Screen Printers TRIZ Cases

See how a rotatable capsule insertion guide maintains alignment during high-speed centrifugatio

See how formulated silicone replaces stitched hems on silk scarves, preventing fraying and slip

See how conductive adhesive applied during transfer movement bonds and electrically interconnec

See how a belt feed assisting mechanism creates a gap between conveyor belt and support base to

See how automatic flap closure using lever engagement prevents frame collisions, garment displa

Multiple jig members and edge interface portions hold and tension several face masks at once, enabling stable solo DTG printing.

See how printing directly on nested fabric elements instead of entire textile sheets reduces wa

Multiple jig members and threaded interface portions hold face masks smooth and taut, enabling single-operator batch printing on DTG platens.

Interchangeable platens let operators load the next garment while another prints, reducing loading idle time from 16 seconds to 4 seconds.

See how an oval printing machine integrates digital and silkscreen stations to eliminate reposi

See how transportable platens with a master loading station cut garment loading time from 16 to

See how synchronized pallet assemblies transfer printed garments between screen printing machin

See how a stretching lever replaces iterative manual stretching to achieve uniform sheet tensio

A condensate-absorbing conveyor pre-humidifies printed fibrous sheets, enabling continuous steam ink fixation with lower energy use.

A condensate-absorbing conveyor pre-humidifies printed fibrous sheets before steaming, stabilizing chamber conditions and cutting energy use.

Synchronized pallet assemblies keep garment registration during transfer between screen printers, enabling more colors without manual repositioning.

Perforated silicone bands let socks grip the skin while releasing heat and moisture, improving hold without the sweating caused by solid bands.

An embossed reinforcement portion stabilizes a PCB stencil inside cavities, preventing bending and producing uniform solder paste heights.

Selective venturi and turbine vacuum improves holding, alignment, and screen contact for non-flat PCB printing workpieces.

Modular suction-magnet units let a cylinder reposition magnetic elements precisely, improving particle alignment for optically variable image elements.

Multiple magnetizing rollers and synchronized optical mask curing create fixed and variable optically variable patterns in one printing pass.

Matrix-arranged magnetic and suction modules improve particle alignment on substrates while allowing flexible cylinder reconfiguration.

Partial drying before levelling flattens printed silver deposits, reducing die cracking and print medium waste on substrates.

Independent support towers with parallel kinematics align singulated PCBs for simultaneous screen printing with high accuracy and flexibility.

A graphite-carbon black ink balances low viscosity, rapid solvent release, and thin-layer conductivity for flexographic and gravure printing.

Independent print and material-processing heads vary separation during screen printing to cut buildup and keep solar cell patterns precise.

Differential-height support surfaces enable separate alignment of singulated substrates, improving multi-board printing accuracy and throughput.

Stationary supply and collection rollers cut printing nest mass, enabling faster substrate exchange with less belt wear and maintenance downtime.

Real-time 3D profilometry controls solar cell paste laydown during printing to cut silver waste and maintain consistent wet-pattern quality.

Conductive adhesive applied during row transfer joins solar elements mechanically and electrically while improving voltage build-up and assembly efficiency.

Coordinated screen, support, and deposition motion hides alignment moves within one stroke to cut solar cell screen-printing cycle time.

A single alignment and conveyor path combines laser scribing with adhesive printing to cut handling, save floor space, and reduce PV cell breakage.

Collected substrate supports let the printer feed, print, and separate multiple boards or cells with less downtime and easier handling.

Straight stencil channels avoid mesh junctions in critical print paths, improving paste uniformity for narrow solar cell contact lines.

Offset mesh alignment removes channel-area intersections, enabling narrower, more homogeneous solar cell contact lines with less waste.

Overdriven clamping with height measurement adapts to variable workpiece thickness, stabilizing print gap and preventing screen damage.

High-tension carbon nanotube screen elements enable sub-10 μm, cohesive printed lines for photovoltaic solar cell structures.

Dual sensors track paste level and outlet extrusion to prevent false empty-cartridge judgments and protect PCB printing quality.

An adjustable top seal and bottom support automate solder paste tube replacement across different tube heights, reducing manual changeover.

Machine learning predicts stencil-printed solder paste volume from print conditions to reduce excess or insufficient deposition defects.

Controlling surface crystal grains to 98 nm or less lets tungsten wire reach 3900 MPa strength at 100-225 μm diameters for saw wire and screen printing.

Automated paste pan and squeegee transfer recover solder paste beads during stencil changeover, cutting PCB printer downtime and waste.

A primary blade with trailing secondary blades improves solder paste filling and leveling across full-height and reduced-height stencil apertures.

Automated paste recovery rolls the solder bead from a used PCB stencil onto a replacement stencil, cutting manual changeover time.

A rotary indexing mechanism automates used and new paste cartridge exchange to cut stencil printer downtime in PCB assembly.

Separating the squeegee frame from the mask frame lets the bed damp vibration, preserving mask position and print registration.

Real-time solder measurement updates a search model for control parameters, keeping print yield above threshold while reducing substrate waste.

A rotary indexing mechanism automates used and new paste cartridge transfer to cut stencil printer downtime and support continuous PCB printing.

A paste pan and squeegee assembly moves solder paste from an old stencil to a replacement stencil, reducing PCB printer changeover downtime.

Automated cartridge swapping with a rotary index cuts stencil printer downtime and keeps paste dispensing running during PCB production.

Spring-based corner and edge elements keep angular stencil foils uniformly tensioned without complex pneumatic or geared adjustment.

Multiple linear actuators and clamps stretch screen-printing mesh evenly, lock the frame in place, and help prevent wrinkles during adhesive application.

An integrated printing nip, alignment cylinder, inkjet position, and UV curing path enables high-resolution optical effects from magnetic coatings.

Detaching the workpiece carrier for off-line drying keeps the 3D screen printing table in use, reducing downtime and raising throughput.

An angular offset between the squeegee blade and elongate stencil apertures improves deposit quality and prevents blade dipping.

Differential-height support surfaces align small-pitch singulated substrates for simultaneous printing without added alignment hardware.

An X-adjustable squeegee holder aligns the blade with stencil and support table for uniform solder paste printing on protrusions and recesses.

A two-region stencil gap improves paste supply and line definition, enabling narrow PV conductor tracks with lower resistance and stable throughput.

A movable, removable paste shield collects solder paste drips under squeegee blades to keep stencil printing clean and consistent.

Real-time 3D profilometer feedback replaces offline paste checks to control wet-pattern laydown, cut silver waste, and improve solar cell yield.

A sensor-laser docking approach aligns a movable cart to assembly equipment, automating stencil and cartridge changeovers with less manual work.

A thermochromic layer gives instant visual feedback on printing board temperature, reducing manual checks and helping maintain print quality.

Rotary cam actuators move a support in translation and rotation to align singulated workpieces at small pitch with lower complexity.

A two-base-module printing unit combines magnetic particle alignment, non-impact image deposition, and selective curing for precise layer control.