196 results about "Shock mount" patented technology

A data storage device includes a housing in which is mounted a data storage unit, such as a hard disk drive. Pads serve as shock mounts at the corners of the data storage unit and separate the data storage unit and the housing. A flex circuit electrically couples the data storage unit and a connector at the front of the device. The flex circuit has, e.g., an “N” shape configuration, which advantageously provides flexibility in many directions. The data storage device may convert the number of pin connections from the data storage unit to a different number of pin connections. A docking module that receives the portable data storage device may also convert the number of pin connections from the data storage device to a different number of pin connections used by a host system. The docking module includes a slide for receiving and ejecting the portable data storage device.

A shock mount assembly is provided, which generally includes a spacer and a thimble. The spacer includes a spacer flange and a spacer tube projecting from the spacer flange. The spacer tube includes an inwardly projecting shoulder having an inner diameter. The thimble includes a metal thimble base having a flange and an internally threaded post projecting from the flange. The threaded post has at least one hole passing through a wall thereof. The thimble also includes a plastic hollow thimble stem. The stem includes at least one hole passing through a wall of the lower portion thereof, the hole having a leg extending inwardly from one of the walls thereof. The leg includes a radially inwardly extending tab sized, shaped and positioned to engage the hole passing through the wall of the threaded post in a snap fitted arrangement when the threaded post is inserted into the stem. The stem also includes projecting from a top end thereof a plurality of fingers spaced about a periphery thereof. Each of the fingers has an outwardly projecting portion defining a circumferential lip having an outer diameter larger than the inner diameter of the shoulder of the spacer tube of said spacer. The stem is telescopically receivable in the spacer tube such that when the stem is fully inserted in the spacer tube, the lip engages the shoulder in a snap fitted

An electronic device includes a housing, a processor located within the housing and a memory in communication with the processor. The electronic device includes a display in communication with the processor and a touch panel positioned on a surface of the housing. The display is viewable through a touch panel mounted to an opening in the housing. The housing includes a flange around the opening which has a fluid seal to prevent fluid flow past the touch panel and into the housing. A shock mount may also be included within the housing to make the touch panel drop-resistant.

A vehicle height adjustment suspension device provides for both automatic and selective raising and lowering of a supported portion of a vehicle frame relative a ground surface, while also providing shock absorption. The device includes a suspension assembly for absorbing shocks mounted on a rotatable threaded screw connected to a motor and extending into the suspension assembly. The assembly may be extended and retracted on the screw by rotating the screw in first and second directions to raise and lower the supported portion while the shock absorber assembly simultaneously provides shock absorption capability.

A rack-mount case system for receiving, supporting and storing electronics equipment includes a slide-out frame closely received and shock mounted in a case. The system includes a cooling unit having at least one heat sink in fluid communication with a first blower and a manifold in fluid communication with a second blower. A thermoelectric unit is located between the heat sink and the manifold to provide a compact cooling unit that may be secured to a side of the slide-out frame with a bracket, for example.

A rear bicycle suspension has a main frame including a seat riser tube, a down tube, head tube, and a bottom bracket housing having left and right sides, a guide arm and a shock mount attached to the main frame, a pair of swing arm assemblies each one in pivotal attachment on either side of the main frame at a first pivot point and to a bell crank at a second pivot point, the swing arms in rearward extension form the first and second pivot points to at least one rear swing arm attachment point, and further including a lever arm connected between the first and the second pivot points, a guide arm having first and second ends wherein the first end in pivotal attachment to the guide arm bracket at a fifth pivot point and the second end extends upward and rearward from the fifth pivot point, wherein the bell crank is pivotally connected between the lever arms at the second pivot point and to the guide arm at a third pivot point, a shock absorbing member in pivotal attachment at one end to the shock mount and at another end at a fourth pivot point to the bell crank.

This invention relates to a variable curvature self-reset protecting three-dimensional shock mount, which belongs to the shock insulation control and vibration control fields. The structure of the mount is: coating the frictional layer on the variable curvature chassis and its surface, the lower connection board and the limiting composition board; setting high elastic rubber ring between the chassis and the limiting composition board; setting the slide block in the center of the chassis and applying middle-connection board on it, wherein the convex axial and center arbor is arranged on the middle-connection board, the convex axial is covered the disk spring superposition, and between the superposition is arranged damping material, outside the superposition is covered with steel ring; between the center arbor is arranged damper, the convex axial and center arbor plunge the upper-connection board and have gap distance to the board. The invention can guard and repress horizontal and vertical earthquake wave at the same time, and eliminate the disadvantage of torsion and P-delta effect to the supperstructure, in addition to limiting protection.

A data storage cartridge having an data storage device, such as an encased magnetic disk drive assembly, is, in one embodiment, of generally an exterior dimensional form factor of a tape cartridge having a leader block with a hole therethrough for engagement by a threading pin. To distinguish the cartridge from a tape cartridge, the cartridge shell comprises a blocking portion at the location of the leader block hole. A transfer station both identifies the cartridge and indicates the presence of the cartridge at an end of travel in a cartridge receiver, employing an optical source and an opposed sensor directed toward the leader block hole when a cartridge is at the end of travel. In another embodiment, an encased magnetic disk drive assembly is supported and mounted in a cartridge shell by a shock mount. A flex cable interconnects the rear of the encased magnetic disk drive assembly with an external data transfer interface at the opposite side of the cartridge for data transfer with respect to a transfer station and to provide mechanical isolation.

A mount for a microphone that includes an optional windscreen is disclosed. The mount includes preferably two resilient microphone supports that each comprise a resilient microphone ring attached to a plurality of resilient ring bands. Each ring can accommodate and frictionally retain microphones of various sizes and diameters. Each microphone support is fixed at a lower end thereof to a microphone support base which has least one mounting aperture therein. The mount further includes an elongated generally cylindrical cage that has a front open end, a rear open end, and an acoustically-permeable rigid wall. A bottom surface of the cage includes a resilient base fixture that includes at least one mounting aperture therein. A pair of reticulated foam hemispheric end caps are preferably included that are slidably, frictionally retained within the open ends of the cage. A rigid, preferably metallic or plastic cage mounting bracket is included that has at least one mounting aperture therein and includes a pivot mounting means. A rigid mounting post is pivotally and selectively fixed to the pivot mounting means of the cage. A pair of mounting bolts are included that secure the cage mounting bracket, the resilient base fixture of the cage, and the microphone support base together. The cage preferably further includes an electric microphone connector that is fixed through the rigid wall of the cage, and a windscreen cover that may be selectively mounted around the cage to provide wind noise dampening.

A snow bike system includes a motorcycle converted for use in the snow with a rear suspension and belt track system. The belt track is relatively very wide and driven by a front wheel sprocket through a jackshaft. Matching shocks and struts in the rear suspension independently equalize the pressure applied to the ground. The rear strut is a sliding extension type that causes the front of the sliders to kick up when fully compressed during acceleration or climbing uphill. Increased weight on the rear track is shifted forward to keep the front ski down. The jackshaft provides both disc braking and moves the motorcycle engine drive power outboard to accommodate the wider belt track. A tubular subframe and tunnel rigidly mounts to the motorcycle's original rear swing arm pivots and shock mounts.

Systems and methods for mounting a modular processing unit that is configured to be selectively used alone or with other processing units in an enterprise. A modular processing unit is provided as a platform that is lightweight, compact, and is configured to be selectively used alone or oriented with one or more additional processing units (including base modules and/or peripheral modules) in an enterprise. The one or more processing units are dynamically mounted based upon the particular enterprise needed and corresponding environment. In at least some implementations, shock mounting is included to provide for needed shock and vibe requirements. In some implementations, the mounting system includes a fixed mounting system for environments that need to be fixably secured. In other implementations, a selectively releasable connector is provided to allow for ease in mounting and removing the dynamically modular processing unit. In other implementations, a press-fit connector is provided to allow for ease in mounting and removing the dynamically modular processing unit.

A shock mounting system for a 3-chip video camera. The system comprises a pair of support plates for spanning the junctions between the various components (prisms, etc.) of a standard charge coupled device (CCD) color camera having 3 CCD's, and an elastomeric boot molded to fit between the CCD camera assembly and the housing within which it is situated. The support plates are made of a material having similar thermal characteristics to the CCD assembly and are suspended within the elastomeric boot.

An imaging module for an imaging reader for electro-optically reading a target by image capture, includes a chassis bounding an optical compartment, an illuminating light assembly in the compartment for illuminating the target with illumination light for return from the target, an image capture assembly in the compartment for capturing return light from the target over a field of view, and a light-transmissive window for the reader. The window is supported by, and integrated with, the chassis for joint movement therewith. The window is preferably positioned in a close confronting relationship with the illuminating light assembly to resist back reflections of the illumination light from the window from entering the field of view of the image capture assembly. The integrated imaging module is shock mounted in the reader to damp shock forces.

There is provided a unidirectional dynamic microphone provided with an air chamber for a microphone unit in a grip housing thereof, in which even if an external force is applied to the grip housing, the volume of the air chamber does not change, and also the assembling/disassembling of the microphone can be performed easily. In the unidirectional dynamic microphone in which the grip housing 100 formed in a cylindrical shape is provided; on one end side of the grip housing 100, the microphone unit 20 is supported, and on the other end side thereof, an output connector 30 is mounted; and an air chamber 201 included as a part of an audio circuit of the microphone unit 20 is provided in the grip housing 100, a cylindrical cavity sleeve 200 is provided which is supported in the grip housing 100 via shock mount members 210 and 231 exhibiting rubber elasticity and the interior of which is hollow to form the air chamber 201 for the microphone unit 20.

A mechanical-shock-mount assembly enables attachment of a mechanical-shock-sensitive electronic device to a support structure. Two identical shock-mount structures are attached and located on opposite sides of an electronic device. Each shock-mount structure has a pair of generally planar spring-like cantilever beams that have their free ends for attachment to the support structure. Damping material is located on the surfaces of the cantilever beams between the beams and clamping surfaces. At least one clamping surface is a plate that compresses the damping material between itself and the beam and/or compresses the damping material between the beam and a surface of the support structure when it is attached to the support structure. This shock-mount structure acts as a highly-damped nonlinear spring system that provides mechanical-shock resistance for the device in a direction perpendicular to the cantilevered beams and high stiffness in a direction in the plane of the beams. If desired, the shock-mounts can be first assembled to the support structure before attaching the device. The support structure can optionally have additional features for attaching other components of the device host.