Side-By-Side/Stacked Arrangements TRIZ Cases

Segmented modular power distribution reduces rack volume and weight by eliminating unused components in aircraft systems.

Rigid storage drive block with shock-absorbing materials absorbs mechanical vibrations across multiple drives.

Segmented housing parts stack to accommodate more circuit boards, using heat pipes and ventilation ducts for thermal management.

Extending frames with adhesive bonding secure PCBs, preventing thermal stress and breakage from high-temperature soldering.

Segmented case design with abutting parts generates pushing force to suppress rattling in vehicle wire harness connections.

Stationary permanent magnets define static configurations for peripheral elements in a volumetric transformable display.

Motor screw mechanism replaces manual alignment to adjust adjacent LED display screen spacing, cutting installation time from 37 to 5 minutes per square meter.

Segmented housing compartments prevent service personnel exposure to high-voltage bus bars during data panel maintenance.

Segmented sheet metal parts fuse through laser welding to maintain surface planarity, eliminating die casting distortions that compromise pixel alignment.

Laser-ablated films fill seams between tiled modules, matching refractive index to eliminate visible gaps and boost contrast.

Two display panels bond at inner edges while a panel supporter guides bending curvature to minimize stress.

A display panel uses integrated power supply boards to share electricity between adjacent sub-display panels.

Slanted side plates on a motor drive housing create gaps that guide cooling air through the unit.

Segmented sealant design resolves trade-off between protection capacity and cut straightness by extending beyond encapsulation boundaries.

A UPS display device uses a signal bus to connect power supply modules and display units for flexible operation message sharing.

A detachable bracket fixes display panels to a box body, reducing supporting columns and preventing interference with internal components.

Interlocking server cells eliminate midplane backplanes to resolve airflow interruption and enable three-dimensional scalability.

Linked frame segments pivot around drives while isolator cups suspend units, reducing wear from vibration interference.

Pre-certified modular circuit boards eliminate re-certification bottlenecks, reducing development time for safety-critical avionic systems.

Housing hooks and restriction posts sandwich parallel circuit boards, reducing bolt count and simplifying the assembly process.

Keyed couplers align modular enclosures on shared rails, reducing removal complexity while increasing storage density.

Integrating alignment and power transfer into a single rotating support member eliminates separate wiring, reducing installation time for tiled displays.

Interlocking tray modules form continuous vertical back surfaces, eliminating knock-out opening restrictions and enabling flexible expansion.

Protruding support frames insert into adjacent chassis holes and secure with blind rivets, maintaining mechanical strength while simplifying assembly.

A drive assembly moves a secondary screen to alter the display area, resolving the trade-off between fixed structure simplicity and adaptable user experience.

A compact storage device holding mechanism features a sliding push rod and latch structure for easy installation.

Chassis design with aluminum covers and super capacitors protects data integrity against electromagnetic interference.

A magnetic attraction mechanism joins unit display modules to a rear frame assembly structure for rapid front maintenance.

Segmented latch components enable toolless tray installation while maintaining secure positioning against vibration-induced displacement.

Relocating rotary switches to the side wall of adjacent modules protects configuration settings from tampering while maintaining secure emergency stop control.

A server storage fixing assembly uses a tray and locking parts to mount modules.

A refractive optical element conceals splicing frames in multi-screen displays, resolving interference with viewing quality.

Bus bars connect auxiliary capacitor connectors within stackable housing members, eliminating high cable impedance and electric resonance.

A power distribution box uses interlocking feet and cover projections to prevent horizontal sliding during vertical stacking.

Inverted coupled display units align frame sections to reduce manufacturing costs while maintaining display quality.

Interlocking modular network components nest tightly within a rack frame key to achieve high packing ratios.

A multi-screen digital display device projects high-resolution images that travel continuously across edges to create a holographic visual experience.

Perimeter vents on stacked switch chassis create air gaps that drive natural convection airflow, eliminating fan noise and power consumption.

Positioning clamps apply uniform pressure to align sub-display panels, reducing gaps and height differences between adjacent panels.

A movable side frame extends into adjacent concave parts to connect display panels.

A cable actuator links multiple enclosure doors to prevent unauthorized access while maintaining electrical safety.

Integrated prisms in a cover plate refract light to mask spliced display seams, eliminating complex LED bars and reducing weight.

Merging DC terminals minimizes external bus bar length to lower surge voltage and improve current distribution uniformity.

Integrating in-wall flow paths within the housing structure eliminates external connecting pipes that create dead spaces, reducing overall converter size.

Segmented backplanes with communication and glue filling holes secure display panels via adhesive injection.

A foldable display integrates rigid and flexible panels on a substrate with variable thickness to create a seamless appearance.

Raised studs and positioning recesses align power modules with casing holes, resolving manual alignment difficulties during assembly.