Manufacturing Platforms/Substrates TRIZ Cases

Raised and lowered posts support flowable filament across elevated structures, simplifying complex 3D builds without manually placed supports.

Toggleable magnets replace manual locking to give 3D printing platforms a repeatable attachment force and improve print reproducibility.

Cell-specific polypeptides in alginate-gelatin hydrogel tune porosity and mechanics for precise tissue printing.

Embedded supply terminals let the printing support measure electrical characteristics during additive printing, helping control deviations before completion.

A movable-base membrane seals the additive manufacturing build chamber, limiting uncoalesced powder leakage and component contamination.

An intermediate foil accumulator separates feed and take-up speeds, enabling intermittent movement and more efficient resin-layer production.

An inclined projector exposes strip regions while shifting joint positions between layers to improve accuracy in large-area stereolithography.

Graphite supports match the sintering window of FFF metal parts, limit distortion, and separate more easily than brittle ceramic supports.

Predefined deflection points let microsupport arrays fracture during object removal, reducing post-processing effort while preserving print support.

A linear motor adds local Z motion for non-planar toolpaths, while an overhead chamber isolates and speeds print head exchange.

Printing tactile features onto substrates enables selective aircraft surface repair instead of replacing entire degraded laminates.

UV printing and curing create tactile aircraft substrates that replace only degraded portions, reducing material, labor, and maintenance time.

A six-axis positioning system keeps the print head orthogonal to curved and bifurcating collectors for stable fiber deposition.

A transparent sheet and vented desiccant housing remove water vapor from the optical path, enabling 3D features below 10 microns.

A single device switches between resin and powder fabrication and engraving or cutting, avoiding separate stitched-together systems.

Through-support irradiation forms layers on a rotating cylinder, limiting container-wall adhesion during viscous material production.

A sealed multi-syringe module separates solid and fluid biomaterial output, avoiding nozzle heat cycling while keeping material changes contamination-free.

A rotating member creates a vortex in molten thermoplastic to twist reinforcing filaments and improve impregnation in 3D printing.

Separate print and trim gantries add cost and space; a shared gantry supports near-net-shape production with independently controlled heads.

Dynamic shear-rate and temperature control tunes molecular orientation and crystallinity during extrusion, improving 3D-printed strength.

Laser scanning evaporates solvent during viscous-material deposition, enabling high-resolution multi-material printing and sequential post-processing.

Grid sacrificial layers use recessed contact regions to hold 3D objects during shaping and simplify separation afterward.

A rotating build plate and UV projection cure high-viscosity thermosets while software maps layers for accurate DLP printing.

Motorized Z-axis actuation automates heavy build-platform leveling, reducing manual iterations and operator skill demands.

An integrated hopper combines vibration, diversion, dosing, and recoating to reduce series failure points in additive manufacturing.

Peripheral pinch rollers keep pliable substrates flat for continuous 3D printing while avoiding contact with the printed surface.

Feedback sensors adjust inlet, outlet, and bypass gas flow to limit particulate interference and protect laser processing in the build chamber.

Automated Z-axis leveling and adaptive laser control improve build-platform precision and melt-pool consistency in additive manufacturing.

Automated motorized adjustment replaces repeated manual leveling of additive-manufacturing build platforms, reaching a level state in about 15 minutes.

Phase-separated liquid release material separates cured layers from the light-transmitting plate, reducing damage and modeling time.

A movable cover linked to the print head helps a thermally insulated 3D printer exchange objects without manual removal.

A dynamic mixer and controlled dispensing path enable smooth, continuous silicone deposition for medical devices with varied material properties.

Force feedback adjusts carrier upstroke speed to automate liquid refilling and limit overload or foreign-object damage.

Slow washing limits throughput and resin recovery; a spinning rotor separates excess resin from carrier-mounted objects for reuse.

Selective photoinhibition creates a dead zone below the growth zone, enabling continuous 3D nanoprinting without layer-by-layer pauses.

Radiation sensors measure exposure across the receiving space, enabling feedback control that improves post-curing consistency in 3D-printed parts.

Printing a jacket around a substrate or electrode subassembly enables customized catheter and lead structures with targeted flexibility.

Gas diffusion through the build plate sustains a dead zone for continuous CLIP fabrication, replacing separation steps that can distort parts.

A transparent resin support and patterned radiant curing improve layer adhesion while forming complex monolithic components.

Slow cooling and continuous pressing bond a wax base to an aluminum printing tray, reducing disconnection, cracking, and warping during additive manufacturing.

An inertia-based objective function replaces full thermal calculations, selecting low-distortion additive build orientations in under 0.05 seconds per iteration.

Radiant energy cures patterned resin layers with constituent materials to form composite parts with varied density.