Manufacturing Platforms/Substrates TRIZ Cases

Segmented suction units around the shaping table dynamically track the irradiation position to prevent fume interference with the beam path.

A dispensing apparatus mixes dual cure resins to produce blended materials with intermediate mechanical properties.

Integrated squeegee holding device on screen frame allows complete unit removal, eliminating laborious cleaning between different printing materials.

A hydraulic 3D printing system uses a seesawing piston and platform to transfer resin within a disposable cartridge.

Upwardly-convex meniscus lens reduces light irradiation angle to distribute intensity uniformly across the LCD panel in 3D printers.

Movable projections in slots transition the base and extruder assemblies from a compact folded state to an operational printing configuration.

A laser assembly splits a single beam into multiple parallel beams using fixed and oscillating mirrors to ensure consistent energy delivery across the material bed.

Ultrasonic spreading blade with kickers prevents compaction zones and divots, ensuring smooth surface finish and structural integrity.

Decoupled drive units and guiding elements stabilize the build platform, preventing delamination caused by torsional moments.

Actuated flexible sheets deform to release additive fabrication parts, reducing adhesive forces that cause component damage.

A masking screen blocks incident radiation on a curable resin layer to minimize optical scattering during additive manufacturing.

Gas pressure maintains vertical spacing between carriage and transparent sheet, preventing distortion from photocurable liquid weight.

A substrate layer frame inversion mechanism flips the build platform to drop excess composite powder into a reclaim container.

An ultrasonic fine water nozzle atomizes liquid into the build box, reducing powder mobility and preventing scattering during binder application.

Selective liquid cooling solidifies liquefied thermoplastic via Peltier elements, resolving the trade-off between high resolution and printing speed.

Active mixing direct-ink-write platform prints polymer films for in-situ characterization.

A robotic arm positions a base plate with multiple degrees of freedom to expand the effective build volume beyond the resin container edges.

Actuating a flexible build layer separates additive fabrication parts while preventing damage caused by high adhesive forces.

Acoustic waves and inert layers resolve resin adhesion and heat dissipation bottlenecks in vat photopolymerization.

Adjustable platen sections minimize powder waste and improve temperature control in 3D printing.

Continuous rotary motion eliminates linear acceleration limits, improving processing speed without increasing control complexity.

A rotational membrane-releasing mechanism separates the transparent printing membrane from the cured resin layer using a controlled peeling action.

A centrifugal separator uses a reversible build platform to orient additively manufactured objects for resin removal.

Segmented platform support system combines independent clamping and pressure mechanisms for precise substrate positioning.

Vertical discharging device movement merges liquid droplets in air, preventing horizontal spreading and material mixing at boundaries.

An adhesive layer with embedded thermoplastic pellets absorbs shrinkage stress to prevent warpage without heated platens.

A 3D shaping device adjusts nozzle height relative to a heating unit using temperature data.

A robotic 3D printing system deposits continuous fiber filaments to build integrated composite structures.

Fusing agents containing antistatic additives impart static dissipative properties to 3D printed polymeric parts.

Michael addition chemistry cures elastomeric extrudates at ambient temperature, eliminating the need for heating apparatus and hazardous isocyanates.

Transparent base plate applies electric field to lower resin viscosity near tank bottom, resolving adhesion and oxygen inhibition in stereolithography.

Reciprocal motion of the syringe tip overcomes jet whipping instability, enabling precise three-dimensional nanopattern formation.

Conditioning unit maintains solvent vapor saturation to stabilize 3D-printed gel structures during fabrication.

Piston extruder advances pre-formed cosmetic sticks while thermal control prevents ingredient separation during thick layer deposition.

Movable base bodies in a 3D printing modelling head push objects off work surfaces, eliminating manual cutting tools and reducing damage risks.

Segmented stereolithography stations decouple motion tasks to eliminate manual intervention and reduce processing time variability.

Movable support arm temporarily holds overhang layers to eliminate post-production removal and reduce material consumption.

Oblique incident bulk wave chip generates acoustic radiation pressure to aggregate cells, overcoming mechanical damage limits in traditional bioprinting.

A binder releases secondary material during heating to enable sintering without melting the primary metal powder.

Carrier medium deflection structures guide light into a resin bath, expanding the exposure area without increasing installation space.

Cut grooves in a flexible silicon mat guide extruded plastic filament to stabilize shape formation and prevent hand instability errors.

Tubular heat resistant members isolate drive units from heated chamber air, preventing thermal expansion of shaft members that compromises shaping accuracy.

Structured light projects fringe patterns onto powder layers to detect defects before melting, enabling corrective actions in additive layer manufacturing.

A roll coater laminates thin films using differential roll speeds to form uniform layers without blade contact.

Direct digital deposition eliminates electro-mechanical mis-registration errors up to 250 microns in composite additive manufacturing.

A permeable window delivers inhibitors to maintain a liquid release layer during light polymerization of dual-cure resins.