Spring Boards TRIZ Cases

T-shaped joints with grooves prevent rod twisting while ultrasonic welding eliminates labor-intensive sewing for faster production.

Recessed attachment members and aligned connectors distribute impact forces across a foam deck, reducing wear on trampoline mats during high-jump tricks.

An angled rebound surface redirects downward throws upward, solving insufficient return force in practice devices.

Staggered holes in the T-shaped connector prevent pipe rotation, eliminating friction noise while allowing easy user installation.

A trampoline connector uses a T-shaped transverse and longitudinal assembly with a detachable ring for secure attachment.

An adjustable bungee fixture and mobile computing module resolve immersion complexity by synchronizing physical bouncing forces with rendered environments.

Dual PVC layers resist UV degradation while hook-and-loop fasteners prevent pads from falling off trampoline springs.

Segmented nodes connect internodes to reduce material waste and manufacturing complexity while maintaining structural strength.

A horizontal front foot support surface attaches to starting blocks to enable full foot engagement and improved kick-off force.

Vibration-activated light sound module rotates LED elements via motor to produce dynamic visual effects, resolving user engagement trade-offs.

Transverse and longitudinal folding interfaces in the ring frame allow the elastic bed to fold into a compact volume while maintaining structural stability.

Segmented fixing arrangement with locking pin resolves assembly complexity by securing basketball hoop to trampoline support tube through nested slits.

Overlapping hinged arches pivot to collapse the enclosure, preventing unsupervised use while maintaining structural rigidity during operation.

RF welding replaces labor-intensive weaving to join trampoline panels securely without gaps.

Infrared emitters and receivers detect hits while a bounce sensor tracks user jumps, resolving the trade-off between simple operation and complex gameplay.

T-shaped joints connect trampoline rings to adjust arc length, resolving the trade-off between variable elasticity and structural complexity.

Segmented trampoline courts with angled side beds resolve gameplay complexity by enabling varied scoring challenges and player safety.

Flexible enclosure support members deform elastically to absorb user impact energy, reducing injury risk without compromising structural strength.

Curved upright supports anchor a flexible wall and integrated handrail, lowering the center of gravity to reduce injury risk from rigid frame contact.

Segmented springs with variable constants dampen excessive deflection and reduce fatigue for heavier users while accommodating lighter loads.

Segmented base elements clamp the frame and leg using a tensioning bracket, reducing assembly complexity while securing the support pole.

Flexible resilient plates replace extension springs in this trampoline design, eliminating safety hazards while maintaining traditional bounce performance.

Vacuum bags compress trampoline components to eliminate void spaces, preventing rattling while minimizing packaging volume.

Buttonholes on the flexible wall engage trampoline mat D-rings to eliminate hazardous gaps between the rebounding surface and the enclosure.

Vertical guide rails and insulating polymers prevent corrosion while maintaining precise fulcrum positioning.

Central joint bracing struts connect parallel posts, enabling compact folding while maintaining jumping stability.

A microbial scrub brush uses a disinfectant impregnated foam insert to clean medical device surfaces.

Ridge structures on bent support tubes distribute unidirectional spring stress, preventing junction deformation and improving frame durability.

Expandable wedges and clamp mechanisms prevent stem wobbling in conventional anchors without specialized replacement systems.

Porous enclosure netting prevents finger entrapment while maintaining structural strength for safe user containment.

Internal frame formations secure flexible rods to eliminate exposed spring hazards while maintaining structural stability.

Segmented wall and buttress pads with an apex angle improve spring coverage and user safety.

Modular space design nests trampolines within the platform structure to resolve storage capacity versus deployment time trade-offs.

Articulated joints transform the rigid frame into a flat block, eliminating bulky fixed structures.

A test specimen with an integrated accelerometer drops onto a jumping mat to measure maximum deceleration and rebound height.

Recessed pockets in the diving board shell hold a cork-polymer composite tread, resolving durability trade-offs while maintaining a flush profile.

Angular support with movable pins and slots adjusts starting position on a swimming platform, resolving positional control versus device complexity.

Pivoting trampoline frame locks at discrete inclination angles using dual clamping mechanisms, resolving stability-versatility trade-offs.

A touch screen panel design connects column electrodes to distinct channel wires to equalize wire lengths and minimize parasitic capacitance variations.

A reversible trampoline hoop cover uses asymmetric threading openings for quick installation on both sides.

Dual springs with a linkage arm absorb impact energy while maintaining rebound performance for safer landings.

Segmented foam layers with spatially varying height profiles deliver targeted damping over rigid frame structures while reducing material usage.

A trampoline support frame uses a spring-loaded operating sleeve to pivot legs inward for compact storage.

Anti-friction bearings connect bungee cords to the trampoline frame, reducing abrasion and prolonging service life while preventing spring steel injuries.

Tapered pole connector panels secure enclosure nets to trampoline frames, resolving suspension stability issues while managing system complexity.