Manufacturing Platforms/Substrates TRIZ Cases

See how an aggregator calculates node scores based on current operating power and selectively a

See how distance sensors monitor build material top surface position and trigger redistribution

See how Peltier-based cooling and phase transition control freeze-harden discharged biomaterial

See how a compact positive-pressure chamber with HEPA filtration enables sterile 3D bioprinting

See how Peltier elements with reversible polarity enable rapid heating and cooling of 3D printe

See how a jetting-type printer deposits both printed images and fasteners in one operation, eli

See how Peltier elements with polarity switching enable rapid heating and cooling of 3D print b

See how a positive-pressure enclosure with HEPA filtration maintains sterility for 3D bioprinti

A dry powder and electrostatic spray process enables homogeneous laser-sintered battery electrodes with strong adhesion and lower solvent use.

A switchable magnetic build plate holds the first 3D-printed layer firmly, then demagnetizes for easy part removal without cracking.

Intersecting light beams crosslink resin around electrical contacts to form precise insulative connector housings with efficient integration.

A laser powder-bed fusion process forms structured battery electrodes from dry powder, avoiding solvent drying while improving Li+ transport.

Integrated support bridges hold the internal filter during additive manufacturing and stay in place without degrading RF waveguide performance.

Separate dispensers and recovery paths keep raw materials from mixing, cutting waste and cleaning time in multilayer 3D printing.

Alternating etch and mask-trim steps build sub-micron 3D optical structures without planarization, preserving resolution and material integrity.

Solid-state mixing disperses conductive fillers in thermoplastics and plastic waste, improving conductivity without high filler loading or melt recycling.

Vacuum adsorption, flatness sensing, and Z-axis control enable consistent LED retaining wall printing in narrow gaps, improving contrast and limiting light leakage.

Layered insulating slots and conductive traces create capacitive coupling to body fluid, reducing MRI-induced heating in implantable leads.

Automated extrusion, wire feed, and cutting create embedded-conductor substrates with precise openings and fiducials for robotic connector assembly.

A PFA-CNT conductive coating enables automatic nozzle touch-off while preventing part adhesion and preserving tight substrate tolerances.

Separate dispensers and recovery paths prevent material mixing in multi-layer 3D printing while cutting raw material waste through reuse.

A photoelectric switch and electromagnetic probe simplify 3D printer bed leveling while improving repeatable detection accuracy.

Separate dispensers and recovery paths on a conveyor let multilayer 3D printing reuse excess material without mixing or full-system cleaning.

A gas-pressure seal extrudes printing material in low vacuum, avoiding thermal extrusion limits and reducing complexity for in-space part printing.

A magnetized substrate plate holds a magnetic first layer during FFF, then demagnetizes for clean part release without damage.

Maps damage types, operating modes, and measurable quantities to predict indirect change effects and cumulative failure risk in mechatronic products.

Additive manufacturing embeds wires in a dielectric substrate with precise openings and location features for automated connector placement.

Differential thermal expansion in a pin-hole workpiece holder locks positioning during powder-bed builds and eases transfer to later processing.

Selective heating with an alcohol-based cross-linkable binder improves 3D print layer bonding, edge sharpness, and production speed.

A spring-biased latch locks the rotary tray and blocks door closure, preventing accidental printing during maintenance or object removal.

A static optical assembly with pixel modulation and microlens optics enables large-area SLA printing at high resolution with less noise.

In-situ induction heating, rapid quenching, and electromagnetic stirring improve AM metal strength and dimensional stability without post-processing.

Concurrent substrate heating and oxide ablation improve droplet remelting, coalescing, and bonding in liquid metal jet printing.

A hull-mounted 3D printing room near the vessel’s center of gravity uses damping, motion control, and part transport paths to keep onboard builds accurate.

Rotating the workpiece while paired nozzles move symmetrically cuts non-productive travel and speeds direct metal deposition of symmetric parts.

Melt pool radiation enables in-process energy beam focal position detection, avoiding separate test sheets and compensating thermal shifts.

A spring-loaded sliding block keeps 3D printer belt tension consistent, improving bed motion precision and reducing wear.

Controlled substrate pulling and parameter variation reveal when hot cracking starts in additive manufacturing, improving repeatable crack evaluation.

Ultrasonic vibration tuned by material properties relieves build stress layer by layer, reducing distortion, cracking, cost, and lead time.

Integrated heating in an exchangeable rigid platform carrier evens thermal gradients while preserving clamping force and fast machine changeover.

A spring-loaded sliding block keeps 3D printer belt tension consistent, improving bed vertical precision and reducing wear.

An etched negative base guides additive growth of timepiece waterproof joints to meet tight tolerances and surface finish in small-series production.

An engraved negative base guides additive growth of watch sealing gaskets to meet tight thickness and surface-finish tolerances in small series.

Variable irradiation through a transparent substrate forms continuous adhesives with wedge shapes and thickness gradients beyond die-cutting limits.

Spaced fixture segments allow radial movement during DED thermal cycles, cutting residual stress, deformation, and cracking in large parts.

Segmented compliant fixture sectors let DED parts expand radially, cutting residual stress, deformation, and cracking during build.

A cold-sprayed compressive top layer helps PBF-L build plates resist warping and failure while cutting cost through a reusable support region.

Patterned electron beams raise energy delivery for powder bed fusion, improving powder bonding where semiconductor laser brightness falls short.

A hinged conveyor and registration pins align powdered substrate sheets automatically, cutting 3D printing stacker errors and manual adjustment.

Cold-sprayed top layers add compressive stress to PBF-L build plates, resisting thermal warping and enabling lower-cost plate reuse.

A sliding fiber-fed optic head replaces complex beam deflection parts, lowering cost while keeping precise laser focus across the powder bed.

A modular build plate orients inserts so additive manufacturing forms porous screw shafts while preserving proximal strength for stable fixation.

Under-object heating and directionally compliant supports keep temperature uniform while limiting thermal stress and deformation during beam-based builds.

Removable inserts in recessed build plates absorb thermal expansion, cutting part deformation and easing part removal in additive manufacturing.

A cam-based low-profile clamp secures the build surface with consistent force while avoiding tool-head collisions in large-format 3D printing.

Adaptive fiber-array laser beams and in situ sensing improve metal additive manufacturing throughput, repeatability, and melt control.

Shape information guides beam position and object attitude changes to process multiple build surfaces with higher precision and surface quality.

Spring-biased pins conform to a 3D printed part, lock by elastomer friction, and support inversion for gentle removal and interposer etching.

Build plate inserts orient screw shafts for additive spinal implant manufacturing, cutting machining, handling risk, and resurfacing cost.

Selective layer sintering with different powder sizes enables multi-material 3D objects while allowing unsintered powder separation and reuse.

Encased unfused powder in printed containers reveals how part features drive degradation, helping predict reuse limits and protect build quality.

A spaced dual-seal channel uses gas flow to remove abrasive powder, cool seal interfaces, and return powder to the chamber.

Threaded carriage adjustments and optimized bearing surfaces simplify perpendicular rail calibration and improve true linear motion in 3D printers.

Centrifugal resin spreading in a rotating drum avoids meniscus, voids, and separation forces for more accurate 3D layer formation.

A rotating core and orientable print head enable lower-cost 3D printing of complex revolution parts, including reinforced shapes and 90° edges.

A sublimating or melting build platform enables reliable first-layer adhesion, then automatic 3D print release for successive unattended printing.

A cold trap condenses additive-manufacturing vapors into liquid waste, reducing carbon-filter replacement and treatment costs.