Locally distributed double-layered damper
Patent Information
- Application Number
- TW115206586
- Authority / Receiving Office
- TW · TW
- Patent Type
- Utility models
- Current Assignee / Owner
- Filing Date
- 2026-07-14
- Publication Date
- 2026-10-21
- Estimated Expiration
- 2036-07-13
Smart Images

Figure TWG2TB001917841_001 
Figure TWG2TB001917841_002 
Figure TWG2TB001917841_003
Abstract
Claims
1. A locally distributed double-layered elastic wave, comprising: A lower bounce includes a wave portion, an outer perimeter, an inner perimeter, and a central hole. The wave portion of the lower bounce includes a plurality of waves, each wave including a crest, a first slope, a second slope, and a trough. The first slope is disposed outside the crest, and the second slope is disposed between the inner side of the crest and the trough. The outer perimeter of the lower bounce is disposed outside the wave portion, and the inner perimeter is disposed inside the wave portion. The central hole of the lower bounce is formed at the center of the inner perimeter. A first upper bounce also includes a wave portion, an outer perimeter, an inner perimeter, and a central hole. The wave portion of the first upper bounce includes a wave, which includes a crest, a second slope, a third slope, and a fourth slope. A first inclined surface, a second inclined surface, and a trough are provided. The first inclined surface is disposed outside the wave crest, and the second inclined surface is disposed between the inner side of the wave crest and the trough. The outer periphery of the first upward-sprung wave is disposed outside the wave portion of the first upward-sprung wave, and the inner periphery of the first upward-sprung wave is disposed inside the wave portion of the first upward-sprung wave. The central hole of the first upward-sprung wave is formed at the center of the inner periphery of the lower wave. The wave portion of the first upward-sprung wave is disposed on the outermost wave of the wave portion of the lower wave. The outer periphery of the first upward-sprung wave is disposed on the outer periphery of the lower wave. The inner periphery of the first upward-sprung wave is disposed on the first inclined surface of one of the waves of the wave portion of the lower wave. The diameter of the aperture of the first upward-sprung wave is larger than the diameter of the aperture of the lower wave.
2. The locally distributed double-layered wave as described in claim 1, further comprising at least one conductor disposed on the surface of the lower wave, wherein the first upper wave clamps and fixes the first end of the at least one conductor to the first slope of one of the waves of the outermost wave of the wave portion of the lower wave, the outer periphery of the lower wave, and the wave portion of the lower wave.
3. A locally distributed double-layered elastic wave, comprising: A lower bouncing wave includes a wave portion, an outer periphery, an inner periphery, and a central hole. The wave portion of the lower bouncing wave includes a plurality of waves, each wave including a crest, a first slope, a second slope, and a trough. The first slope is disposed outside the crest, and the second slope is disposed between the inner side of the crest and the trough. The outer periphery of the lower bouncing wave is disposed outside the wave portion, and the inner periphery of the lower bouncing wave is disposed inside the wave portion. The central hole of the lower bouncing wave is formed at the center of the inner periphery. A second upper bouncing wave also includes a wave portion, an outer periphery, an inner periphery, and a central hole. The wave portion of the second upper bouncing wave includes a wave, which includes a crest, a first slope, a second slope, and a trough. The device comprises a first inclined surface, a second inclined surface, and a trough. The first inclined surface is disposed outside the wave crest, and the second inclined surface is disposed between the inner side of the wave crest and the trough. The outer periphery of the second upward-bounced wave is disposed outside the wave portion of the second upward-bounced wave, and the inner periphery of the second upward-bounced wave is disposed inside the wave portion of the second upward-bounced wave. The central hole of the second upward-bounced wave is formed at the center of the inner periphery of the lower wave. The wave portion of the second upward-bounced wave is disposed on the innermost wave of the wave portion of the lower wave. The outer periphery of the second upward-bounced wave is disposed on the second inclined surface and the trough of one of the waves of the wave portion of the lower wave. The inner periphery of the second upward-bounced wave is disposed on the inner periphery of the lower wave. The diameter of the aperture of the second upward-bounced wave is larger than the diameter of the aperture of the lower wave.
4. The locally distributed double-layered wave as described in claim 3, further comprising at least one conductor disposed on the surface of the lower wave, the second upper wave clamping and fixing the second end of the at least one conductor to the second slope and trough of one of the waves of the innermost wave of the wave portion of the lower wave, the wave portion of the lower wave, and the inner periphery of the lower wave.
5. A locally distributed double-layered elastic wave, comprising: A lower bounce includes a wave portion, an outer periphery, an inner periphery, and a central hole. The wave portion of the lower bounce includes a plurality of waves, each wave including a crest, a first slope, a second slope, and a trough. The first slope is disposed outside the crest, and the second slope is disposed between the inner side of the crest and the trough. The outer periphery of the lower bounce is disposed outside the wave portion of the lower bounce, and the inner periphery of the lower bounce is disposed inside the wave portion of the lower bounce. The central hole of the lower bounce is formed at the center of the inner periphery of the lower bounce. A first upward-bounced wave includes a wave portion, an outer periphery, an inner periphery, and a central hole. The wave portion of the first upward-bounced wave includes a wave, which includes a crest, a first slope, a second slope, and a trough. The first slope is disposed outside the crest, and the second slope is disposed between the inner side of the crest and the trough. The outer periphery of the first upward-bounced wave is disposed outside the wave portion, and the inner periphery is disposed inside the wave portion. The central hole of the first upward-bounced wave is formed at the center of the inner periphery of the lower upward-bounced wave. The wave of the wave portion of the first upward-bounced wave is disposed on the outermost wave of the wave portion of the lower upward-bounced wave. The outer periphery of the first upward-bounced wave is disposed on the outer periphery of the lower upward-bounced wave. The inner periphery of the first upward-bounced wave is disposed on the first slope of one of the waves of the wave portion of the lower upward-bounced wave. The second upper bouncing wave includes a wave portion, an outer periphery, an inner periphery, and a central hole. The wave portion of the second upper bouncing wave includes a wave, which includes a crest, a first inclined surface, a second inclined surface, and a trough. The first inclined surface is disposed outside the crest, and the second inclined surface is disposed between the inner side of the crest and the trough. The outer periphery of the second upper bouncing wave is disposed outside the wave portion, and the inner periphery of the second upper bouncing wave is disposed inside the wave portion. The central hole of the second upper bouncing wave is formed at the center of the inner periphery of the lower bouncing wave. The wave of the wave portion of the second upper bouncing wave is disposed on the innermost wave of the wave portion of the lower bouncing wave. The outer periphery of the second upper bouncing wave is disposed on the second inclined surface and the trough of one of the waves of the wave portion of the lower bouncing wave. The inner periphery of the second upper bouncing wave is disposed on the inner periphery of the lower bouncing wave. The diameter of the pore of the first upward wave is larger than the diameter of the pore of the downward wave, and the diameter of the pore of the second upward wave is larger than the diameter of the pore of the downward wave.
6. The locally distributed double-layered wave as described in claim 5, further comprising at least one conductor disposed on the surface of the lower wave, the first upper wave clamping and fixing the first end of the at least one conductor to the first slope of one of the outermost wave of the wave portion of the lower wave, the outer periphery of the lower wave, and the waves of the wave portion of the lower wave, and the second upper wave clamping and fixing the second end of the at least one conductor to the second slope and the trough of one of the waves of the wave portion of the lower wave, the innermost wave, and the waves of the wave portion of the lower wave, and the inner periphery of the lower wave.
7. A locally distributed double-layered elastic wave as described in claim 1 or 5, wherein, The first upward wave is circular.
8. A locally distributed double-layered elastic wave as described in claim 1 or 5, wherein, The first bounce wave includes a plurality of arc-shaped structures, which are spaced apart.
9. A locally distributed double-layered elastic wave as described in claim 3 or 5, wherein, The second upward wave is ring-shaped.
10. A locally distributed double-layered elastic wave as described in claim 3 or 5, wherein, The second bounce wave includes a plurality of arc-shaped structures, which are spaced apart.
