Non-Rotating Vibration Suppression TRIZ Cases

A hermetically sealed damper assembly uses viscous fluid and integrally formed springs to provide restorative force.

A magnetic spherical tripod head uses a fixed magnetic piece to attract the universal ball head and maintain stable locking force.

Radial loading converts tensile stresses to compression, preventing fatigue failure while maintaining soft on-center rates.

A cone-based energy dissipation device creates a tortuous flow path to absorb vibrational energy from equipment chassis.

A vibration damping device uses a plate-shaped rigid member with protruding portions to connect outer and inner attachment components.

A sprung mass damping control system adjusts vehicle drive unit output to suppress body vibrations based on real-time road and driver inputs.

Center bearing bush unit manages propeller shaft displacement through cushion rubber and stoppers, resolving vibration insulation trade-offs.

Inverting inclined surfaces on the rail bearing prevents dust accumulation and simplifies machining while maintaining long-term seismic-isolation reliability.

Segmented tube and press-fit metal fitting components prevent axial displacement of the main rubber elastic body while maintaining vibration damping rigidity.

Styrene-based resin and sulfur crosslink acrylic rubber to prevent tan δ degradation, preserving vibration insulation reliability near automobile engines.

A dynamic damper uses a protruding section on the mass body to adjust spring constants and natural frequency.

Preloaded springs and dampers in non-radial support members equalize damping forces, eliminating uneven rotation while absorbing vibrations.

Integrating expanded recess portions into the second mounting metal fitting constrains engine mount movement in the X direction.

A seismic isolation device uses wire-rope dampers to absorb energy and reduce inertial forces in high-voltage electric systems.

A vibration damping mechanism uses segmented weight members and elastic urging elements to absorb energy through sliding friction.

Cylindrical urethane rebound stoppers feature circumferentially shifted protruding portions to increase initial compression.

Deformable layered structure attenuates impact energy through differential deformation of alternating Poisson ratio materials.

A vibration-compensated optical system uses a reaction mass coupled via elastic elements to cancel actuation forces.

Domed spring members isolate fuel rail components from vibration transmission, resolving assembly complexity and noise issues inherent in metal wool isolators.

Multi-directional damping limiters constrain axial, radial, and circumferential movement to prevent gear overloading from misalignment.

Bracket-equipped vibration-damping device locks connection-insert sections via urging rubber, preventing assembly damage and rattling noise.

A hydraulic mount connects a vehicle body to a high-voltage accumulator using fluid damping.

A vehicle body reinforcing body uses a vibration damping member with controlled storage shear rigidity to join structural components.

An eddy current damper converts kinetic energy into heat to reduce wind turbine vibrations.

An eddy current damping mechanism minimizes vibration and impact transferred to wafers during carrier transport.

Nested tubes with integrated flanges apply pre-compression in orthogonal directions, reducing component count and preventing deformation.

Composite mooring lines resolve the trade-off between high tensile strength and operational handling difficulty in wave energy conversion devices.

Embedded woven wire ropes in metal plates create dry friction that dissipates vibration energy and prevents structural fatigue.

A slotted spring vibration isolator accommodates prewired electrical harnesses via a coaxial shaft bore, resolving insufficient damping in conventional designs.

Differential compression creates progressive stiffness that suppresses excessive vibration amplitudes while maintaining flexibility for small disturbances.

Tuning rods create anti-phase vibrations to eliminate exhaust drone without adding system complexity or weight.

Modular locking mechanisms and nested wire conduits prevent component dislodgement and wire loosening during vibration events.

Concave grooves in the rubber-like elastic body reduce adhesive friction and wear while maintaining vibration absorption during axial and radial movement.

A vibration damping construction system uses adjustable fluid chambers to absorb structural vibrations.

Induction heating to 160-280°C prevents coating damage while maintaining vulcanizing adhesion accuracy.

Segmenting the stopper into two elastic bodies at varying gaps distributes impact loads, reducing spring constant fluctuations and improving durability.

Serpentine flexure elements isolate reaction wheel vibrations to reduce bearing load and power consumption during launch.

A junction with a chamfer portion creates different spring constants in orthogonal directions to isolate vibrations.

Integrates outer bracket with housing to eliminate bridge brackets, reducing weight while maintaining vibration insulation.

Divided rubber cylinders resolve vertical rigidity versus horizontal flexibility by using axial compression and transaxial shear to damp vibrations.

Segmenting damping between an air spring and shock absorber reduces component weight while maintaining ride quality.

Nested composite rings absorb torsional vibrations, reducing material fatigue while occupying minimal internal space.

Welded elastic means fix the spring to the support, enabling automated assembly of the shock absorbing bearing and reducing production costs.

A sensing beam with a tie-point and rubbing-point creates friction against a panel to dissipate vibration energy.

Cord segments suspend a weighted object to absorb vibrational energy, resolving post-shooting force trade-offs.

Grip members constrain the component body while cutting members sever the lead, preventing inclination and ensuring reliable pickup by the installing head.

A hand-held work implement uses a front-mounted anti-vibration element to decouple handle vibrations from the combustion engine.

Inverting the bushing fixation allows direct stopper load transmission, resolving the trade-off between compact installation and structural reliability.

An internal cushion engages the piston intermittently to create progressive rate build-up, resolving insufficient force absorption in monotube shock absorbers.

A magnetic damper replaces hydraulic fluid with a magnet and nonferrous member to eliminate leakage and fatigue.