A slide body, handle, and push element enable controlled build plate release while reducing clip failure and printer downtime.
This 3D printing case uses a freely pivoting building platform to align with the vat bottom, avoiding manual parallelism adjustment.
Tomographic printing uses laminar flow to assemble ophthalmic devices from curable liquid.
A movable optics subsystem corrects off-axis focus across X/Y scan locations, improving accuracy and resolution without a flat image plane.
A shared powered platform passively latches non-powered compartments, reducing equipment cost and limiting build-material pollution.
A movable side-wall coater adapts slot width to particulate formulations, improving layer uniformity and print reproducibility.
An oxygen-permeable vessel maintains an uncured resin layer, reducing separation forces without active oxygen supply systems.
A powered print plate tilts from horizontal to vertical, using gravity for repeatable, automated component removal.
The printing plate rotates from horizontal to vertical, using gravity to detach printed components and reduce manual scraping.
A scraper and rotating tank reduce non-curing time, while a transparent liquid film supports smooth layer separation.
Connector grids keep printed polymer parts together for batch fabrication, resin recovery, post-processing, and final separation.
Integrated magnets align resin particles during SLA printing for stronger layers.
A coordinated multi-blade coating subsystem applies resin across lateral regions while imaging supports faster layer-by-layer fabrication.
A sliding latch links door position to tray locking, preventing rotation and unintended printing during maintenance.
A high- and low-refractive-index lens sheet limits curing contact area, easing layer separation without sloshing.
Layer-by-layer deposition forms wellbore casing liners with controlled cement placement, reducing voids and monitoring time.
Gravity-fed conduits and controlled resin handling help limit air introduction and composition changes during layer-by-layer manufacturing.
Mounting panels and alignment pads position feed and take-up modules, while adjustable mandrels help reduce operational misalignment.
A horizontal multi-blade recoater applies resin across lateral regions while imaging selectively cures layers, reducing fabrication time.
This case shows how a sealed circumferential wall integrates the drive to reduce chamber height and oxidation risk.
A spring-actuated build platform rotates on contact, then friction-locks parallel to a tensioned datum sheet for sub-micron tolerances.
A spectrum modifier attenuates longer wavelengths to shorten cure depth and improve fidelity in complex stereolithographic geometries.
A force-sensing squeegee measures screen tension and enables adaptive control for reliable, precise 3D screen printing.
A pixel-controlled mask illuminates only curing regions, limiting resin heat while maintaining continuous printing throughput.
This case shows how laser-aligned cartridges and computer-controlled deposition create defined tissue geometries from bio-ink.
A scanned light beam illuminates only transparent mask pixels, limiting heat generation and maintaining resin temperature during printing.
A robocasting approach cures injected material during printing, limiting oxygen inhibition and support contamination.