Manufacturing Platforms/Substrates TRIZ Cases

A selective laser sintering device uses a movable laser forming unit to process powders on a stationary support platform.

A build material container uses a segmented throughput structure to enable air flow for simultaneous venting and powder handling.

Segmenting elastic and barrier layers resolves photopolymer incompatibility while maintaining mechanical integrity.

A leveling device adjusts vertical clearance to process discrete material portions during additive manufacturing layer formation.

A pin array conforms to build part contours to support extraction, resolving damage risks from scraping or EDM removal methods.

A one-pot projection stereolithography strategy shapes double-network hydrogels using spatially modulated light patterns and controlled thermal stages.

A bottom-up powder conveying mechanism uses a movable floor and external reservoir to transport metal powder toward the working plane of an L-PBF system.

A single optical engine projects split image beams onto divided screens to create a large-scale exposure area for resin curing.

Offset print heads on one carrier boost productivity without expanding device volume.

A negative pressure source reduces friction between powder and chamber walls during platform translation.

Adaptive pathing minimizes additive manufacturing build time by varying deposition speed according to material consolidation status.

A rapidly tilting aerosol jet nozzle deposits conductive traces on non-planar surfaces.

An independent temperature-controlled frame structure separates powder feeding and forming chambers to maintain uniform thermal fields during selective laser sintering.

A sensor detects chamber volume changes caused by flexible vat base deformation to enable real-time process control.

A control system translates resin supports across multiple additive manufacturing print modules to enable parallel processing and independent module recovery.

A conveyor moves building platforms relative to a fixed deposition head, enabling multi-product production without device complexity.

A dual gantry CNC machine deposits thermoplastic layers on a moving vertical worktable to fabricate long composite structures.

Segmented upper and lower gas inlets direct controlled flows to eliminate recirculation and improve particulate removal efficiency.

Homogenizing build material blends in binder jetting resolves surface finish limitations, enabling high precision metal components.

A rack and pinion mechanism synchronizes platen movement with an intermediate transfer belt, preventing material smearing from stripping shear forces.

Two-axis build platforms rotate about perpendicular axes to fabricate complex geometries, overcoming the space and cost constraints of traditional systems.

A plasticizing screw groove with a dedicated supply path and through hole directs material flow.

Ultrasound vibration defines resin layers rapidly while an oxygen-permeable membrane prevents sample damage from fluidic forces during large-area projection.

A 3D shaping stage uses an intermediary reference surface to decouple heater flatness from the build platform.

A liquid photopolymer formulation uses titanocene photoinitiators to cure monomers under visible light from standard LCD screens.

Segmenting image relief layers controls slope characteristics, preventing buckling and reducing dust in flexographic print masters.

Actuators shape a flexible band to conform to concave surfaces while drive wheels clean thermoplastic build-up.

A component carrier integrates washing, drying, and curing steps within a sealed workspace to streamline additive manufacturing workflows.

A rotatable collar with magnets in an FDM nozzle adjusts magnetic alignment during deposition, eliminating time-consuming section-by-section printing.

Orthogonal spiral constituent parts maintain rigidity in hollow structures, eliminating the need for support materials during ceiling wall shaping.

A resin cassette window incorporates a temperature-sensitive fluorophore layer to enable visible fluorescence mapping of the photopolymerization process.

A controller analyzes resin surface signals to position a volume compensator for precise leveling.

A digital light processing apparatus converts 3D graphic data into continuous tomographic data for automated artificial tooth formation.

Automated 3D printing system uses tensioning mechanisms to maintain transparent sheet flatness and ensure consistent layer formation.

Movable stage uses motion vectors through a central origin to hold the nozzle at a fixed height during printing operations.

Angled felt gripper plates decouple cohering substrate sheets, reducing error rates from 10% to 0.5% in automated composite manufacturing.

Segmented adhesion and elastic support layers reduce material separation and cracking risks, improving printing reliability.

A platen assembly uses a lever release mechanism to secure and eject build trays during additive manufacturing processes.

Additive manufacturing embeds serialization data within substrate layers to prevent ink peeling and ensure long-term durability.

Displacing insulation walls reduces preheating time by shrinking the heated volume, then expands it to accommodate fabrication.

Hybrid machine learning models reduce computational time from hours to milliseconds while predicting manufacturing errors in additive manufacturing processes.

Removable build modules eliminate idle time between print jobs by allowing simultaneous preparation and printing.

An integrated apparatus combines shredding, pulverization, and additive manufacturing to recycle diverse textile waste into finished garments.

Segmented printing surfaces isolate defects during batch production, preventing waste propagation while maintaining high throughput.

A solid object printing system uses a rotatable recording head to deposit high-definition images on fixed workpieces.

Flashing photopolymerization applies millisecond light pulses to minimize scattering-induced resolution deterioration during micro-scale fabrication.

An independent elastic membrane system enables precise layer detachment in bottom-up photo-curing 3D printing.

A manufacturing apparatus positions a cutting unit downstream of a heating unit to reduce filament travel distance.

Circulating oxygen carrying liquid in the resin cassette window reduces light reflections and refractions that cause ghosting during additive manufacturing.