Manufacturing Platforms/Substrates TRIZ Cases

Counterweight and elastic mounts apply horizontal oscillating force to minimize floor vibrations while separating unfused material.

Movable leveling roller and release film assembly reduce manual handling damage and resin contamination risks.

A flexible floor part in an additive manufacturing container enables controlled product release through localized deformation.

Imaging device detects calibration marker position to generate correction vectors for additive manufacturing solidifying devices.

Hybrid photocurable resin compositions resolve miscibility issues between cationic and free radical components to produce clear, colorless 3D articles.

Magnetic gantry translation and automated resin leveling improve printing accuracy and yield while minimizing mechanical complexity and human interaction.

A magnetically coupled mixer detects and removes cured photopolymer debris from container surfaces, preventing light blockage that distorts fabricated parts.

A hot bed deformation tolerance structure uses linear motion modules to compensate for thermal expansion in large continuous fiber high-temperature 3D printers.

Segmented support structures minimize contact area, simplifying removal of the formed object and substrate layer from the forming table.

A multi-nozzle shaping device adjusts screw rotation speed to regulate plasticized material discharge from each nozzle.

Force monitoring on the recoater blade detects layer deviations and adjusts process parameters to prevent mechanical damage.

Sensor block maps non-planar build surface topography to ensure uniform first layer deposition.

A stationary build platform supports layer-by-layer fabrication using a dosing pump and image projector for precise resin curing.

A powder bed mixed with a thermally activated bonding agent undergoes selective heating to partially sinter build material particles.

Interlocking table positioning mechanisms align objects between printing and cutting stations, resolving transfer inaccuracies that compromise product quality.

Indexed print foundation exits through a port to extend printable length, while scaffolds brace the part against sagging and wobbling.

Inverting carrier movement to a stationary platform eliminates lifting load limits, maintaining consistent layer thickness for taller workpieces.

Dynamic bonding prevents premature separation while allowing easy removal without damage.

Adjustable build platform flexes perpendicular to base using springs or pneumatic devices to manage pressure.

An imaging-based determination device verifies film adhesion on a pallet, preventing damage to the shaped object during removal.

A sacrificial support material holds continuous reinforcement during additive manufacturing to enable complex geometries.

An electrically switchable magnetic fastener aligns the build platform, resolving imprecise manual reattachment that compromises fabrication quality.

Anchor channels in the base plate cure resin anchors that resist extraction, solving adhesion limits for complex structures.

A resin vessel uses a movable support scaffold to reduce unsupported dimensions, minimizing resin consumption for large-area printing.

A 3D printer uses force sensing to probe print surfaces and detect extrusion errors during additive manufacturing.

Segmented re-coating elements move across separate motion paths to apply build material, resolving productivity losses from single-element repetitive track motions.

A 3D shaping apparatus adjusts material viscosity through real-time temperature sensor feedback and dynamic heating control.

A manufacturing device uses multiple transfer platforms to produce layers in parallel before assembling them on a build platform.

A printer controller records base plate height when a mechanical hard stop disconnects from a fixed part during nozzle calibration.

Detachable plates on a build platform enable parallel orthodontic appliance manufacturing, simplifying handling and reducing post-processing time.

A dual-laser system melts powder and machines layers in situ to enhance geometric precision.

Segmenting the build chamber with a perforated plate isolates particulate removal, reducing gas volume and operating costs.

Vacuum forming a 3D printed cover onto a base part reduces ink volume and UV curing hazards for high elevation objects.

Segmented build plate sheets use thermal glue release to eliminate manual removal delays and prevent damage during multi-object printing.

Automated distance probes replace manual leveling, reducing cycle time and variability while ensuring recoater blade parallelism.

A dual nozzle 3D printer uses a tilting mechanism to switch between nozzles of different diameters, preventing interference and improving shaping precision.

Salt micro-spheres replace unpredictable chemical pore formers in silicone foams, ensuring repeatable curing and shape stability.

Folding build plates unfold to create continuous horizontal surfaces, eliminating batch reset delays and weak seams in large parts.

A powder module uses a ring-shaped flow channel structure to remove construction material from the receiving section.

A mold manufacturing method shapes a stacked body on a base plate using additive techniques and incorporates the assembly into a mold base.

A variable-size 3D printing system uses a cylindrical coordinate structure to move the nozzle along polar angles.

Force sensors on the recoat roller provide real-time feedback to adjust operating parameters, resolving build material distribution inconsistencies.

Leaf springs retain disposable build plates within retaining seats, eliminating machining costs and extending operational life.

Fluid spill containment vessel with transparent window supports upward light projection for stereolithography resin curing.

Ultrasonic vibration in the nozzle eliminates bubble inclusions and improves structural strength while maintaining manufacturing efficiency.

A moveable calibration platform enables solid media alignment for additive manufacturing agent distributors.

A consolidating head forges semisolid material streams into dense layers.

A 3D printer uses a dense floating solution to support photocurable resin layers, minimizing material volume.

Thermocouples on the build plate underside detect temperature fluctuations to prevent dimensional warpage from separation.