Abstract: The disclosure relates to a connecting arrangement comprising a first connecting part and a second connecting part, which are mechanically connectable to one another, wherein the first connecting part has a first clamping surface, wherein the first clamping surface has a first embossed pattern, the second connecting part has a second clamping surface, wherein the second clamping surface has a second embossed pattern, wherein the second embossed pattern is at least partially a negative pattern of the first embossed pattern, and wherein, when bringing together the first clamping surface and the second clamping surface, the first embossed pattern engages positively into the second embossed pattern.

Abstract: A console drawer assembly is provided for a vehicle that includes, in one example: a housing having a recess formed therein. The housing is configured to fit between a driver seat and a passenger seat of the vehicle. The console drawer assembly also includes a drawer that is oriented to open into a floor area associated with back seats of the vehicle; the drawer is configured to slidably move within the recess, the drawer being movable between an open position and a closed position. In addition, the console drawer assembly includes a first spring dampening mechanism mounted to the housing, the first spring dampening mechanism extends into the recess, and is oriented to make contact with an exterior surface of the drawer in a first pre-identified stress region, and to absorb vertical stress therefrom.

Abstract: High-pressure cryogenic fluid conduits that deliver high-pressure cryogenic fluids from a first point to a second point. This high-pressure fluid conduit has a safety feature that is activated when the high-pressure cryogenic fluid conduit fails due to exposure to a predetermined force. The safety feature is activated by the fracture of an annular ring that is positioned at either end of the high-pressure fluid conduit and is calibrated to fracture when exposed to the predetermined force. Fracture of the annular ring closes valves at each end of the high-pressure fluid conduit, thereby stopping the flow of high-pressure fluid from the high-pressure fluid source as well as the escape of high-pressure fluid from the high-pressure fluid container.

Abstract: An object of the present invention is to provide a natural energy extraction apparatus comprising a vertical rotating shaft and a float for supporting the vertical rotating shaft, wherein the internal structure of the float is simpler, the float and a mooring apparatus are more compact, and production cost is lower than in the conventional natural energy extraction apparatus. A natural energy extraction apparatus comprises a first float forming a swingable vertical rotating shaft, a second float moored to surround the first float, and a power transmission device attached to the second float to convert rotational kinetic energy of the first float to driving torque for driven equipment, and the natural energy extraction apparatus is installed on a body of water.

Abstract: Device for the translational guidance of a load and method for creating such a device. The guide device (1) comprises an elongate bed plate (2), a mobile carriage (6) which serves to support the load, and guide means (7) that allow the carriage (6) to move longitudinally in relation to the bed plate (2), said carriage (6) comprising a bottom plate (9) which is provided with through-cuts (10) intended to give it at least some lateral elasticity, and which is mounted on the bed plate (2) under lateral stress, as well as a platform (13) which is fixed to the top face of this bottom plate (9) at fixing points (14).

Abstract: A slide cover linking mechanism with both push aid effect and end buffering effect includes: a seat body having a receiving space and at least one first slide guide section, at least one second slide guide section with a middle turning section being disposed in the receiving space; a slide seat slidable along the first slide guide sections and formed with a receiving recess in which a third slide guide section is disposed; at least one first elastic member two ends of which are respectively pivotally connected in the receiving space and with a middle section of the slide seat; and at least one second elastic member two ends of which are respectively connected in the receiving recess and with a slide guide member slidable within the third slide guide section. A movable member movable along the second slide guide section is pivotally connected on the slide guide member.

Abstract: The sliding apparatus includes a substrate fixed to a main body, a slide plate being fixed to a sub-body and being slidable between a closed position and an open position in an opening/closing direction, a hole formed in the slide plate, a sloped surface part being formed in the main body, and being engaged with the hole in the closed position, and including a sloped surface being sloped toward a rear direction in the opening/closing direction, a slide guiding part guiding the slide plate in a sliding direction, a restricting part restricting movement of a closing direction end of the slide plate in the front/rear direction during an initial stage of sliding the slide plate from the closed position to the open position, and a sloped part being formed in a closing direction end of the slide guiding part and being sloped in a rear direction.

Abstract: A slide rail assembly includes a mounting panel, a slide rail secured to the mounting panel, a clipping member, and a driving member. The slide rail includes an outer slide. The outer slide includes a retaining panel attached to an outer surface of the mounting panel. The clipping member is attached to an inner surface of the mounting panel for preventing the slide rail from moving in a direction that is substantially perpendicular to the mounting panel. The driving member is slidably attached to the outer slide and abuts the clipping member. The clipping member is deformable to disengage from the mounting panel when the driving member slides relative to the outer slide.

Abstract: A linear guide assembly has a bar device, multiple partitions, multiple containing spaces and multiple rolling balls. The partitions are mounted between two bars of the bar device at intervals to form the containing spaces. The rolling balls are respectively and rotatably mounted in the containing spaces. Each partition has multiple first protrusions and multiple second protrusions. Each rolling ball is in point-contact with the first protrusions and the second protrusions of adjacent two of the partitions. With the point-contact configuration, an outer surface of each rolling ball is lubricated by much oil.

Abstract: The system is a drilling bearing device. The device includes an outer body structure, and inner body structure, and a loading structure. The inner body structure is disposed at least partially within the outer body structure. The inner body structure moves relative to the outer body structure. The loading structure is disposed between the outer body structure and the inner body structure. The loading structure facilitates adjustment of a position of the inner body structure relative to the outer body structure relative to the outer body structure resulting from mechanical wear in the device. The loading structure substantially prevents displacement of the inner body structure relative to the outer body structure in response to a reciprocating displacement to maintain a substantially constant relative location.

Abstract: A slide unit mechanism includes a sliding plate including slide parts and rattle preventing mechanisms that engage the sliding plate to prevent the sliding plate from rattling. Each of the rattle preventing mechanisms includes a recess; an opening positioned on a moving path of the slide part; a locking torsion spring disposed in the recess, one end of which is attached to an engaging part protruding from the opening on the moving path of the slide part; and an engaging recess formed in the slide part and configured to engage the engaging part. When the sliding plate is slid to the open position or the closed position, the engaging part engages the engaging recess and is biased by elastic force of the locking torsion spring toward the engaging recess.

Abstract: A bearing apparatus includes: (a) an inner member comprising rigid material with a first contact surface; (b) an outer member comprising rigid material with a second contact surface; (c) an annular intermediate member between the inner and outer members, and having: (i) a third contact surface including first bearing elements contacting the first contact surface to define a first bearing interface, each first bearing element including a raised central portion flanked beam portions; and (ii) a fourth contact surface including second bearing elements contacting the second contact surface to define a second bearing interface, each second bearing element including a raised central portion flanked by a pair of beam portions; (d) wherein the contact surfaces of each bearing interface are wear-resistant; and (e) wherein the bearing elements are shaped and sized so as to conform in an irregular shape to the at least one contact surface.

Abstract: A relative displacement device with both slight push force and strong elastic pull force includes two displacement members displaceable relative to each other. The displacement members are respectively formed with two turning displacement paths, which turn from a relative displacement direction in different directions. During displacement travel of the displacement members, the turning displacement paths intersect each other at different points as elastic pull points. Each turning displacement path has two path terminals and a turning point. The displacement reference line of the path terminals of one turning displacement path coincides with the displacement reference line of the turning point of the other turning displacement path. A first end of an elastic member is slidably pivotally positioned at the elastic pull point as an elastic pull end, while a second end of the elastic member is pivotally fixed at a fixed point of one displacement member as a fixed end.

Abstract: A sliding device for an electronic apparatus includes a contact piece projecting outward in a widthwise direction from a sliding plate and a contacted part with which the contact piece is caused to come into contact when the sliding plate is caused to slide with a maximum displacement in a rear direction relative to a base plate. The contact piece includes a partially cylindrical surface and a connecting surface. The contacted part includes a contacted shape part configured to be contacted by a boundary part of the partially cylindrical surface and the connecting surface to provide the sliding plate with a rotational force to cause a front direction end portion of the sliding plate to move in the bottom direction relative to a rear direction end portion of the sliding plate, and an engaged shape part with which the partially cylindrical surface and the connecting surface are caused to engage.

Abstract: A bearing assembly (2?) comprising a housing (3?) supporting first and second bearing ring portions (4, 4?) with bearing surfaces to engage an inner tubular member (1?) at axially spaced regions, characterized in that either: the bearing ring portions are provided by separate bearing rings (4?) supported in the housing member (3?) with bearing surfaces of different diameters; or the bearing ring portions are provided by a single bearing ring (4?) that is free to flex radially and is supported so that the second bearing ring portion is free to flex radially under load and its bearing surface than assumes a position with a greater diameter than that of the first bearing ring portion (4?).

Abstract: Bearing apparatus includes: (a) a first member comprising rigid material and having a bore defining a first contact surface; (b) a second member disposed in the bore, the second member comprising rigid material and having a cylindrical surface defining a second contact surface; (c) wherein both contact surfaces are wear-resistant, and wherein the first and second members are positioned relative to each other by a plurality of protruding bearing elements contacting at least one of the first and second contact surfaces, so as to transfer mechanical loads between the members, each bearing element including a raised central portion flanked by a pair of beam portions, while allowing relative translation and/or rotation between the members; and (e) wherein the bearing elements are shaped and sized so as to deform elastically and conform in an irregular shape to the at least one contact surface.

Abstract: A rail section comprises a body portion. The rail section has a profile that provides one or more roller contact areas extending a length of the rail section. The rail section further comprises an end portion that defines one or more slots that allow the one or more roller contact areas to deflect elastically relative to the body portion.

Abstract: A device for coupling an inner shaft and an outer shaft includes balls arranged in rows between axial grooves of the inner shaft and axial grooves of the outer shaft, enabling the shafts to slide in the direction of a common axis. Each row of balls is maintained by a double elastic member that bears in the groove of one of the inner or outer shafts and urges the balls along two rolling tracks so that they come into contact with the groove of the other of the inner and outer shafts. The two rolling tracks are hinged through a convex pivot surface and a corresponding concave support face of one of the inner and outer shafts, and a difference between the radii of the pivot surface and the support face defines two contact areas and a pivot axis parallel to the common axis.

Abstract: A sliding mechanism includes a first plate, a second plate, a fixing structure and a sliding member. The second plate includes a sliding slot and a guiding part. The fixing structure has a perforation. The sliding member includes a sliding piece and an elastic element. The fixing structure is penetrated through the sliding slot of said second plate. A first end of the sliding piece is sustained against the guiding part. A second end of the sliding piece is penetrated through the perforation. When the second plate is slid with respect to the first plate for a first predetermined distance, the elastic element generates elastic potential energy. Whereas, when the second plate is slid with respect to the first plate for a second predetermined distance, the elastic element releases the elastic potential energy to have the second plate automatically slide with respect to the first plate.

Abstract: The invention relates to a device for coupling an inner shaft and an outer shaft sliding in the direction of a common axis thereof, with balls provided between the two shafts. The balls are arranged in axial grooves of the inner shaft and in axial grooves of the outer shaft. Each row of balls is maintained by a double elastic member that bears in the groove of the inner shaft and urges the balls along two rolling tracks so that they come into contact with the groove of the outer shaft, wherein each of the two rolling tracks is hinged through a pivot surface and a bearing surface of the corresponding shaft, and the difference between the radii defines two bearing areas defining a hinge axis parallel to the common axis.

Abstract: The opening mechanism includes a fixing member, a movable member, a locking member, a first resilient member and a second resilient member. The fixing member is fixed to a first rail and has a guide portion, a stop and a room. The movable member is movably connected to the fixing member and has a first leg, a second leg and an engaging portion. The first leg slidably contacts the guide portion and the second leg extends into the room. The locking member is pivotably connected to a second rail and includes a locking portion. The first and second resilient members respectively provide a force to a third rail and the movable member. When the second rail is forcibly pulled out relative to the first rail, the movable member is moved and pivots an angle so that the locking portion is disengaged from the engaging portion.

Abstract: A slide mechanism includes a fixing plate, a slide plate, and a slide assembly. The fixing plate defines a slide groove and forms a pair of slide rails on opposite sides of the slide groove. The slide plate is positioned on the fixing plate. The slide assembly is positioned between the fixing plate and the slide plate and is allowed an assisted back and forth movement on the slide assembly, and a rotation subjected to friction at the front end of the slide assembly and the slide plate.

Abstract: A linear guide system which is used for highly precise control of a linear position applicable in display devices, semiconductors, robots, machine tools, and the entire measurement and precision instruments industry, and more specifically, an adjustable preload type linear guide system, wherein a base member and a slide member are slidably connected with each other for linear motion, and a linear motion actuator, such as a ball screw, a hydraulic cylinder, and a linear motor, is disposed between the base member and the slide member, thereby enabling the slide member to move linearly relative to the base member.

Abstract: A relative displacement device with both slight push force and strong elastic pull force includes two displacement members displaceable relative to each other. The displacement members are respectively formed with two turning displacement paths, which turn from a relative displacement direction in different directions. During displacement travel of the displacement members, the turning displacement paths intersect each other at different points as elastic pull points. Each turning displacement path has two path terminals and a turning point. The displacement reference line of the path terminals of one turning displacement path coincides with the displacement reference line of the turning point of the other turning displacement path. A first end of an elastic member is slidably pivotally positioned at the elastic pull point as an elastic pull end, while a second end of the elastic member is pivotally fixed at a fixed point of one displacement member as a fixed end.

Abstract: An elastic force adjustment device for slide assembly includes a fixing member, a movable member, an adjustment member and at least one elastic member. The fixing member includes a threaded rod and a longitudinal body. A longitudinal guiding portion is located between two ends of the longitudinal body. The adjustment frame has a mounting portion connected to the threaded rod. The adjustment member contacts the adjustment frame and has a threaded portion threadedly connected to the threaded rod. The at least one elastic member has two ends which are respectively connected to the movable member and the adjustment frame. A force of the at least one elastic member or the position of the movable member is adjusted by rotating the adjustment member on the threaded rod.

Abstract: A positioning device of a slide assembly includes a first rail, a second rail slidably connected to the first rail and defining a path, and a third rail slidably connected to the path of the second rail. A positioning member is securely connected to the second rail. An engaging member is pivotably connected to the positioning member and includes an extension arm located corresponding to the positioning portion of the first rail and capable of engaging with the positioning portion. An extension wing has an inclined surface relative to a horizontal plane and extending toward the path of the second rail. A resilient member is connected to the engaging member and makes the extension wing of the engaging member slide toward the third rail. When the third rail is retracted relative to the second rail, the engaging member is disengaged from the positioning portion of the first rail.

Abstract: An elastic device which can be used where there is an interval smaller than the thickness of the spring in a moving range of an arm member. The elastic device includes a spring, a first arm member for receiving at least a part of the spring inside, supporting or fixing an end of the spring, and including a housing portion having an opening along one side and an extension extending outside of the housing portion, and a second arm member for supporting or fixing the other end of the spring in at least one end, including a rotation-supporting portion installed rotationally to the first arm member while overlapping with the spring in the housing portion and an exposing-extension portion connected to the rotation-supporting portion and exposed to outside of the housing portion through the opening.

Abstract: A sliding apparatus includes a first sliding member and a second sliding member slidably relative to the first sliding member. A resilient member is connected between the first and second sliding members. The resilient member appears as though it is two coil springs overlapped with each other to provide a better sense of damping for operators.

Abstract: A slide mechanism includes a main plate, a slide plate, an elastic member, and two connecting members. The main plate includes two rail portions and two guide rails. Each rail portion defines a guiding slot. Each guide rail is received in one of the guiding slot and defines a slide groove. The elastic member is secured on the main plate and the slide plate. The two connecting members are secured to the slide plate and each connecting member is slideably received in one of the guiding slots.

Abstract: A sliding mechanism comprises a main plate, a sliding plate, a sliding enabling member and a biasing assembly. The sliding enabling member is coupled between the sliding plate and the main plate so the sliding plate slidably engages with the main plate. The biasing assembly is coupled between the sliding plate and the main plate. When the sliding plate is slid from a closed position to an intermediate position, the biasing assembly is distorted to exert a force on the sliding plate and the main plate, causing the sliding plate to automatically slide toward an open position once the sliding plate passes the intermediate position.

Abstract: A bush bearing 1 is comprised of: a synthetic resin-made bush 15 including a flexible semi-split cylindrical body 5 having an abutment portion 3 for slidably abutting against a rack shaft 25 and including a flexible open-ended annular body 14 which has a portion 6 formed integrally at one end face of the semi-split cylindrical body 5 and circular arc-shaped extended portions 12 and 13 whose distal ends 9 and 10 are opposed to each other with a clearance 11 in a circumferential direction R; and an elastic member 22 including an elastic body 21 for abutting against an outer surface 20 of the semi-split cylindrical body 5 and retained portions 16 and 17 which are respectively retained by both end portions 23 and 24.

Abstract: A sliding mechanism for a portable electronic device includes a fixing member, at least one first elastic member arranged at a side of the fixing member, a sliding member, and at least one second elastic member arranged at a side of the sliding member. The first elastic member includes an arcuate first resisting section, the second elastic member includes an arcuate second resisting section, the second resisting section is shorter than the first resisting section. The sliding member is assembled with the fixing member and the second resisting section elastically resists with the first resisting section. The sliding member can automatically slide due to resilient forces between the first resisting section and the second resisting section.

Abstract: The invention relates to a guide ring for an axially reciprocating pump piston, or for a pump rod of a piston pump. The invention provides for the guide ring to be configured as a radial damping element for damping radial impacts of the pump piston or of the pump rod. The invention further relates to a piston pump having such a guide ring.

Abstract: A linear guiding mechanism includes a fixed member, a moving member, a first double parallel leaf spring mechanism and a second double parallel leaf spring mechanism arranged between the fixed member and the moving member and configured to movably support the moving member. The first double parallel leaf spring mechanism and the second double parallel leaf spring mechanism are arranged at an angle other than 180° (for example, 90°) about an axis of movement of the moving member.

Abstract: A slide mechanism includes a rear cover, and a front cover slidably attached to the rear cover. One of the rear cover and the front cover defines two sliding grooves, the other forms two sliding rails slidably engaged in the sliding grooves. An elastic portion is formed on one of the rear cover and the front cover, and abuts against the other of the rear cover and the front cover, thereby enabling the sliding rails to tightly contact with said surfaces of the sliding grooves.

Abstract: The present invention relates to a two way sliding device for a portable terminal in which a cover is slid with respect to a main body.

Abstract: The present invention provides a sliding module comprising a plurality of guiding rods; a plurality of elastic members; a first component having a first fastener and a plurality of guiding apertures; and a second component having a second fastener and a plurality of fastening holes that correspond to the plurality of guiding apertures of the first component; wherein the first component and the second component are configured to slide with respect to each other; each of the elastic members is configured to shield a respective guiding rod; each of the guiding rods is configured to be fastened in a respective fastening hole at the second component, and traverse through a respective guiding aperture at the first component; and a longitudinal axis across the respective centers of the first fastener and the second fastener is configured to be parallel to each of the guiding rods.

Abstract: This invention is a sliding structure for a housing in which a guide rail formed on a lower housing and a groove for a guide rail formed on an upper housing engage and slide. An elastic body expanding and contracting 4 in a longitudinal direction of the guide rail and two pressing members located on both ends of the elastic body and subjected to respective opposite pressing forces from the elastic body are provided in parallel with the guide rail in the groove for a guide rail. At least one notch is formed on the elastic-body-disposed side of each of the guide rail and the groove for a guide rail in such a position that they can be opposed to each other in a sliding action process, and the two pressing members can take such positions that they press respective different housings in opposite directions through the notches.

Abstract: A slip joint for a steering system may include a shaft having a plurality of shaft grooves formed on an outer peripheral surface in the longitudinal direction; a pipe having pipe grooves formed on an inner peripheral surface, the pipe grooves facing the shaft grooves so as to define cylindrical spaces, an end of the shaft being inserted into the pipe; a first pin inserted into one of the cylindrical spaces; a second spring pin inserted into a different one of the cylindrical spaces, the second spring pin being made of a cylindrical elastic body having a longitudinal seam; a third spring pin inserted into the second spring pin, the third spring pin being made of an elastic body; and a connector for integrally connecting the second spring pin to the first pin so as to constitute a slipper.

Abstract: A printhead carrier having a zero clearance bearing arrangement includes a first open-faced bearing coupled to a dampener frame. The first open-faced bearing has a first bearing surface positioned to contact the cylindrical guide surface of a guide rod of an imaging apparatus. A second open-faced bearing is coupled to the dampener frame. The second open-faced bearing has a second bearing surface positioned to contact the cylindrical guide surface of the guide rod. The guide rod is diametrically positioned between the first open-faced bearing and the second open-faced bearing. An elastic foam member is interposed between the first open-faced bearing and the dampener frame. The elastic foam member is compressed to exert an expansion force between the first open-faced bearing and the dampener frame to load the second open-faced bearing on the guide rod in a zero-clearance relationship with the guide rod.

Abstract: The present invention provides a movement device, in which a clearance between a contact body and a support rail is automatically eliminated, without an increase in preload and even with abrasion of the contact body and the support rail, so as to eliminate play of the movement device.

Abstract: A slider is displaceable in an axial direction on guide sections of a cylinder tube through a guide mechanism. A first elastic member is interposed between a first bearing support member of the guide mechanism and one retaining section of the slider. A bearing installed in the first bearing support member, is pressed continuously toward the guide section. A second bearing support member is installed via a second elastic member between the guide section and another retaining section of the slider. A bearing provided on the second bearing support member is pressed toward the guide section by means of a resilient force of the second elastic member.

Abstract: The present invention provides a movement device using a roller unit, in which play in an axial direction of rollers is appropriately reduced, operation resistance is reduced and the rollers have less abrasion.

Abstract: A guiding device for a synchronous connector comprises a strip-like synchronous connector and at least one connecting member. Both ends of the synchronous connector are formed with two opposite fixing seats. The connecting member with elastic deformation characteristic is serially connected and fixed in the fixing seats at both ends of the synchronous connector, slide correspondingly to the clearance change during the operation of the two ends of the synchronous connector, and bend correspondingly to the turning action of the synchronous connector. By such arrangements, the elastic deformation characteristic of the connecting member can be utilized to avoid the collision interference with the rail wall surface, and the linear guiding device will be circulated smoothly and stably. In addition, the guiding device has the effect of absorbing the radial deformation of the synchronous connector and producing sufficient degree of freedom.

Abstract: A linear roller bearing element with an endless rolling element channel is composed of a carrier raceway for the load-bearing rolling elements on a carrier body, a return channel for rolling elements that are returning, and turnaround channels that connect the carrier raceway and the return channel at both ends with each other in an endless manner, the turnaround channels being bounded by end covers. The roller bearing element has two rolling element channels with two longitudinally extending carrier raceways located next to each other within a common plane and with clearance between them, on the carrier body for load-bearing rolling elements, and two assigned return channels for rolling elements that are returning, and respective turnaround channels. With a linear roller bearing guide, these roller bearing elements are located between a guide rail and a guide carriage—which is supported such that it is displaceable relative to the guide rail—in order to provide support.

Abstract: A bushing for reducing backlash includes a bushing body extending along a central axis, and the bushing body has a central bore extending along the central axis. The bushing body includes a first section, a second section, and a resilient section coupled between the first section and the second section.

Abstract: A linear sliding guide comprises a longitudinal guide rail with guide flanks that extend in a direction of sliding and a bearing block that lodges therein and has corresponding counterpart flanks. Compensation-for-play spring assemblies are provided between these two components; they are formed by a receptacle and a spring bushing that is inserted therein. The spring bushing acts on the corresponding guide flank of the longitudinal guide rail by way of a gap in the receptacle.

Abstract: A crane has at least one telescopic crane arm with at least two sliding arms that are moveable against each other. At least one gliding element, which is housed in a frame in a detached and unfastened manner, is arranged between the sliding arms. The gliding element has a separate spring element projecting from the gliding surface of the gliding element.

Abstract: The linear motion drive system is capable of automatically remove a clearance between a moving body and a linear shaft when the moving body and/or the linear shaft is abraded. The linear motion drive system comprises: the moving body linearly and reciprocally moved along the linear shaft; a contact body contacting the linear shaft; and a pressure unit provided to the moving body, the pressure unit pressing the contact body so as to apply pressure to the linear shaft. The pressure unit includes: a press section contacting and pressing the contact body; a biasing member biasing the press section toward the linear shaft; and a locking mechanism holding the press section.

Abstract: A plurality of preload magnet units are arranged on each side of a hydrodynamic bearing symmetrically. Preload magnet units are arranged inside a labyrinth partition to surround the hydrodynamic bearing in a non-air atmosphere.