Non-Rotating Vibration Suppression TRIZ Cases

Opposing magnets in the mount adapt to varying frequencies, reducing noise and wear on automotive or industrial equipment.

Snap-fitting replaces costly punching to block the strength member, simplifying fabrication while maintaining vibration isolation.

Segmented stopper elastic bodies distribute load across multiple contact points, suppressing sudden spring constant increases during high-load impacts.

An asymmetric flange shape distributes stress in resin brackets, suppressing concentration at off-axis vibration points.

An intermediary apparatus with a contact and biasing member disperses impact forces, preventing glass breakage without altering manufacturing processes.

Asymmetric engine mounts and adjusted crankshaft balance weights reduce primary couple vibrations without adding heavy counterweights.

An adjustable spring rod tunes the natural frequency of a vibration damper, eliminating material fatigue in chemical plant pipelines.

A metal layer on a disk drive suspension damper masks viscoelastic irregularities and increases damping capacity without mineral contamination.

Replacing rigid anchor shafts with coil springs absorbs seismic loads via elasticity, preventing fracture from earthquake-induced tensile stresses.

Integrates stopper and base portions in a vibration damping device holder to simplify cavity formation using slide molds.

A vibration-damping device uses a press-fitted bracket to elastically deform stopper elastic bodies through penetration holes.

Periodic unit cells in a single material platform generate spectral gaps, eliminating the need for multiple layers and reducing fabrication complexity.

Reversible vibration damping element seals hollow frame elements, preventing noise ingress and moisture damage without permanent adhesive bonding.

Tuned wire rope isolators impede damaging vibrations in the 10-60 Hz range, preventing resonance damage to fragile objects during transit.

A dynamic damper control device adjusts magnetic force via fixed-point arithmetic to match target frequencies.

Angled brackets orient elastic members to compress under torque, reducing vibration transmission to the frame while managing structural complexity.

Channel-shaped openings in a damping element guide subfloor lines to protect the energy storage unit and resolve structural space constraints.

Segmented TPE and POM construction prevents permanent deformation while maintaining shock absorption.

Segmented elastic and pin-hole mechanisms protect high-precision cameras from multi-axis vibration-induced image blurring.

An electricity generating shock absorber converts vehicle vibration kinetic energy into electrical power via electromagnetic induction between sliding magnets and coils.

Layered bearings with non-diametric contact points dissipate vibrational energy through friction, reducing transmission across multiple frequencies.

A reversible torsional power unit mounted on a hinge pin switches force direction to resolve the trade-off between bi-directional support and device complexity.

Radial U-shaped leaf springs achieve symmetric stiffness to replace multiple X-type mounts, reducing footprint while preventing metal-to-metal contact.

An elastic motor support swings the rotor about the x-axis to overcome static friction in a ball balancer, ensuring accurate mass balancing.

A magnetic stabilizing mass pivots within a housing to counteract oscillations via repulsive fields.

A biasing member and contact mechanism dissipate impact energy to protect glass surfaces from breakage.

A tunable pneumatic isolation system damps motions down to 1 Hz using compressed air springs, reducing electromagnetic noise interference in airborne surveys.

A pneumatic actuator generates axial force using a pressurized piston within dual chambers.

Linear guide restricts lateral bending modes to reduce weight and complexity in spacecraft vibration isolation.

A multi-stage coiled and spiral spring shock absorber isolates exhaust manifold vibrations using a grommet and collar member assembly.

A demonstration system simulates vibration isolation performance using existing actuators and processors to provide user comparisons.

Relocating brackets to the frame exterior minimizes center of gravity offset, improving vibration insulation and routing space.

A linear switched reluctance actuator applies active forces to a vehicle sprung mass while a coil spring absorbs road shocks.

An adjustable vibration device replicates mechanical failures through customizable signatures, reducing testing time and costs.

An asymmetric bracket connecting part generates differential reaction forces to suppress excessive engine displacement during acceleration and deceleration.

A torque rod uses a bolt nested in a counterbore partition wall to secure the actuator support shaft.

Segmented dissipative mesh with projecting nodes creates free space for main absorbent elements, resolving the weight versus energy dissipation trade-off.

A vehicle shock absorbing system uses a dynamic absorber with a tuned mass and spring to target wheel resonant frequencies.

A sliding seismic isolation device uses a steel slider with double-woven fabric layers to reduce friction.

An integrated heater pad merges heating circuits and lighting connections into one unit, reducing structural complexity and production costs.

A damper apparatus maintains shaft movable range by using a pre-compression spring to urge a shock-receiving member, preventing end contact position variations.

Elastic polymer damping element decouples rail sensor units from mechanical vibrations, reducing device complexity and construction volume.

Integrated elastomer insulation layer and rigid support member reduce part count while suppressing noise and vibration transmission.

Selective application of thermoset polyacrylate material reduces rubber waste and prevents decomposition when exposed to oil.

Protrusions on the gel elastic body retain embedded support members, preventing detachment from packaging and ensuring reliable seismic isolation.

A metal joint damping member yields under relative displacement to absorb seismic energy through controlled plastic deformation.

A vibration damping device uses a rectangular frame and tubular member to compress an elastic body for reliable attenuation.

Compliant towers with geometric window frames deliver tunable damping without increasing space requirements.

Integrating a porous member with metal powders reduces thickness while improving heat dissipation and rigidity.

A stopper rubber fixed with a radial gap controls spring constant and deformation, preventing excessive main body rubber compression to improve durability.