Wing Frames TRIZ Cases

A side-sealing frame encloses door transverse-frame ends to hide moving parts, block dust buildup, and improve appearance and contact safety.

Integrated metal profiles anchor the insulating element directly, simplifying door and window frame assembly while improving thermal and acoustic insulation.

Magnetic jigs hold recessed door panels during filling to prevent glue residue, surface damage, and deformation from expanding material.

Multiple nut sets at different depths let joinery frames accept thicker or thinner glazing without new drilling while preserving a watertight seal.

Sliding internal reinforcement modules strengthen movable barrier frame rails for high wind loads while preserving a low-profile appearance.

An airtight film on an adjustable frame creates a retrofit air gap at windows or doors to improve thermal insulation and cut building energy use.

Deep-set VIG panels, muntins, and air cavities preserve historic divided-lite appearance while reducing cold-edge heat loss.

Snap-engaging coupling bodies align wooden frames and lock glass panels without screws, reducing damage, tools, and assembly time.

A T-shaped sash profile uses a recess, groove, clamping element, and screw to secure fittings without requiring a profile over 30 mm thick.

Multi-pane insulating glass reinforces the door panel while providing thermal insulation, eliminating complex corner profiles and reducing manufacturing costs.

Segmenting the frame into a solid base body and detachable cover element resolves maintenance challenges while preserving thermal insulation.

Segmented foamed polymer frames resist heat conduction through thermal breaks, lowering energy loss without adding weight.

Segmented plastic rungs replace solid bars to resolve the trade-off between thermal insulation and shear rigidity in composite window profiles.

Simultaneous gas injection into three inclined glass sheets cuts production time compared to sequential double glazing assembly.

A fenestration system uses a T-shaped bulb seal to close gaps between the frame and glass panes while maintaining a steel-like aesthetic.

Mechanized assembly replaces manual labor, reducing errors while boosting productivity in insulating glass pane production.

A metal profile integrates an insulating element into a single unitary structure to simplify manufacturing.

A composite window frame uses a structural foam member interposed between aluminum extrusions to reduce thermal conductivity.

A window chassis insulating structure uses synthetic resin brackets to secure glass panels within a sliding frame assembly.

Molded plastic foam profile elements eliminate complex corner joining, reducing manufacturing time while maintaining mechanical strength and thermal insulation.

Chamfered triangular elastomer captures excess adhesive to eliminate mess while synthetic polymer compound ensures weather-independent curing speed.

Polymeric sheet structural panel with foam insulation reduces door weight while maintaining blast resistance.

Multi-leg snap-in retainers secure impact-rated glazing in frame channels, eliminating fasteners that complicate assembly and degrade aesthetics.

A foamed core window frame member uses a thin metal layer to provide structural strength.

Outer pane concavity eradicates under pressure differential, reducing aircraft mass by 30% while maintaining structural integrity.

A polycarbonate resin composition for window frames combines ultra-high molecular weight copolymers to enhance mechanical properties.

Segmenting the internal volume into distinct pressure zones reduces structural stress on glass substrates during manufacturing, increasing production yield.

A door leaf clamps the front panel against the frame using a lip-hooking arm to secure the assembly without adhesive bonding.

A composite window sash profile combines an aluminum structural frame with a plastic inner section to deliver robust load-bearing capacity.

A composite profiled section integrates metal reinforcement via form-fitting holding elements to establish a shear-resistant bond with extruded plastic.

A tapered truss structure connects parallel crosspieces using metal laminate rods to maximize glass surface area.

A glazing unit with a rigid structural spacer featuring an interlocking profile integrates directly into building walls.

Gas-filled frame cavities in pivotable panels lower thermal conductivity while reducing structural weight, preventing scratches during post-finishing assembly.

Hollow chamber design provides structural rigidity to PVC profiles, eliminating thermal bridges and enabling full recyclability of the homogeneous material.

A window wing profile integrates a desiccant channel and vapor barriers within its structural cross-section to conceal moisture management components.

Expanding polyester foam fills aluminum window cavities, preventing thermal bridge deformation during high-temperature powder coating.

Double-sided tape bonds the film to the sash, preventing glass separation from the frame during impact events.

A holding wedge applies expansive and compressive forces to secure multiple frame components into a single unit.

A coupled window uses a cover list and anchor to secure double-glazing in a recess, enabling a thinner inner sash design.

Molded border elements replace complex glazing profiles to eliminate destructive pane strains while simplifying the mounting process.

Reversible sealing devices prevent gas leakage while a horizontal conveyor displaces air from long glass panes.