Manufacturing Platforms/Substrates TRIZ Cases

A 3D shaping apparatus adjusts stage temperature to manage material adhesion during the additive manufacturing process.

A floating frame maintains alignment between a 3D printhead and print surface using differential stiffness to dampen oscillating forces.

Dynamic ejection control substitutes interior color ink with white or clear alternatives, reducing expiration waste and manufacturing costs.

Dust measuring devices monitor pollutant concentration in the gas circuit, allowing safe workpiece removal only when levels drop below critical thresholds.

Continuous scanning on a rotating cylinder increases additive manufacturing throughput without sacrificing spatial resolution.

Rotating bridge assembly folds nozzle unit parallel to stage, resolving bulk constraints in portable additive manufacturing.

A 3D printed structure defines an interior space filled with a liquid monomer that polymerizes into a solid polymer.

Solenoid valves control oil cylinders to align the construction platform, reducing adjustment time and mechanism volume.

A syringe adapter merges multiple hydrogel streams into a single nozzle for precise extrusion.

Unidirectional process modules move along a continuous path to regulate thermal energy application during additive manufacturing.

An inverted build chamber positions the heated print bed above the extruder to maintain high temperatures.

A 3D printing machine spins reinforcing fibers onto a base material to improve structural integrity.

Digital inkjet printing deposits UV-curable synthetic resin layers directly onto non-stick surfaces to form self-supporting articles.

Optimizing build plate surface roughness with specific peaks and indentations resolves inadequate attachment strength in additive manufacturing.

Segmenting the printer frame into a rigid z-stage and isolated damper frame reduces vibration transmission without compromising stage alignment.

Aligns illumination pixels with orthodontic appliance dimensions to eliminate cumbersome post-processing reconstruction and reduce printing duration.

An oscillating printer head uses magnetic fields to control travel direction and speed for wireframe fabrication.

An optical modulator uses a retardation device to transform linearly polarized light into circular polarization for patterned curing.

Exchangeable printheads in a modular 3D printer resolve versatility versus complexity trade-offs through automatic configuration.

A slurry deposition method fills voids between layers to eliminate anisotropic properties and enable tunable conductivity in additively manufactured parts.

A multi-cell digital light processing printer couples light and magnetic fields to control microsphere movement.

An anchored resin tank pivots around a fixed point to peel cured layers, reducing separation forces without complex actuators or degrading coatings.

Replacing mechanical translation with hydraulic pumping prevents fouling and stress on the 3D article while sustaining high printing speed.

Controller analyzes build plate geometric signature to adjust base layers, preventing defects from non-planar surfaces.

Compatible polymer film reduces warpage by welding with printed articles through chain entanglements.

Integrated waste collection subsystem removes partially cured resin debris from the vessel, preventing material degradation and extending usable resin life.

Force sensing during platform contact generates real-time viscosity data, resolving contradictions between production speed and manufacturing precision.

Continuous ink circulation prevents sedimentation and nozzle blockages, enabling smooth surfaces with minimal shrinkage during sintering.

Segmented release zones in the flexible film layer reduce peak peeling forces, improving print quality and extending substrate longevity.

A removable support structure enables stable overhang formation during additive manufacturing without requiring strong bridging capabilities.

A local aerosol evacuation system captures ultrafine particles and volatile organic compounds directly at the additive manufacturing nozzle outlet.

Counter-rotating rollers deposit and compact powder layers, reducing friction to prevent accumulation during thin layer formation.

Outside-in additive manufacturing eliminates joint leaks and material waste in thin-walled cylinders by depositing continuous layers around a rotating axis.

A stereolithography controller translates a coater blade while selectively imaging the build plane to cure resin layers in parallel.

Modular nozzle arrays with rotating troughed wheels deliver selective powder deposition, reducing material waste and ensuring uniform layer thickness.

A powder module uses a cable pull sensor to detect the carrying device position within the powder chamber.

Segmented build chambers with isolation screens prevent cross-contamination between food-grade and munition materials, enabling safe multi-product output.

Intersecting jets collide reactive material droplets to prevent premature gelation while enabling controlled compositional gradients.

Segmented manufacturing creates a strong proximal portion via subtractive methods and an additively manufactured distal portion for enhanced bone integration.

A rotating polygonal mirror system directs multiple light beams across feed material layers to enable parallel energy delivery.

A shaping stage uses differential thermal expansion to alter its relief structure for part separation.

Ultrasonic oscillators generate acoustic radiation pressure to detach cured material, eliminating mechanical movement and increasing production rate.

Interlocking frame members and modular plates create an expandable 3D printer that adapts to varying structure sizes without requiring multiple fixed units.

A bristle brush sweeps spatter particles from the powder bed, preventing defect formation and preserving mechanical properties in additive manufacturing.

A circulation system moves an inert gas-treated fluid across a vat interface to extract oxygen, preventing adhesion and maintaining print resolution.

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

Segmented cryogel fabrication separates scaffold printing from cell seeding, resolving sterile environment requirements while maintaining spatial control.

Movable resin trays allow sequential curing of distinct materials, resolving single-vat limitations for multi-object production.