Additive Manufacturing Apparatus TRIZ Cases

A contoured non-contact support shields acute angle component edges from recoater blade damage, preserving geometry and reducing build time.

A protective barrier layer on metal or ceramic powder prevents oxidation, ion transfer, and polymerization during additive manufacturing debinding.

Segmented support beads customize fit to individual facial structures, reducing manufacturing costs from multiple mask sizes.

Additive manufacturing and pseudo solution heat treatment produce a homogeneous Co-Cr-Fe-Ni-Ti-Mo alloy member with ultrafine grains.

A consumable scaffold with cantilevered pillars supports molten thermoplastic deposition during additive manufacturing.

Shielding case confines high temperature within the electron beam melting zone to protect surrounding vacuum chamber components.

Replacing metallic bars with an ultra-high molecular weight polyethylene plate prevents scratches and stops particle circulation through small apertures.

Variable thickness rubber tooling resolves isotropic pressure distribution issues, enabling selective high-pressure application for stronger welds.

Additive manufacturing consolidates multiple parts into a single monolithic pre-patient collimator, reducing mass by 70% and assembly time by 50%.

Rear-mounted 3D printed shaped elements secure the form lining without piercing the front surface, eliminating concrete stains and deformation.

A 3D metal printing device combines welding deposition with powered cutting tools to fabricate complex parts.

Pure magnesium alloys with surface modifications resolve corrosion and rigidity issues to generate ligaments.

A photocurable formulation stabilizes ceramic particles using a dual-acrylate system and optimized photoinitiator for additive manufacturing.

Generative production creates a cutting tool with a triangular coolant cavity, eliminating support structures and residue while enabling complex geometries.

Reactive chemicals remove oxide shells to expose metal cores, allowing rapid thermal processing to sinter parts in under a minute without rupturing the core.

Functionalized carbon derived from captured CO2 reinforces wood-plastic composites, reducing flammability while sequestering greenhouse gases.

A decorating system prints licensed digital images onto edible media using edible inks and a central control device.

A 3D printed mask replicates exterior shape to eliminate time-consuming adhesion and surface damage during painting.

Heated conductive material deposits directly onto switchgear back walls to form electrical tracks via fused deposition modeling.

Interwoven feed channels segregate fluid flows to reduce thermal stress and structural failure in heat exchangers.

A tubiform waveguide load uses a planar step to absorb energy efficiently.

A high energy device creates a molten puddle while pulsed current heats a wire to form discrete droplets for deposition.

Dual cure rate additive printing creates a fast-support frame for slower cementitious infill, reducing overall tower construction time.

Mix base materials with additives to create building materials with specific attributes for solid freeform fabrication.

Photopolymerizable resin with blocked isocyanates enables rapid curing and subsequent thermal crosslinking.

A 3D printing method uses two sacrificial inks with distinct viscoelasticities to form entity layers and control surface texture during curing.

A light modulation element adjusts irradiation intensity for each resin area based on real-time temperature distribution.

A vapor smoothing system with a heated chamber and separate drying unit refines 3D printed surfaces, reducing stair-step features while minimizing solvent loss.

A photocurable composition balances tensile strength and elongation using urethane acrylate and multifunctional epoxides.

A resin injection mold uses a gas-permeable low-density shaping part to enable rapid surface temperature adjustment via warm or cold air flow.

A rapid prototyping apparatus uses metal carbonyl complexes to deposit and decompose materials into pure elemental metals.

Liquid radiation curable resin with surface-treated glass bubbles forms low-density three-dimensional articles via stereolithography.

Feedback control adjusts electron beam irradiation based on detection signals, ensuring consistent melting and combination of powder layers.

Measures each deposited layer's height and adjusts subsequent ejection waveforms to compensate for thickness deviations, ensuring high precision without molds.

Folding elastomeric precursors enables mixed Gaussian curvature in 4D-printed ceramics, overcoming inflexibility of fully crosslinked silicone resins.

Integrating gripping devices into a single-piece additive manufactured body reduces tool weight and complexity while simplifying calibration operations.

Mobile image capture device measures facial dimensions to create personalized applicators, resolving symmetry challenges in makeup application.

A tubular electrochemical cell with a closed Fermat spiral geometry integrates anode, cathode, and electrolyte layers to boost volumetric power density.

Additive manufacturing creates a seamless one-piece pickleball with uniform wall thickness, eliminating weld seams that cause premature splitting and cracking.

A coordinated color application head deposits pigment onto 3D printed objects using digital model coordinates.

Vibration fluidizes non-solidified powder to clean 3D printed parts, reducing unpacking time and dust hazards without extra equipment.

Dynamic section patterning prevents vertical seam stacking and reduces thermal deformation by optimizing discrete layer boundaries based on article geometry.

A glycol ether finishing solution dissolves uncured resin and ceramic filler from 3D printed objects via ultrasonic agitation.

A bioprinting station uses an imaging system to detect substrate features and determine deposition patterns for biological material.

A 3D printed polishing pad deposits polymer matrix precursor to form a solidified structure with controlled void distribution.

Stage-dependent vacuum pressure management suppresses powder smoke and neutralizes charges to maintain high electron beam resolution.

Photo-monomer irradiation creates a fluid-tight seal on open cellular cores, eliminating costly manual potting while maintaining structural integrity.

Adjusts local color density in slice data to suppress layer streak visibility caused by surface level differences in inkjet 3D printing.