Abstract: A soldier platform and energy attenuation system and method include a soldier platform system and energy attenuation system in a vehicle. In an embodiment, a tuneable energy attenuation system includes a plurality of energy attenuation units. The energy attenuation units are disposed to allow each energy attenuation unit to be in series and/or parallel to another energy attenuation unit. In addition, the tuneable energy attenuation system includes a base and a top. The energy attenuation units are disposed between the base and the top.

Abstract: A crash structure is provided that is integrated within a vehicle side rail, the crash structure providing relatively level loading during a collision. The structure includes an actuator member coupled to the bumper, the actuator member passing into, and slidably disposed within, a hollow housing of the crash structure. The hollow housing contains a plurality of deformable members that at least partially surround a first portion of the actuator member. A second portion of the actuator member, which is between the bumper and the first portion of the actuator member, has a larger diameter than that of the first portion of the actuator member and is configured to deform the deformable members during a collision.

Abstract: In one embodiment, a multi-stage energy absorbing system can comprise: a base; and an energy absorber comprising elements, wherein the energy absorber elements comprise a pair of outer sidewalls having a narrow section with a narrow section angle and a wide section with a wide section angle, wherein the narrow section and the wide section are connected by a diverging section with a diverging section angle, wherein the diverging section angle is less than 90°; a connecting wall between the outer sidewalls; a pair of inner sidewalls; and an inner connecting wall, wherein the energy absorbing elements are in a nested arrangement creating an open area between adjacent sidewalls and adjacent connecting walls.

Abstract: In an embodiment, an impact device comprises: a metal component comprising greater than or equal to three walls forming a metal component channel; and a plastic component having a honeycomb structure with a plurality of walls defining comb channels therein. The combs channels are oriented perpendicular to at least one of the three walls, and the plastic component is inseparable from the metal component without damage to at least one of the metal component and the plastic component. A wall of the metal component can comprise an aperture, and wherein plastic material from the plastic component is located in the aperture.

Abstract: An energy absorber includes a base sheet and a plurality of crush lobes extending from the base sheet. Each crush lobe includes a side wall oriented to crush and collapse to absorb energy when impacted in a first direction and includes an end wall. At least one of the base sheet and the end wall of at least one crush lobe includes an integrally-formed protruding countermeasure of lower standing strength than the crush lobes so that the protruding countermeasure acts to dampen movement causing buzzes, squeaks and/or rattles between the end wall and an adjacent structure. The countermeasure can be integrally formed or an insert, such as a magnet or other insert. Methods related to the above are also described.

Abstract: A shock absorber includes a first shock absorbing member formed of a foam, and a second shock absorbing member formed of a foam and having hardness greater than the first shock absorbing member. The first shock absorbing member and the second shock absorbing member are arranged in adjacent to each other and connected to each other such that a part of one of the first shock absorbing member and the second shock absorbing member is surrounded by another one of the first shock absorbing member and the second shock absorbing member, thereby the first shock absorbing member and the second shock absorbing member are connected integrally with each other.

Abstract: [PROBLEMS] An impact absorption body for a vehicle can have desired impact absorption performance, exhibits excellent impact absorption performance particularly immediately after an impact is applied to the body, and can maintain high impact absorption performance. [MEANS FOR SOLVING PROBLEMS] The impact absorption body (1) for a vehicle is installed within a vehicle forming member and absorbs impact energy in a collision. The impact absorption body (1) has a first wall (4) placed on the side that receives an impact, a second wall (5) facing the first wall (4) with a hollow section (2) between them, and one or more impact absorption ribs (9) constructed from deep groove sections (15) and shallow groove sections (16). The deep groove sections (15) are formed by depressing the first wall (4) and second wall (5) into groove shapes and integrally joining the top surfaces, which function as fusion bonding surfaces, of the depressions.

Abstract: A cask cushioning body includes an end-surface side member (2) in which a plurality of plates (21, 22) made of steel are formed at a distance between plate surfaces of the plates (21, 22) that face each other, and in which the plate surfaces of the plates (21, 22) are arranged along an end surface (100a) of a cask (100), and a circumferential-surface side member (3) that forms a cylindrical body (31) made of steel, one end of which is connected to a periphery of the end-surface side member (2), and that is arranged along an end-portion outer-circumferential surface (100b), wherein an impact absorber (4) that absorbs an impact by deforming is provided outside of the end-surface side member (2) and the circumferential-surface side member (3).

Abstract: Operating a vehicle includes receiving, by a central controller, positional data related to the vehicle and environmental data related to a current route of the vehicle. The central controller calculates a desired energy allocation based on the positional data and the environmental data, and transmits the desired energy allocation to the vehicle for use in controlling engine function.

Abstract: A crash box for a motor vehicle, having at least one crash box component which is deformable in the event of a collision, and which in the event of a collision absorbs energy as a result of the deformation. The crash box includes at least one weakening tool which, for adjusting the energy absorption capability of the crash box component, weakens the overall structure of the at least one crash box component, as a result of which the rigidity of the crash box component is reducible.

Abstract: A main body portion (12) of an impact absorber (10) is a three-dimensional structure formed of stiff polyurethane foam. A ratio (W2/W1) of a width W2 of a slot (30) formed in an impact surface (12A) of the main body portion (12) to a width W1 of the impact surface (12A) of the main body portion (12) is in a range from ? to ½. In consequence, when a knee area M1 of an occupant M impacts against the impact surface (12A) of the main body portion (12) of the impact absorber (10), a concentration of loading on the impact surface (12A) in an initial impact period is suppressed because the slot (30) is formed in the impact surface (12A), which is most liable to bear the load in the initial impact period, and the load is dispersed. Thus, a large breakage or significant scattering of the main body portion (12) of the impact absorber (10) in the initial impact period may be suppressed, and amounts of impact absorption energy in a middle impact period and a later impact period may be assured.

Abstract: A dynamic energy management restraint anchor device interfaces with a child seat in a vehicle, engaging common child seat attachment clip features. A device restraint anchor is operable to dynamically extract and permit distortion of load bearing deformable member(s) in order to manage the displacement of, and load transferred through, an anchor connected to a child seat. The device may be further operable to limit or prevent restraint anchor displacement and the distortion of said deformable member(s) under quasi-static load conditions in order to meet motor vehicle static load/displacement anchorage performance requirements applicable to certain anchors. Anchor retraction capability and various interlocking configurations for securing the position of an anchor, before or after having extracted, may be incorporated relative to the energy management device interfacing with both a vehicle and a child seat. An indicator may further be provided to identify the functional state of the restraint device.

Abstract: An object of the invention is to provide an energy absorption structure that can suppress the fall of an energy absorption member when a load is applied to the energy absorption structure. According to the energy absorption structure of the invention, when a load is applied to the energy absorption structure, the relative displacement between a first member and an energy absorption member is suppressed by a displacement suppressing member that connect the first member with the energy absorption member. Accordingly, the fall of the energy absorption member can be suppressed.

Abstract: A crash structure is provided that is interposed between a vehicle's bumper and a vehicle side rail, the crash structure providing relatively level loading in a compact structure that is easily removed and replaced during post-collision repairs. The structure includes an actuator member coupled to the bumper, the actuator member passing into, and slidably disposed within, a hollow housing of the crash structure. The hollow housing contains a plurality of deformable members that at least partially surround a first portion of the actuator member. A second portion of the actuator member, which is between the bumper and the first portion of the actuator member, has a larger diameter than that of the first portion of the actuator member and may be coupled to the first portion via a chamfered transition region.

Abstract: The impact absorbers having different lengths are formed by providing notches in one of opposed surfaces on front end side in a collision direction of a square pipe having a square in cross section. The three impact absorbers are disposed in a width direction while two impact absorbers are disposed in a height direction such that directions of the notches differ from each other, and the impact absorbers are disposed in integrally welded to form the impact-absorbing member.

Abstract: The present invention relates to a component for the absorption of energy on an impact having a frame as well as having a section located in the frame and connected to the frame, with the section consisting of a multilayer fiber composite or comprising a multilayer fiber composite.

Abstract: A shock absorber includes a cylindrical small diameter portion, a cylindrical large diameter portion, and an annular step portion that connects the small diameter portion and the large diameter portion to each other. The shock absorber absorbs load applied thereto through plastic deformation that starts at the annular step portion thereby absorbing impact energy. In the deformation, the small diameter portion is folded back into the large diameter portion. The large diameter portion has protrusions, which extend in the axial direction and protrude radially outward. Therefore, the shock absorber stabilizes turning deformation and is capable of efficiently absorbing impact energy. A bumper device for a vehicle is also provided.

Abstract: A restraining device of a shading system for absorbing the kinetic energy of a slidable shading arrangement given an unforeseen movement is provided. The restraining device includes a first restraining arrangement configured to absorb a first portion of the kinetic energy by at least partially deforming.

Abstract: A separator-shock absorber to avoid that charges which are going to be transported by land, by sea or by air collide and damage the loads collision to each other and damage the loads, and including: a retention base; a retention element near to a first end of the retention base; a separator-shock absorber member having a first articulated end and a second end to be coupled to the retention base; a retention element at the second end of the separator-shock absorber member, cooperating with the retention element of the first end of the retention base, in order to regulate the width of the separator-shock absorber member when it is articulated, to be coupled to the retention element of the retention base.

Abstract: The invention relates to a process for producing an energy-absorbing component composed of profile elements, made of a polymer material, which are open on one side, respectively orientated in opposite directions, and connected to one another on at least one side as a single piece to give a linearly continuous structure. The process involves (a) closure of a mold comprising at least two mold-section profiles, which can be moved in opposite directions and respectively have protruding regions and recessed regions such that, in a closed condition, the protruding regions of oppositely arranged profiles intermesh; (b) injection of the polymer material into a mold; and (c) opening of the mold, by moving the mold-section profiles apart in an opposite direction, and removing the energy-absorbing component.

Abstract: A mechanical device including an elongated structural element provided for absorbing, at least in part, certain shocks by deformation. The structural element or piece has a selected right sectional profile, the profile being provided with localized alterations, shapes, and with selected respective positions for approximately satisfying a given law of deformation under the combined effort of compression in an axis of the piece and of the moment of the axis perpendicular to a plane passing through the axis. The law includes an energy absorption phase followed by a retraction of the piece.

Abstract: Provided is an energy absorber for use in an opening of a wall of a building, the opening defined by a perimeter surface, the wall supporting a closure substantially filling the opening, the closure having respective edges which are substantially parallel to the perimeter surface of the opening. The energy absorber having a planar wall connecting portion, a planar closure connecting portion and a plastically deformable deforming surface therebetween. The connecting portions being substantially parallel to one another and, the deforming surface adapted to absorb, by plastic deformation, a force applied to the closure.

Abstract: A shock absorbing system applicable to the bumper of a vehicle including a shock absorber with a deformable tube and a retaining device of the absorber including a mechanism susceptible to adopting at least one blocking position and one releasing position in which it prevents and allows, respectively, the displacement of a retaining portion of the absorber in an axial direction. The mechanism includes two rotating retaining connecting rods in a plane perpendicular to the longitudinal axis of the deformable tube, linked to one another such that the rotation of any one of the connecting rods is transmitted to the other to achieve a similar movement but in the opposite direction; and an electromechanical transducer to displace the mechanism from the blocking position to the releasing position.

Abstract: An automotive knee bolster system includes a cross-car beam, and a variable stiffness member attached to the cross-car beam and configured to absorb occupant knee impact energy. The member includes a plurality of nested panels each having a different length and substantially the same radius of curvature.

Abstract: A system and a method provide a downhole mechanical energy absorber that protects downhole tools from impact loads and shock loads that occur during run-in contacts, tool drops, perforating blasts, and other impact events. A continuous localized inelastic deformation of a tube is a primary energy absorber in a load limiting design of the downhole mechanical energy absorber.

Abstract: An interdigitated cellular cushioning system includes an array of void cells protruding from each of two binding layers interdigitated between the two binding layers. Peaks of each of the void cells are attached to the opposite binding layer forming the interdigitated cellular cushioning system. The interdigitated cellular cushioning system may be used to absorb and distribute a source of kinetic energy incident on the interdigitated cellular cushioning system (e.g., an impact or explosion) so that the amount of force transmitted through the interdigitated cellular cushioning system is low enough that it does not cause injury to personnel or damage to personnel and/or equipment adjacent the interdigitated cellular cushioning system.

Abstract: There is described an open cell porous structure the cells of which are optionally filled with an elastomeric or thermosetting plastic comprising a nanocrystalline metallic or nanocrystalline metal matrix composite coating wherein the nanocrystals have a crystallite size of from about 5 nm to about 150 nm. A process for preparing the coated open cell porous structures is also disclosed.

Abstract: In one embodiment, a vehicle energy absorber system, comprises: blow molded crush lobes that are open on one side, wherein the energy absorber comprises fillets having a fillet radius of less than 20 mm and a thickness of less than or equal to 1.5 mm; a bumper beam adjacent the open side; and a fascia, wherein the energy absorber is located between the fascia and the bumper beam. In one embodiment, a method for making a blow molded energy absorber comprises: introducing a molten plastic to a first mold cavity; introducing gas into the plastic to conform the plastic to the interior of the first mold cavity and form a first preform; and separating the first preform along a centerline thereof to form open, first preform portions having first crush lobes.

Abstract: There is provided a shock absorbing structure that can improve shock absorption performance by stabilizing the compressive deformation of a shock absorbing member in an axial direction. High-strength portions controlling deformation and low-strength portions controlling deformation are alternately disposed. Accordingly, when a shock is applied to a front side member from the front side of a vehicle, the front side member can be deformed in the shape of a bellows. Further, the respective low-strength portions, which are disposed closer to a rear end side in a longitudinal direction, have higher strength. Therefore, the front side member can be sequentially deformed from a front end side.

Abstract: A second shock absorbing portion (18) includes an encirclement wall (42) and ribs (46) which are formed to have a height greater than that of an encirclement wall (40) and ribs (44) in a first shock absorbing portion (20). The ribs (44) and the ribs (46) have substantially the same wall thickness, and the number of the ribs (44) is the same as the number of the ribs (46). Accordingly, the second shock absorbing portion (18) is more brittle than the first shock absorbing portion (20), since the second shock absorbing portion (18) is made to have a height greater than that of the first shock absorbing portion (20). Further, the first shock absorbing portion (20) is placed in a vehicle inner side, while the second shock absorbing portion (18) is placed in a vehicle outer side.

Abstract: An impact absorption plate for absorbing impact in the event of a vehicle crash and a method of manufacturing the impact absorption plate includes a base plate and a plurality of bosses. The base plate has on an upper surface thereof a patterned rib unit. Each boss has fitting notches into which the patterned rib unit is fitted, and has the shape of a truncated cone which is open at a bottom thereof. Thus, when it is required to change the structure of the impact absorption plate, the removable bosses may be rearranged on the base plate as desired.

Abstract: A bumper for use at a loading dock has two ranges of front-to-back movement: one range for sealing the gap that might otherwise exist between the rear edge of a truck and the front face of the bumper and a second range for absorbing the impact of the truck backing into the dock. In some cases, a spring provides a relatively light sealing force between the bumper and the truck, and a compressible core provides a much greater impact-absorbing force that helps stop the rearward movement of the truck. In some embodiments, the bumper pivots by gravity when operating in the sealing range.

Abstract: An energy absorbing device having a shell comprising at least one external wall defining an internal area, wherein said internal area is further defined by one or more interior wall(s) spanning across at least a portion of said internal area, between opposing sections of said external wall(s).

Abstract: An automotive impact absorbing member integrally formed of synthetic resin material having lengthwise shape that extends with a constant hollow cross section. The impact absorbing member includes: plate-shaped rib portions each extending in a direction perpendicular to an impact load input direction; and load transmitting portions connecting with rib portions at either widthwise end thereof for transmitting a widthwise direction component force of the impact load to the rib portions. At least one of the plate-shaped rib portions has a thin portion of minimum thickness dimension situated in a widthwise center section thereof, and has a pair of gradual change portions situated to either side of the thin portion in a width direction and which increase gradually in thickness dimension outwardly in the width direction.

Abstract: In one or more embodiments of the present disclosure a support structure includes a contact surface configured to deform, a base section configured to receive the contact surface, a first set of ribs extending from the contact surface toward the base section and inclined in a first direction, and a second set of ribs extending from the contact surface toward the base section and inclined in a second direction, in which the first set of ribs and the second set of ribs are disposed such that there is no contact with each other in a relaxed position, and in which the first set of ribs and the second set of ribs are configured to deform and contact each other upon application of a force to the contact surface.

Abstract: An object of the present invention is to provide an impact absorbing member capable of reinforcing a desired reinforcement object portion. The impact absorbing member includes a long impact absorbing body which absorbs energy at the time of a collision by being deformed itself and a mounting member which is disposed at a reinforcement object portion of the impact absorbing body so that it is deformed along deformation of the reinforcement object portion at the time of the collision and mounted to a mounting object member. When the reinforcement object portion is deformed at the time of the collision, the mounting member is deformed along deformation of the reinforcement object portion. Due to that deformation, the mounting member can reinforce the reinforcement object portion.

Abstract: An energy absorber for an overhead system in a vehicle includes a molded member having one or more corrugated sections, the corrugated sections including a plurality of channels wherein the channels include a top wall and a pair of spaced apart horizontally extending side walls and a base portion extending between channels. The energy absorber may be tuned for a desired impact and be located between a vehicle roof and a headliner to provide occupant impact protection.

Abstract: A mechanical device including an elongated structural element provided for absorbing, at least in part, certain shocks by deformation. The structural element or piece has a selected right sectional profile, the profile being provided with localized alterations, shapes, and with selected respective positions for approximately satisfying a given law of deformation under the combined effort of compression in an axis of the piece and of the moment of the axis perpendicular to a plane passing through the axis. The law includes an energy absorption phase followed by a retraction of the piece.

Abstract: The present invention relates to an energy absorption device (1) for a bumper arrangement of a vehicle, with a hollow longitudinal section (2) intended for deformation, a rolled-back region (3) adjoining the hollow longitudinal section, and an extension section (4) connected to the rolled-back region. In order to improve an energy absorption device of this type to the extent that obliquely acting accident forces can be absorbed with a high degree of efficiency in as simple a manner as possible, it is proposed, in an initial state prior to energy absorption, to orient the hollow longitudinal section (2) obliquely with respect to the axial direction of the extension section (4).

Abstract: A mechanical device including an elongated structural element provided for absorbing, at least in part, certain shocks by deformation. The structural element or piece has a selected right sectional profile, the profile being provided with localized alterations, shapes, and with selected respective positions for approximately satisfying a given law of deformation under the combined effort of compression in an axis of the piece and of the moment of the axis perpendicular to a plane passing through the axis. The law includes an energy absorption phase followed by a retraction of the piece.

Abstract: A mouse hole damper device positioned at the bottom portion of a mouse hole pipe, the mouse hole damper being arranged to dampen an impact from an object falling in the mouse hole pipe, and the mouse hole damper including a material which has been worked into forming walls around elongated openings, and the material being arranged in such a way that the openings are substantially parallel to the longitudinal axis of the mouse hole pipe.

Abstract: An impact absorber device includes at least one first portion having a short tubular shape, and at least one second portion having a short tubular shape concentrically disposed in a stacked relationship with the first portion. The first portion and the second portion engage with each other at an engagement portion which is inclined with respect to a concentric axis of the first portion and the second portion. With this arrangement, impact energy is absorbed in the case of collision accidents of vehicles such as an automobile and trains, and the dropping accidents of lifts such as elevators.

Abstract: A container formed with a plurality of faces. An energy absorbing material is within the container. A plate is located within the container. An elongated member having a proximate end and a distal end is located with the proximate end of the elongated member proximate to the plate. A first bumper is integral with the distal end of the elongated member. A first engagement mechanism is proximate to the plate, wherein the engagement mechanism has a first position that fixes the plate to the elongated member and a second position that uncouples the plate from the elongated member. A first sensor is located to quantify a collision force on said first bumper. The sensor communicates with the first engagement mechanism whereby the position of the engagement mechanism is dependent on a quantity of the collision force sensed.

Abstract: An impact absorbing member comprises a first main body and a second main body. The first main body comprises a first partial tube wall and first flange members. The second main body comprises a second partial tube wall and second flange members. The first flange members are joined with the respective second flange members in a discontinuous manner along the axial direction of the tube. In at least one segment where the first flange members and the second flange members are not joined in the axial direction of the tube, spaces are formed between ends part of a first partial tube wall side of the first flange members and end parts of a second partial tube wall side of the second flange members.

Abstract: An impact absorber device includes at least one first portion having a short tubular shape, and at least one second portion having a short tubular shape concentrically disposed in a stacked relationship with the first portion. The first portion and the second portion engage with each other at an engagement portion which is inclined with respect to a concentric axis of the first portion and the second portion. With this arrangement, impact energy is absorbed in the case of collision accidents of vehicles such as an automobile and trains, and the dropping accidents of lifts such as elevators.

Abstract: The invention provides a telescopic member that includes a cylinder in which a rod carrying a piston is mounted to slide telescopically, the telescopic member including internal abutment mechanisms that are overridable over a predetermined force when the rod comes into abutment inside the cylinder in the shortening direction. The internal abutment mechanisms include an abutment piece extending in an open bore within the rod and projecting therefrom, the abutment piece being held to the rod via a pin.

Abstract: An energy absorbing tubular structure is formed of a molded or extruded polymer. The tube has a quadrangular cross-section with rounded corners. The walls of tube are corrugated with alternating convex and concave corrugations surfaces having a continuous constant radius, preferably with no flat spots. The corrugated walls have a constant thickness. The corrugations progressively deform during impact thereby providing a near perfect square wave force vs. deflection energy absorption curve at any predetermined nearly constant force level. The tube may be filled with polymer foam to vary the impact performance of the structure.

Abstract: An injected part (26) designed to form by being folded, an energy absorbing device and a spacer, the energy absorbing device having a number of hollow elements (12) projecting from a first plate portion (10), and a number of hollow elements (16) projecting from a second plate portion (14), associated in pairs. The spacer includes a number of spacing elements (20) projecting from a third plate portion (18), one of the plate portions (10, 14, 18) is articulated on the other two, and the articulations (28, 30) are such that, after each of the plates has rotated by 180°, a first hollow element (12), a second hollow element (16) and a spacer element (20) are aligned. The energy absorbing device is designed to motor vehicle doors.

Abstract: The invention relates to a safety device for raising the bonnet of a motor vehicle in the event of a collision with a pedestrian. The safety device includes a pyrotechnic actuator provided with a thrust piston secured to a mechanism for raising the bonnet and able to deploy the said mechanism which is itself secured to the said bonnet, and a blocking device intended to block the said actuator in a given position. The main characteristic of this device is that it is made up of a shock-absorbing device employed when a pedestrian hits the bonnet which has been raised, so that the assembly consisting of the bonnet, the raising mechanism and the piston can move under the effect of the impact while at the same time being retarded.

Abstract: The invention relates to an energy absorption body with essentially in axial direction oriented side elements, whereby the side elements are convex, and with at least one energy absorption element, whereby the energy absorption element is located between the side elements, and whereby the energy absorption element is formed for absorption of a tensile force (F?) which can be applied by the side elements on the energy absorption element, and for deformation upon a compressive force (F?) applied in radial direction on one of the side elements.