glass filler and copper additive ratios in polycarbonate resin balances mechanical strength with laser direct structuring activity.

Polyester thermoplastic elastomer filaments enable fused filament fabrication with controlled thermal properties.

Dynamic exposure time adjustment balances bottom layer adhesion with upper layer curing, preventing uncured cracking from uneven energy distribution.

Training a neural network on contone agent maps and thermal sensor data resolves insufficient prediction accuracy for improved part quality.

A display circuitry detects operator attributes via camera to show role-specific consumable notifications on the screen.

Viscosity range of 80,000 to 150,000 Pa·s resolves trade-off between extrudability and buildability while achieving improved mechanical strength at 24 hours.

Additively manufactured sinusoidal pins enhance fluid turbulence and primary heat transfer area within a compact core layer.

Segmented deposition with intermediate curing disperses contraction forces, maintaining dimensional accuracy during thermoplastic extrusion.

A patient-specific mandibular implant integrates a dental root section via additive manufacturing to restore masticatory function.

Selective infill integration in material extrusion enables tailored mechanical properties without requiring multiple filaments or frequent changes.

A roller control process adjusts rotational speed to align the layering roller at angular home, ensuring consistent layer thickness in 3D printing.

Segments UV exposure by layer to prevent over-curing damage while ensuring complete polymerization of deep ink layers.

Selective preheating of building material regions minimizes thermal gradients and prevents warping defects in additive manufacturing.