Manufacturing Platforms/Substrates TRIZ Cases

A single laser is split across multiple manufacturing stations to raise 3D printing speed while maintaining precise beam control.

A patterned cathode emits and positions electron beam images on a powder bed, enabling precise additive manufacturing exposure control.

Cooling a low-Ms metallic substrate triggers martensitic expansion stress, easing part separation and enabling substrate reuse.

Multiple laser beams symmetrically heat coated glass filament for vertical layer deposition, improving print uniformity and reducing breakage.

A fixed build plate with a moving shroud and powder depositor improves large-volume layer control while enabling thermal expansion leveling.

Multiple non-overlapping energy beams on a rotating powder bed expand build area and cut 3D printing time while limiting beam interference.

Slotted substrate fastening relieves thermal expansion in metal additive manufacturing while limiting buckling and out-of-plane deformation.

Online laser heating and oxide ablation raise substrate temperature for better droplet remelting, bonding, and fewer voids in metal jet printing.

Independently movable inlet and exhaust nozzles improve gas flow and scan quality in large powder bed fusion builds.

A spiral electron beam path improves powder preheating uniformity by reducing response delay and avoiding incomplete or excessive irradiation.

Rotating the support structure between powder layers spreads deposition errors, improving dimensional accuracy and part quality in additive manufacturing.

Test features built across overlap and non-overlap regions qualify multi-source 3D printing, reducing misalignment defects and feature inconsistency.

A fixed build plate with a rising shroud and powder layer system improves large-format AM layer accuracy, leveling, and thermal flatness.

Embedded sensors in a smart build platform capture temperature and strain in real time to detect additive manufacturing defects early.

Rotatable bearing assemblies let a platform move smoothly and accurately on non-parallel rails, reducing alignment difficulty, wear, and binding.

Electric discharge forms and stacks wire-tip balls to build precise 3D conductive shapes with less waste and lower equipment cost.

A dielectric-heated polymer coating helps adjacent powder particles fuse during additive manufacturing, reducing voids and improving part strength.

A semi-crystalline polyamide support stays stable during high-temperature 3D printing, then swells in water for easier removal from complex parts.

A manipulable concave support surface adapts during 3D printing to hold semi-solid layers, prevent spillage, and avoid disposable supports.

Single-direction feeding and removal cuts 3D printing space needs, simplifies automation, and improves machine utilization.

A rotating horizontal build plate lets WAAM print larger metal parts with steadier melt pools, faster multi-robot deposition, and no tall enclosure.

A zoned fall chamber and atomized polymer melt produce spherical AM powders with controlled size, density, and material properties in one step.

Segmented machined sections and in-cell robot machining keep large metal 3D printer build plates flat without oversized CNC equipment.

In-cell CNC machining lets a modular metal 3D build plate be re-machined for flatness and surface finish as printer size scales.

Real-time temperature and distance sensing lets a DED compression rig compress during deposition, cutting process time and improving microstructure.

A multi-axis compression head aligns load angle to overhanging DED geometry, reducing distortion, cracking, and build failure.

Simultaneous deposition and compression use temperature and distance sensing to cut DED processing time while maintaining dense, forge-like builds.

A multi-axis compression head reorients load to match overhang angles in DED, improving layer properties while avoiding distortion or fracture.

A vertical extruder, atomizer, and zoned fall chamber turn polymer melt into spherical AM powders with tighter size control and lower waste.

Controlled melt atomization and zoned cooling form spherical polymer powders with consistent size for faster additive manufacturing feedstock production.

Overlapping telescopic build tank segments contain powder without conventional vacuum seals, cutting cost while improving build table access.

An aperture sensor maps laser pixel position and orientation, enabling higher powder bed fusion throughput without spot-control defects.

A portable walk-in unit gathers equipment data on site and uploads it later, cutting remote network cost and manual collection errors.

Dynamic adjustment of speed, powder feed, and laser output keeps layer thickness uniform when nozzle orientation changes.

A high-melting polyamide support swells with moisture, staying stable during 3D printing yet detaching easily from complex parts.

Layer-specific ultrasonic tuning relieves residual stress during additive builds, limiting distortion and cracking without post-build heat treatment.

A modular transport unit separates printing from extraction and material supply, enabling parallel operation and flexible additive manufacturing capacity.

A dual-seal channel uses controlled gas flow to evacuate abrasive powder, cool seal components, and extend seal life in additive manufacturing.

A fluidized powder bed replaces roller spreading to speed sintering, improve heat control, and enable composition gradients in porous 3D parts.

A rotating friction pin adds shear stress to deposited metal layers to inhibit grain growth and improve strength in additive component production.

Voxel-level deposition of fusing and electronic agents embeds conductive properties in 3D printed parts without electroplating or annealing.

A separate cutting laser and part holder detach AM parts inside the build chamber, reducing manual cutting time and improving cut accuracy.

Pulsed light and a scanned 2D mirror array raise 3D print imaging resolution and speed while tolerating faulty mirror elements.

A polypropylene-elastomer powder with surface-active coating improves fusion and preserves stiffness, impact strength, and flexibility over time.

Sequential deposition and partial curing of different polymer powders enables integrated multi-material composite structures in one AM process.

Independently controlled beamlets and in situ sensing enable parallel metal powder melting with better repeatability, quality, and throughput.

Multiple powder feed lines and a real-time mixer let additive manufacturing vary alloy composition by layer, reducing waste.

A porous high-melting shaping stage enables uniform volatilization during degreasing and sintering, reducing stacked-body deformation and breakage.

A static optical array with microlenses and piezo translation enables large-volume SLA printing without the noise and resolution loss of scanning.

Pulsed laser cooling and ultrasonic vibration form an amorphous matrix with nanocrystals, avoiding post-processing grain growth and defects.