Lamination Ancillary Operations TRIZ Cases

A pre-stressing mechanism applies longitudinal tension to continuous fiber layers before polymer molding.

A reflective layer redirects laser energy to decompose an organic sacrificial film during flexible device fabrication.

Independent pressure zones in the holder compensate for Young's modulus anisotropy, reducing attachment distortion and improving alignment accuracy.

Stacked anode sheets with holes form gas diffusion paths, resolving the contradiction between hydrogen diffusion performance and structural strength.

Continuous bias pattern fabric with diagonally oriented carbon fibers eliminates stitching contaminants that cause composite fracture and tear.

Automated radius filler formation system separates composite sheets into strips and stacks them on a layup surface.

A polycarbonate anti-glare laminate uses a patterned PET film to transfer uneven shapes onto a hard coat layer.

Tractor devices pull pliable sheet elements through a coupling unit, eliminating Eulerian instability and preserving geometric planarity.

Opposing fixture mechanisms and an adhesive processing unit separate touch screen substrates without damage.

Incising assembly creates perforations in adhesive liners, transforming waste into shock-absorbing packing material.

Recessed dissolvable support layers provide mechanical rigidity to fragile thin substrates, enabling clean release via chemical dissolution.

Solid polyurethane adhesive sheets prevent liquid running during bonding by heating the material to activate tackiness.

Selective coating on one surface reduces manufacturing complexity while improving acoustic insulation.

Fluid pressure bonding handles complex instrument panel geometries without visual distortion or functional damage.

Segmenting large tow carbon fibers via cutting and spreading improves resin impregnability, reducing manufacturing costs while maintaining physical properties.

Calcium aluminate flux bonding agent joins aluminum nitride sintered bodies at temperatures below 1500°C, preventing thermal deformation.

Segmented handle strips fuse to a base web, eliminating folding tooling and maintaining lateral alignment.

A stretchable thermal radiation modulation system uses strain-dependent cracks in a low emissivity layer to reversibly tune surface heat emission.

A separation system integrates cleaning units to process substrates concurrently.

Randomly-oriented carbon fiber layers enhance induction heating efficiency in thermoplastic composites.

A substrate bonding apparatus uses a resonant frequency detector to monitor the bonded structure during assembly.

A substrate holder uses a light shielding member to remove organic substances from the wafer back surface.

A photocurable hydrophobic methacrylate adhesive composition enables precise temporary fixation of optical members during processing.

Horizontal holding stations apply sideways pressure to bond layers via quick-setting adhesive, reducing curing bottlenecks and improving board strength.

Low-melting stitch resin secures layers during processing, preventing physical property deterioration while enabling complete recyclability of the composite.

Optical imaging replaces manual adjustments to align bond head and flip head collets, reducing setup time and improving bonding quality.

Surface modification creates a temporary bond between a glass device substrate and a carrier, enabling reusable carriers and reducing manufacturing waste.

A multilayer elastomeric film applies a thin polyolefin skin layer to resolve blocking issues while maintaining core elastic efficiency.

A stretch laminate uses a relaxed thermoplastic elastomeric film bonded between envelope webs to create an elastic structure.

Cam-controlled nozzles direct high-pressure jets to separate spectacle lenses from blocking pieces, reducing damage risk without complex equipment.

Specific wavelength UV LEDs cure photocurable layers on high-transmittance base films, preventing thermal deformation and improving curing quality.

UV-printed ink on a BOPP optical film adhered to substrate paper eliminates air drying and coating breakdown during impact.

A multilayer acoustic baffle construction integrates adhesive layers with foam and fabric to absorb sound.

A cartridge position adjustment mechanism moves a ribbon cartridge widthwise to orient an overlaminate patch on a substrate.

A transfer lamination method uses an adhesive panel to selectively remove portions of a carrier layer before bonding the remaining section to a substrate.

A porous inert gas supply mechanism creates a localized protective atmosphere around the bonding surface during substrate peeling.

A composite core uses separated plate-shaped flakes to enable complex three-dimensional shaping without structural damage.

A filter sheet uses stacked medium films to reflect specific wavelengths while transmitting others for display applications.

A protective surface film with stabilizers adheres to thermoplastic composites during compression molding.

Standardizing noise dampers across size groups reduces production complexity and cost while maintaining uniformity.

Laser beam decomposes silicon nitride separation layer to detach carrier substrate, eliminating extra process steps and preventing barrier layer loss.

A laser applies controlled shock loads to debond aircraft structures at selected subsurface depths.

A vacuum jig fixes laminated membranes between sheet members to prevent misalignment during hot pressing.

A colored thin covering film uses a low dielectric glue layer to maintain signal integrity.

A knife blade guard locking mechanism couples with sealing tape application rollers to control blade exposure.

Segmented convex heating plates counteract asymmetric thermal contraction in single facers, stabilizing sheet geometry and preserving heat transfer efficiency.

Inline breakaway layer application merges coating steps to eliminate separate operations, reducing manufacturing costs and PET waste.