Manufacturing Platforms/Substrates TRIZ Cases

An auxiliary mechanism varies isolation fluid status via flowing or shaking to prevent object attachment and maintain a smooth liquid level.

Joule heating via continuous carbon fibers maintains uniform temperature, preventing uneven crystallization and warping in high-performance thermoplastics.

A permanent print-surface coating secures to a substrate plate to provide an adhesive interface layer.

Mass inertial force removes excess photopolymerizable resin without mechanical contact, preventing structural damage to dental restorations.

A substrate-based additive fabrication process uses actinic radiation to cure liquid resin layers for three-dimensional object building.

A collapsible reservoir container uses a rigid reinforcement structure to maintain shape during material dispensing and removal operations.

Melt extruder delivers plastic melt through a nozzle head sprue channel to a carrier slide table, eliminating pre-formed wire requirements.

L-shaped brackets with independent adjustment mechanisms level the build plate to prevent resin contact hazards.

A transfer platform deposits treatment and material layers to form a pre-material layer, reducing shrinkage and residual stresses in binder jetting.

A window cassette fluid supply bed uses interdigitated channel arrays to distribute polymerization inhibitors across the build surface.

A flexible textile build sheet provides controlled adhesion during additive manufacturing printing.

A plasticizing device uses multiple communication holes and groove parts at the barrel bottom to supply molten material from a single unit.

A controller adjusts build platform displacement to maintain consistent layer thickness during additive manufacturing.

A 3D printer deposits thermoplastic elastomer layers onto a heated tire surface to restore tread patterns without mechanical buffing.

Segmented detection measures nozzle and reference distances independently, resolving calibration errors caused by unit replacement.

Movable side walls track the platform to reduce kinetic friction and prevent bending torque deformations.

A penetrating nozzle deposits material into voids between layers to create vertical strengthening features.

A three-dimensional shaping device measures nozzle-to-stage distance using a gauge head intermediary.

A tailored epoxy resin system enables rapid thermal or UV curing for additive manufacturing of carbon fiber composites.

A detachable carrier device holds solidified three-dimensional objects during post-solidification, preventing deformation and maintaining dimensional accuracy.

Automated leveling detects gap distance and adjusts platform position to eliminate mechanical assembly errors and ensure even bonding.

Tilting the workpiece recovers loose powder into the build volume, eliminating manual extraction and external handling equipment.

Elastic member adjusts non-molding space volume to limit powder spread area, preventing heat-induced deformation and leakage during 3D printing.

A 3D printed corrective layer restores surface accuracy on optical lenses, reducing residual stresses trapped during mass manufacturing.

Dynamic curing time adjustment based on powder bed depth resolves inconsistencies in 3D printed parts caused by variable layer thickness.

Segmenting the stage between curing and removal positions eliminates post-process cleaning that weakens structural integrity.

Multi-reservoir mixing controls mass ratios during deposition, resolving the contradiction between complex system design and precise spatial property variation.

Dual-chamber rotation enables continuous laser melting while one section undergoes powder replacement, eliminating downtime from manual cleaning operations.

Alternating thermal profiles in a transfusion sequence reduce energy accumulation, maintaining optimal temperatures while shortening cycle times.

An elastic membrane in a microfluidic chip allows sequential ink injection, resolving fabrication speed and precision trade-offs.

Vacuum deflation of a printed elastomeric enclosure exerts uniform pressure on complex geometries, eliminating porosity and voids.

Torque meter measures build plate resistance to determine resin viscosity for vat photopolymerization printers.

Segmented heating prevents heat diffusion into the base layer, ensuring sufficient temperature rise in the foaming layer for high protrusion height.

Dynamic activator control compensates for environmental moisture variations, preventing build material clumping and ensuring consistent object formation.

Movable support columns enable automated realignment of the recoater blade, resolving alignment errors in large-scale systems while minimizing powder waste.

Engineered powders infiltrate substrate layers to fabricate three-dimensional objects, eliminating binder burning at high temperatures.

A 3D printing system moves a print head over complex surfaces using a rotating positioning platform.

A tempered glass substrate creates a flexible interface between the photosensitive material and tensioned film to facilitate smoother layer separation.

A hybrid additive manufacturing nozzle uses segmented heaters to control print material temperature.

A spiral guiding unit moves the resin container to detach cured material, preventing adhesion damage and maintaining shape integrity.

Independent table movement allows simultaneous molding of multiple objects, reducing production time and operational complexity.

A build plate assembly uses a lighting panel and gas-permeable sheet to form three-dimensional objects via continuous liquid interphase printing.

A multi-material membrane reduces surface energy to enable faster layer separation, preventing mechanical stresses and tearing of newly formed polymer layers.

A removable tray captures purged liquid from a printhead using an absorbent reservoir.

Pulse irradiation fuses metal particulates on a low-conductivity polymer substrate, preventing warping and cracking during additive manufacturing.

Movable transparent rods form a negative relief mold to cure curved fiber composites, eliminating expensive custom tooling.

Controller detects shaping stage inclination to orient the substrate parallel to the flattening member trajectory.

Ultrasonic vibration launches material layers from an intermediate belt onto a platen, resolving shear damage and smearing in tall electrostatic stacks.

Vacuum extraction removes solvent from jetted material without degrading binder levels, maintaining packing density and printing speed.