Manufacturing Platforms/Substrates TRIZ Cases

A stereolithographic machine uses a 360° rotating modeling head with multiple working surfaces to enable continuous production.

Segmented printing platform uses adjustable locking units to resolve stability versus ease of operation, ensuring parallelism and reducing maintenance time.

Mechanical vibration and acoustic energy detach residual powder from printed components, enabling material recovery and reducing manual decaking time.

Addressable LED curing selectively crosslinks build material layers in electrostatic 3D printing.

Tilting a flexible element peels cured layers to reduce separation forces and prevent damage to delicate features.

A vibratory compaction system levels powder to eliminate streaks and craters caused by mechanical doctor blades.

Hollowed stiffener panel reduces excessive deformations during additive manufacturing while preventing powder entrapment in the deposition system.

A reciprocating manufacturing unit integrates powder supply and binder discharge to enable high-speed additive fabrication.

A 3D printing system deposits filament layers onto a dissolvable inner mold to form an airbag ply without cutting or sewing.

A continuously revolving cylinder deposits material in a spiral pattern to build three dimensional parts without stop and go motion.

A 3D printer light engine scans a columnar array of modulated light spots across the build plane to image material stripes.

A vacuum build platform secures base films using air pressure differences during additive manufacturing.

Segmenting the workpiece carrier from the printing table plate allows immediate reloading while printed parts dry, resolving station utilization limits.

Robotic nozzle smoothing eliminates labor-intensive tooling while reducing porosity in continuous fiber composites for scalable manufacturing.

Automated additive manufacturing system integrates a platen assembly and removal unit to print and extract 3D parts on flexible film substrates.

A continuous additive fabrication system uses a motorized variable aperture to generate smooth, optical-quality intraocular lens surfaces.

Photosensor triggers rear LED matrix when front light intensity exceeds a limit, preventing unintentional detachment of built-up layers during separation.

Sulfonate-modified polyester resin dissolves in neutral water, eliminating foaming and safety hazards from strong alkaline removal.

Data processing unit calculates solidifying device allocations for additive manufacturing layers to optimize throughput time.

A wheeled trolley isolates the build platform from ground irregularities, enabling precise alignment and external cooling to reduce printing cycle times.

Dynamic mold deformation expels bubbles from concave features during initial contact, allowing gradual area expansion without losing positional accuracy.

A flexible compliant pressure conveyance media applies uniform contact during additive manufacturing layer bonding.

Segmented substrate protrusions accommodate material shrinkage, reducing residual stresses and distortion without requiring heated processing environments.

Marker devices project light reference marks detected by lasers to calibrate positions, compensating for thermally induced deformations.

A platen system uses vacuum to secure substrates and pressurized air to create an air bearing for part removal.

Detachable connecting elements enable easy separation of shaped bodies from the reusable base, reducing material waste and costs.

Indexing a print foundation along a printing axis expands the printable volume beyond build chamber limits while maintaining precise positioning accuracy.

Building tire mold linings at 20° to 70° angles increases support plate capacity while incipient cracks enable clean separation from local supports.

A computer-controlled apparatus selectively solidifies liquid curable material and deposits a second material to form composite objects with tailored properties.

A 3D printing printhead adjusts trip start and end points to match object contours.

A multi-chamber 3D printer arrangement segments build spaces to enable simultaneous component production using a shared universal coating mechanism.

Automated robot handling of build platforms across multiple printers and a shared cleaner boosts production throughput without adding proportional complexity.

A 3D printing system adjusts build material volume to match object size, optimizing layer formation and reducing excess powder usage.

A linear laser spot transforms point energy into a line to increase scanning speed in additive manufacturing.

Redistributing fluid substance via a paddle eliminates waiting time for spontaneous leveling, reducing processing duration and machine footprint.

Synchronous reciprocating printing mechanisms on shared guide rails accelerate material deposition cycles.

A polymeric interlayer enhances adhesion on rough substrates while maintaining electrical conductivity of metal nanoparticle inks.

Segmented lateral and feedtray heaters apply variable power density to eliminate hot spots, ensuring dimensional accuracy and reducing internal stresses.

A force sensing system with a pressure-sensitive array detects debris and monitors material weight in stereolithographic apparatuses.

An additive manufacturing system uses an articulation mechanism and multi-orifice nozzle to extrude multiple filaments simultaneously.

Real-time layer scanning identifies material shortages so a secondary nozzle fills missing areas, reducing scrapage and improving part quality.

Dual-chamber oxygen control accelerates resin curing while preventing surface hardening, producing high-strength 3D articles.

A vertical stage moves along a non-perpendicular axis to enable larger object creation in additive manufacturing systems.

Segmented construction and cooling chambers eliminate unproductive downtime by maintaining continuous heating cycles during additive manufacturing.

A powder module holding device uses a moveable clamping unit to engage build plate recesses from below.

Segmented carriers adjust speed dynamically to resolve productivity bottlenecks from uniform conveyor motion, enabling simultaneous diverse product fabrication.

Low-temperature FDM printing suppresses warping and blister formation by eliminating irregular crystallization kinetics in amorphous thermoplastics.

A build plate with a gas-permeable sheet enables continuous 3D printing by maintaining a liquid release layer.

Real-time tension and compression feedback synchronizes resin flow with light exposure, preventing premature activation that causes surface defects.