Manufacturing Driving Means TRIZ Cases

Direct laser excitation of oxygen eliminates photosensitizers and inert atmospheres, resolving complexity constraints while improving feature resolution.

In-line mixer and heater wings enable precise extrusion of two-component silicone systems, overcoming viscosity limits in soft robotic component fabrication.

A coater cleaning device uses a longitudinally moving wiping element to remove particulate material from the dispensing area.

A plasticizing device rotor features a groove-formed surface with protrusion and recess structures to facilitate smooth material flow.

Fastening actuator struts to a scaffold stand frame eliminates crane-based anchoring and reduces site preparation time.

Horizontal rotation positions the nozzle at a lateral portion of the print-head, enabling material deposition on object sides.

A determination unit calculates relative ejection timing for abnormal nozzles to synchronize substrate stage movement with resin deposition.

A spreading unit with an adjustable shaper dynamically modifies its contour to match component surfaces during viscous material application.

A 3D printing pen integrates a dyeing mechanism with a single-drive system to mix filament colors directly within the heating assembly.

A framed structure supports a movable printing arm while stabilizing arms with counterbalances maintain printer position.

A 3D shaping method uses reheating and secondary material ejection to fill lacking portions in the first portion of a shaped article.

A rotary additive manufacturing system uses a rotating tool support to build 3D parts, applying radial heat zones to resolve uniformity trade-offs.

A guide unit rotates the extruder to deposit filaments at inclined angles, enhancing mechanical strength in additive manufacturing.

Automated additive manufacturing device forms aerospace trusses using pre-impregnated tapes and wires.

Rotating the build platform allows lateral solidified layer formation, enabling internal hollow structures without vertical support constraints.

Radial printheads deposit layers on a rotating cylinder while a curing device modifies surfaces without removing the object.

A linear actuation system with a gripper applies opposing lateral forces to move build material toward an extrusion head.

Modular post-processing apparatus automates cleaning and curing of 3D printed outputs to resolve manual transfer bottlenecks.

Ultrasonic sensors replace mechanical joysticks to calibrate bioprinter nozzles, eliminating cross-contamination and breakage risks.

A build platform position detection method measures separation forces to determine z-axis height without direct contact sensors.

Polygonal nozzle corners form interlocking protrusions that resolve weak inter-layer adhesion without altering standard material composition.

Sweeping vibration frequencies across a range fluidizes partially fused powder, automating removal and eliminating manual intervention.

Segmenting the build space allows parallel irradiation and continuous coating, eliminating non-productive idle times in additive manufacturing.

A nozzle calibration system detects needle position to correct deflection errors in bio 3D printing.

Automated tuning of spreader vibration frequency compensates for wear and material variations, ensuring uniform layer thickness and density.

An automated gantry system deposits extrudable material in vertical layers, reducing construction time and labor requirements.

A printing apparatus with multiple spaced nozzles distributes extrusion material to manufacture identical components in parallel.

Rotating the build chamber optimizes approach angles to minimize ripples and cumulative errors during additive manufacturing.

Kneading austenitic stainless steel powder with a polymer binder creates printable feedstock that yields high-density sintered bodies.

Dual connecting channels maintain screw extruder efficiency during pauses, increasing material deposition rates.

A compounding system blends stock materials to form customized consumable filaments with desired optical and compositional characteristics.

Gear assemblies regulate molten material flow via rotating gears, eliminating viscosity-pump inconsistencies and reducing bead width variations.

A nozzle with variable cross-section adapts its output area during deposition to balance precision and speed.

A parallel kinematic linkage transfers rotary motion into horizontal movement to eject printed parts from the build platform.

Segmented nozzles create parallel support ribbons alongside printed layers, resolving the trade-off between manufacturing speed and device complexity.

A motor-driven shutter covers the discharge nozzle to prevent residual biomaterial photocuring and clogging in bio 3D printers.

Independent Z-axis mechanisms for the ink jet head and sensor unit enable precise positioning during three-dimensional printing operations.

Decouples electrophotographic layer imaging from transfusion via independent batch processing to eliminate positioning delays.

Segmenting the extruder and deposition modules prevents air trapping between layers while enabling easy screw replacement for maintenance.

Movable support masts reposition on completed levels to suspend a cable-guided nozzle, eliminating ground tower height constraints.

A 3D shaping device inspects liquid discharge from nozzle holes to identify abnormal states before producing objects.

Rotating stir bars actively mix powder in the supply unit, preventing caking and ensuring uniform distribution for better 3D print compactness.

Electromagnetic susceptor particles enable rapid dielectric heating of thermally cross-linkable polymers during additive manufacturing.

A movable container with a stirring element agitates liquid photopolymer during 3D printing to prevent light energy accumulation and unintended curing.

Linear bearings and rails accommodate extruder thermal expansion, ensuring consistent nozzle height for improved printing accuracy.

A bioprinting system uses a sterilizable enclosure to maintain sterile conditions during biological tissue printing.

Twisting adjustment units counteract filament deformation by dynamically rotating fiber bundles, preserving shape accuracy in curved structures.

A flat screw plasticizing device uses differential temperature control to manage material flow during startup and operation.