Units With Parallel Planes TRIZ Cases

See how a thinner intermediate glass pane with different composition reduces weight and thermal

UV-printed glass resin spacers and silicone edge sealing maintain vacuum without evacuation ports, cutting VIG production time and cost.

A low-CTE center glass layer avoids thermal tempering, cutting IGU weight and warpage while preserving insulation and optical quality.

Localized laser heating vitrifies seal material to hermetically bond glass substrates without bulk heating, protecting heat-sensitive components.

A plastic film sealant enables vacuum insulated glass to be evacuated and hermetically sealed at low temperature, supporting larger laminated panels.

Mounting tabs, adhesive bonding, and fasteners join insulated window frame layers to reduce delamination while preserving thermal insulation.

Voltage-switched optical trenches adjust privacy angle and pitch to avoid moiré effects across different display specifications.

Layered light-transmitting elements and sealed chambers improve heat and sound insulation while preserving switchable light transmission.

A polycarbonate multi-pane insert with spacer and gasket improves thermal and sound insulation while avoiding the weight of glass retrofits.

Stepped aperture surfaces and a pre-assembled vision panel simplify precise fire-door installation while preserving fire resistance.

Retractable suckers and servo-controlled pane flattening enable uniform inert-gas filling of insulating glazing units while reducing costly gas waste.

Flexible spacer strands replace rigid frames to assemble thin-glass insulating panes faster while reducing stress and deformation.

A perimeter sealant barrier keeps vacuum glazing seals intact after chamber exit, improving vacuum retention and thermal insulation.

Flexible spacer strands replace rigid frames to assemble thin-glass insulating units faster while limiting deformation and breakage.

An elongated getter in a recessed trough improves gas sorption inside a vacuum insulated panel, helping preserve low pressure and thermal insulation.

Low-temperature glass seals use tellurium or vanadium oxides and carbon control to limit UV outgassing and preserve vacuum panel life.

A laminated front pane with flexural stiffness of at least 5.00×10^4 Nm helps large IGUs resist 50–100 kPa blast waves.

Multiple laser beams heat the full solder path while same-side clamping supports automated, hermetic VIG sealing.

Controlled rubber, filler, and dispersion parameters help thermoplastic spacers bond glass sheets while preserving manufacturability.

Moving laser beams uniformly soften VIG solder while clamping glass sheets, helping prevent voids and channels in durable edge seals.

This VIG process separates edge sealing from final evacuation, allowing equipment reuse while maintaining a hermetic glass-sheet seal.

Localized pulsed-laser sintering and edge evacuation reduce VIG production time and energy while maintaining hermetic vacuum sealing.

Porous or self-supporting monolithic layers between glass panes reduce thermal conductivity while enabling thinner, lighter assemblies.

An adjustable sealant dispensing head adapts nozzle gap distances to match insulating glazing unit spacer widths.

A wireless sensor unit measures thermal flow and temperature to assess insulating glazing quality.

Displaceable pressing plates position smaller glass sheets within larger ones, enabling large step production without increasing conveyor height.

Stamped shoulder features anchor internal grids to spacer blades, preventing displacement that compromises seal integrity.

Nested inner sub-sash frame protects exposed glass edges during shipping and enables easy removal for maintenance without compromising structural stability.

Integrally formed plastic edges in channel-section glazing eliminate separate clips, resolving inventory costs while enhancing thermal insulation.

Aggressive ceramic frit dissolves thin film coatings during heat treatment to fuse with glass substrates.

Spring elements bias the internal divider away from glass panes, preventing rattling during high winds while reducing heat loss through metal muntin bars.

Spring-based nozzle control adapts to irregular insulating glass geometry, preventing pane damage while ensuring reliable peripheral cavity sealing.

Segmented film support eliminates spacer interfaces to reduce assembly time and prevent wrinkling in multi-pane insulated glass units.

Integrating the control element into the door leaf reduces installation complexity and avoids structural interventions in building walls.

Heat-shrinking the transparent film to a tensioned state minimizes wrinkling and reduces assembly time for multi-pane insulating glass units.

A three-pane insulated glazing unit uses a thin intermediate glass pane to reduce thermal energy transfer while maintaining structural integrity.

Offset dual-pane insulated glass unit uses tiered frame mounting to resolve weight-strength trade-offs while maintaining energy efficiency.

A thermoelectric device integrated into glazing converts temperature differences into electricity via the Seebeck effect.

An acrylate-based adhesive seal replaces epoxy in variable diffusion glazing units to ensure chemical compatibility with the polymer matrix.

A standardized glass panel manufacturing method uses a larger first substrate bonded to a smaller second substrate with internal pillars.

A temporary assembly with a gas passage enables vacuum evacuation through an outlet before the partition seals the channel.

Argon-filled multilayer glass reduces heat transmittance below 0.7 W/m2K while preventing breakage risks associated with vacuum designs.

A strip-shaped getter positioned parallel to the sealing portion maintains vacuum integrity without obstructing edge seals.

A translucent structure uses multiple independent insulated glass units to enhance thermal performance.

Peripheral spacer system accommodates thinner vacuum insulated glass units within standard window frames without structural modification.

Universal connecting elements join modular profiles in insulating glass kits, eliminating trapped air pockets and reducing accessory variety.

A connecting strip bridges a glass windowpane and frame using adhesive and mechanical fasteners.

Segmented profiles connected by low-conductivity elements reduce thermal loss and eliminate costly gluing steps.

A spacer element presses profiles against panes until polymerization, resolving non-parallelism issues during multi-chambered unit manufacturing.

Dipodal organo silane layers bond glass to plastic sash units, resisting UV degradation and moisture without masking agents.

Segmenting coatings across two glass sheets reduces manufacturing complexity while maintaining neutral reflection and high light transmission.