Abstract:
A curved spring includes one and another end parts configured to approach and separate relative to each other in an approaching/separating direction and plural beam parts that bend between the one end part and the other end part and extend in an extending direction. The plural beam parts are arranged in a width direction orthogonal to the approaching/separating direction. At least one combination of adjacent beam parts among combinations of the plural beam parts includes an outer side beam part having a width greater than a width of an inner side beam part in the width direction. The outer side beam part has a length less than a length of the inner side beam part in the approaching/separating direction. The one and the other end parts and at least one beam part of the plural beam parts are integrally molded on a shared plane by a synthetic resin.
Abstract:
Suspension protection devices and methods involve a suspension mount engagement member configured to contact a suspension mount of a vehicle, a tire engagement member configured to contact a tire of the vehicle, and a rebounding assembly coupled between the suspension mount engagement member and the tire engagement member. The rebounding assembly can include a support, a first rebounding member, and a second rebounding member, wherein the first rebounding member is more compressible than the second rebounding member.
Abstract:
A user-selectable force conversion apparatus includes a first and a second connecting member that are pivotally connected to each other between a sliding member and a fixed member. The apparatus also includes a leaf spring holder for removably retaining one or more leaf springs and loading the second connecting member with a substantially linear force response of the leaf springs. A user may change the combination of leaf springs and/or vary a length ratio for the first and second connecting members and thereby change the force response of the apparatus. Movement of the sliding member by the mechanical input may convert the substantially linear force response of the leaf springs to a user-selected force response for the mechanical input. A corresponding method is also disclosed.
Abstract:
A vibration damper, particularly for supporting compressors, pumps, electric motors and the like, comprising a flat body from which at least two engagement tabs protrude on each of the two faces and at least two elastically deformable contact and shock-absorbing portions protrude on at least one of the faces.
Abstract:
An earthquake shock damper has two connectors, two shaft assemblies, multiple energy absorbers, multiple spacers and multiple energy distribution assemblies. The connectors are connected to structural members of a building. The shaft assemblies are coaxially attached respectively to the connectors. The energy absorbers are mounted around the shaft assemblies, and each energy absorber has a central body and multiple extensions extending out from the central body. The spacers are mounted around the shaft assemblies, and each spacer is mounted between the central bodies of adjacent energy absorbers to define the interval between the energy absorbers. The energy distribution assemblies are attached to the extensions of the energy absorbers.
Abstract:
An impact attenuating device includes both concave and convex side walls, e.g., in an interleaved arrangement, optionally at least partially surrounded by a restraining element that may help return the impact attenuating device back to its original orientation after attenuating an impact. Such impact attenuating devices may be included in pieces of footwear and/or other foot-receiving devices. Additionally, such impact attenuating devices or portions thereof may be freely selected and/or interchanged in a piece of footwear or other foot-receiving device, e.g., based on one or more characteristics of an intended user and/or an intended use, so as to allow users to obtain footwear (or other devices) customized and targeted for use under a predetermined set of conditions.
Abstract:
An ortho-planar spring has a platform (14) movably coupled to a base (10) and being movable linearly with respect to the base along at least a portion of an axial direction (22) perpendicular to both a base surface and a platform surface. A resilient and flexible connecting structure (18) is connected to and between the base and platform. The connecting structure is bendable to develop (i) an axial force along the axial direction to bias the platform in a stable position with respect to the base, and (ii) non-axial forces which substantially sum to zero to preserve the orientation of the platform with respect to the base. Thus, the spring is very compact and does not have rotation between the deflecting ends. The spring may be associated with a valve opening (213), and a button (214) for restricting flow through the valve opening, to bias the button at a position with respect to the valve opening.