Abstract:
A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.
Abstract:
A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.
Abstract:
Estructura de montaje con un absorbedor de energía (3) que se monta en un miembro, teniendo dicho miembro una varilla (26) que se proyecta desde una superficie de montaje del mismo para montar el absorbedor de energía (3), teniendo dicho absorbedor de energía (3) un orificio de montaje (4) formado en su interior, e insertándose dicha varilla (26) en el orificio de montaje (4), ajustándose a un miembro cilíndrico (20, 20A) en dicha varilla (26), teniendo dicho miembro cilíndrico (20, 20A) una parte cilíndrica (21) y una parte rebordeada (22) que sobresale de la parte cilíndrica (21) en un extremo superior del mismo, solapando dicha parte rebordeada (22) con una parte periférica del orificio de montaje (4), insertándose dicha parte cilíndrica (21) en el orificio de montaje (4) de dicho absorbedor de energía (3), estando provista dicha parte cilíndrica (21) con una trinquete (23) formado sobre una superficie interna de dicha parte cilíndrica (21), y estando provista dicha varilla (26) con una concavidad (27) o convexidad (37) formada sobre una superficie externa de dicha varilla (26) de manera que dicho trinquete (23) se conecta con dicha concavidad (27) o convexidad (37) con lo que dicho miembro cilíndrico (20, 20A) se conecta con dicha varilla (26), caracterizada por que dicha parte cilíndrica (21) está formada en una configuración ahusada, dicho trinquete (23) está formado sobre la superficie interna de una parte cerca de un extremo inferior de dicha parte cilíndrica (21), y las ranuras (24) se extienden desde dicho trinquete (23) hasta el extremo superior de dicha parte cilíndrica (21).
Abstract:
An energy absorber mounting structure capable of mounting an energy absorber without using a hot melt adhesive agent and without producing loosening on those members such as a trim, wherein a rod (2) is installed projectedly from a trim (1) and the rod (2) is inserted into a mounting hole (4) provided in the energy absorber (3), a cylindrical body (7) comprising a cylindrical part (7a) and an extension part (7b) formed integrally of each other is fitted onto the rod (2), the cylindrical part (7a) is fitted over the mounting hole (4) and the extension part (7b) covers the peripheral part of the mounting hole (4), the cylindrical body (7) is fitted over the rod (2) and the cylindrical body (7a) is fitted into the mounting hole (4) and, after the extension part (7b) is put on the energy absorber (3), crimping is applied to the tip side of the rod (2) so as to form an expanded part (2a).
Abstract:
The mounting structure for an energy absorber mounts securely an energy absorber to a member such as a trim without causing backlash and without using hot-melt adhesives. A trim 1 is provided with a rod 2 projecting therefrom and the rod 2 is inserted into the mounting hole 4 of the energy absorber 3. A cylindrical member 7 is fitted onto the rod 2. The cylindrical member 7 has cylindrical portion 7a and a flanged portion 7b integrally. The cylindrical portion 7a is fitted into the mounting hole 4 and the flanged portion 7b is overlapped with the peripheral portion about the mounting hole 4. The cylindrical member 7 is put on the rod 2 in such a manner that the cylindrical portion 7a is fitted into the mounting hole 4 and the flanged portion 7b is laid on the energy absorber 3. After that, the top end of the rod 2 is caulked to form an enlarged portion 2a.
Abstract:
A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.A lightweight shock absorber (1) has an ideal F-S waveform, and comprises foam resin material. The cross-sectional area of the absorber (1) in the compression axis direction and the vertical direction changes at least partially in the compression axis direction, and consequently the relation between distortion and compressive stress in the compression axis direction (F-S waveform) is approximately linear.