Abstract: A laterally restrained joint structure including a structural member, a gusset plate and at least one restraining member is disclosed. The gusset plate is connected to the structural member, and a two-force member is disposed opposite to the structural member and connected to the gusset plate. The restraining member is disposed over side or at edges of the gusset plate and connected to the structure member, so that the lateral deformation of the gusset plate can be controlled and the buckling strength of the gusset plate can be enhanced by the restraining member, and the laterally restrained joint structure is capable of reinforcing a building.

Abstract: Deployable units and systems made of deployable units are described. The units have a retractable brace transitioning from a retracted condition to a deployed condition through a gravity driven movement, a latching arrangement contacting the brace and keeping the brace in position when the brace is in the deployed condition, and a guiding arrangement to guide the movement of the brace. The systems comprise plural deployable units to be arranged in a building structure, each unit to be located in a respective bay per story space of the building structure.

Abstract: Disclosed is a buckling restrained brace which is a core plate inside a tube, with the plate prevented from buckling by being surrounded by the tube. The core plate is provided with a layer of discrete springs adjacent the core plate, with the interior of the tube otherwise filled with cement. The layer of discrete springs may be cardboard of other material. The layer of discrete springs defines a space between the core plate and the concrete, to allow for expansion of the core plate under compression from the ends.

Abstract: A buckling restrained brace includes an axial member, a plurality of restraining members, and a plurality of securing units. The axial member includes a middle section extending in an axial direction, and two coupling sections extending respectively from opposite ends of the middle section and coupled fixedly to two connecting plates of a framework of a building. The restraining members extend in the axial direction and are disposed around and contact the axial member. Each securing unit secures an adjacent pair of the restraining members together. Each restraining member cooperates with an adjacent one of the restraining members to define an opening therebetween through which a portion of the axial member is exposed for viewing.

Abstract: A buckling restrained brace includes an axial member and a restraining unit. The axial member extends along an axial direction, and has two coupling sections for connecting respectively to two connecting plates of a framework of a building, and a middle section connected between the coupling sections. Each coupling section has a supplying plate portion coplanar with an elongated plate body of the middle section, and a contacting plate portion extending perpendicularly from the supporting plate portion. An outer end of the supplying plate portion of each coupling section has a groove formed therethrough along a transverse direction of the axial member, extending along the axial direction, and permitting a respective one of the connecting plates to engage fittingly therewith and contact the corresponding contacting plate portion.

Abstract: Disclosed are apparatus and systems for absorbing seismic energy through non-linear yielding as a structure experiences lateral displacement. A seismic damper according to embodiments of the present invention includes at least one flat plate which can be perforated to include a plurality of apertures and/or cut-outs. One or more interior apertures are formed in the plate, and cut-outs may be formed along outer edges. External nodes are defined between the apertures and the cut-outs and stresses focus on the nodes to reduce non-linear displacement of a brace system to which the seismic damper is attached. One or more tension straps can be attached to the flat plate. Tension straps can be rotated relative to each other. Multiple tension straps may also be on the same surface. Multiple tension straps on the same surface may be nested and parallel.

Abstract: A lateral bracing system is disclosed for affixing a column to a beam in a construction. The lateral bracing system includes a pair of buckling restraint blocks, one each affixed to a top and bottom flange of a beam. Each buckling restraint block includes one or more bores formed through a center of the block. The lateral bracing system further includes at least one yield link for each buckling restraint block. Each yield link includes a first end affixed to the column, and a second end fit through a bore in a buckling restraint block and affixed to an end of the buckling restraint block.

Abstract: A structural framework that includes a column, a beam, a brace beam coupled at an angle to the column and the beam, and a gusset plate to connect the brace beam with the column and the beam. The framework also includes a shear plate with horizontally slotted holes to couple to the column to the beam. The structural framework may also include double framing angles or a flex plate coupled to the gusset plate and to the beam via spacer plates to provide for a semi-rigid connection.

Abstract: A pin-fuse frame used in a frame assembly that may be subject to extreme seismic loading. The pin-fuse frame includes of columns, beams, plate assemblies that extend between columns and beams, and may included a diagonal brace. The plate assemblies are fixed to the columns and attached to the beams and brace via pin joints. A joint includes a pin connection through outer connection plates connected to a column and inner connection plates connected to a beam. Connecting rods positioned about the pin maintain a coefficient of friction until exposed to extreme seismic activity, at which time the joint accommodates a slippage of at least one of the inner and outer connection plates relative to each other rotationally about the pin. The diagonal brace is separated into two segments connected together with connection plates. These connection plates accommodate a slippage of the segments relative to each other.

Abstract: A method of installing distribution systems such as needed piping, ductwork, electrical wiring, and other systems in a new construction having a structural ceiling and floor, comprises the steps of: providing a frame module of main and cross frame members; assembling the modules on site directly below the final placement position; installing ductwork, piping, electrical wiring, and other distribution systems in the modules; fabricating and attaching upper wall portions to the modules; lifting modules with attached upper wall portions towards the structural ceiling; attaching support columns to the structural ceiling and floor; and mounting the modules onto the support columns, such that the support columns support the modules.

Abstract: A vibration damper comprises a first plate 11 that is fixed to one framework member 51, a second plate 13 that is fixed to another framework member 53, and an elastic material 15 that is filled in the interstices between the first plate 11 and the second plate 13. A first clearance W1 is formed between the another framework member 53 and a first fixing portion 21, and a second clearance W2 is formed between the first framework member 51 and a second fixing portion 29. The first plate 11 is made of a steel plate that is formed directing from the first fixing portion 21 to the second fixing portion 29, and the second plate 13 is made of a steel plate that is formed directing from the second fixing portion 29 to the first fixing portion 21. A space portion 50 constituted by the first clearance W1, the second clearance W2, the first plate 11, and the second plate 13 has a dimension which is at least sufficient for insertion of a joist 57 therein.

Abstract: The present invention generally relates to a self-centering energy dissipative brace apparatus. A bracing system is often needed to stabilize, strengthen or stiffen structures such as buildings which are subjected to severe or extreme conditions. The brace apparatus may be installed in a structure to dissipate input energy and minimize residual deformations related to exceptional loading imposed on the structure by winds, earthquakes, impacts or explosions. The apparatus integrates self-centering properties and energy dissipative capacities which help minimize structural damage.

Abstract: A wall module for the construction of a housing module comprises two beams, two primary studs, two bracing members, primary reinforcements and a plurality of secondary studs. The two beams are spaced apart and substantially parallel to each other. The two primary studs are perpendicularly connected between different extremities of the two beams so as to define four wall corners. The two bracing members are connected substantially diagonally between two different opposed wall corners. The primary reinforcements are located at the wall corners and are connect one of the two beams to one of the two primary studs and to one of the bracing members. The secondary studs are attached to the two beams and to at least one of the two bracing members. The wall module may further comprise a sheathing attached to the secondary studs and a finishing sheet attached to the sheathing in between the secondary studs.

Abstract: The present invention generally relates to a self-centering energy dissipative brace apparatus. A bracing system is often needed to stabilize, strengthen or stiffen structures such as buildings which are subjected to severe or extreme conditions. The brace apparatus may be installed in a structure to dissipate input energy and minimize residual deformations related to exceptional loading imposed on the structure by winds, earthquakes, impacts or explosions. The apparatus integrates self-centering properties and energy, dissipative capacities which help minimize structural damage.

Abstract: A structural protection system of buildings is described, comprising at least one bearing structure (2) connected with at least one wall of said building (E). The bearing structure (2) is rigidly connected to the wall of the building (E) and the bearing structure (2) is a specialized structure comprising an energy dissipation device (1) adapted to dissipate the energy generated by the oscillations of the bearing structure due to earth tremor.

Abstract: A buckling restrained brace includes a deformable core contained within an outer casing. Ends of the core protrude from the casing for connection to a frame or other structure. A length of the deformable core between its ends, referred to as the gauge or yielding section, is capable of deforming during an earthquake or blast loading. The gauge section is differentially heat treated from the ends so that the gauge section has a lower yield strength than the ends. The casing provides containment of the core to prevent buckling of the core. A metal foil interface or unbonding layer is provided between the deformable core and the casing so that the deformable core does not bind to the casing. The buckling restrained brace provides significant performance improvements over prior art BRBs coupled with simplified assembly.

Abstract: A buckling restrained brace includes a deformable core contained within an outer casing. Ends of the core protrude from the casing for connection to a frame or other structure. A length of the deformable core between its ends, referred to as the gauge or yielding section, is capable of deforming during an earthquake or blast loading. The gauge section is differentially heat treated from the ends so that the gauge section has a lower yield strength than the ends. The casing provides containment of the core to prevent buckling of the core. A metal foil interface or unbonding layer is provided between the deformable core and the casing so that the deformable core does not bind to the casing. The buckling restrained brace provides significant performance improvements over prior art BRBs coupled with simplified assembly.

Abstract: An assembly for straightening a basement's wall, the basement having a floor and being covered by joists which are spaced from each other on center distances to define interstitial cavities and are arranged a perpendicular array or a parallel array, the assembly having mounting plate; joist mounting fasteners attaching the oblongated mounting plate to joists, the fasteners, upon the perpendicular joist array, positioning the mounting plate within an interstitial cavity, and the fasteners, upon the parallel array, bridging the mounting plate across an interstitial cavity; a rigid beam having upper and lower ends; a jack screw for driving the rigid beam's upper end toward the basement's wall; and an anchor bracket for resisting movement of the rigid beam's lower end away from the basement's wall.

Abstract: A damper system for installation in a structure to dissipate seismic and wind energy transmitted to the structure, includes first and second pairs of elongated members forming an outer parallelogram, third and fourth pairs of elongated members forming an inner parallelogram, and a pair of energy dissipating devices connected between the parallelograms for dissipating the energy transmitted to the structure.

Abstract: In accordance with the present invention there is provided a force-resisting device for transmitting forces and dissipating and absorbing energy across a discontinuous structural element of a structure. The device includes at least one active element, the active element having defined force versus deflection properties and able to transmit force and dissipate and absorb energy, one end of the active element configured to be connected to a structure, and at least one frame element disposed about a discontinuous structural element, wherein the frame is configured to be connected to a second end of the active element, wherein the active element and the frame element configured to resist forces applied to the structure by transmitting forces across the discontinuous structural element.

Abstract: Lateral motion devices are used in conjunction with relatively rigid shear assemblies to further dissipate shear forces on frame construction buildings. In one embodiment, the lateral motion device is interposed between the shear assembly and the upper portion of the wall to permit relative motion therebetween and to absorb and dissipate a portion of the energy associated with shear force through spring-like behavior and deformation. In one embodiment, the energy dissipation is achieved by a plurality of corrugation structures, where the top of the corrugation is attached to the upper portion of the wall and the bottom of the corrugation is attached to an interconnecting assembly that is securely attached to the foundation.

Abstract: The present invention relates to apparatus and systems for absorbing seismic energy to prevent non-linear displacement in a structure. A seismic damper according to embodiments of the present invention includes at least one flat plate which can be perforated to include a plurality of apertures and/or cut-outs. Interior apertures are formed in the flat plate, and one or more cut-outs along outer edges. Nodes are defined between the apertures and the cut-outs and stresses from transferred energy focus on the nodes to reduce non-linear displacement of a brace system to which the seismic damper is attached. One or more tension straps can be attached to the flat plate. The interior apertures may include a single aperture, or multiple apertures. The apertures may include slots. Two plates may be connected and rotated relative to each other placing the apertures out of alignment. Tension straps can be rotated relative to each other.

Abstract: The present invention relates to apparatus and systems for absorbing seismic energy to prevent non-linear displacement in a structure. A seismic damper according to embodiments of the present invention includes a flat plate which can be perforated to include a plurality of apertures and/or cut-outs. A central aperture is formed in the flat plate and one or more cut-outs are formed along outer edges of the flat plate. The area of the flat plate between the aperture and the cut-outs forms one or more nodes on which stresses from seismic activity are focused, and which can deform to absorb energy, thereby reducing or preventing non-linear displacement of a brace system to which the seismic damper is attached. The nodes are located at the intersection between one or more tabs, the tabs being arranged to be connected to braces within the brace system.

Abstract: The damper unit 10 is applicable to structures for seismic energy dissipation. The damper unit 10 comprises, a lower beam 11, an upper beam 12, a left column 21, a right column 22, axially yielding dampers 41, 42 functioning as an energy dissipating means, a left post-tensioned steel bar 31, and a right post-tensioned steel bar 32. The left and right post-tensioned steel bars 31 and 32 are inserted in the left and right columns 21 and 22, respectively. Upper ends of the steel bars 31 and 32 are connected with the upper beam 12. Lower ends of the steel bars 31 and 32 are connected with the lower beam 11. The columns 31 and 32 are semi-rigid connected with the upper beam 12 and the lower beam 11 by compressive forces generated from the steel bars 31 and 32. Therefore, the damper unit 10 possesses both self-centering and seismic energy dissipation characteristics.

Abstract: A lateral bracing system having high initial stiffness and including yield links capable of effectively dissipating stresses generated within the lateral bracing system under lateral loads.

Abstract: In accordance with the present invention there is provided a force-resisting device for transmitting forces and dissipating and absorbing energy across a discontinuous structural element of a structure. The device includes at least one active element, the active element having defined force versus deflection properties and able to transmit force and dissipate and absorb energy, one end of the active element configured to be connected to a structure, and at least one frame element disposed about a discontinuous structural element, wherein the frame is configured to be connected to a second end of the active element, wherein the active element and the frame element configured to resist forces applied to the structure by transmitting forces across the discontinuous structural element.

Abstract: A new configuration damper, for interconnecting two elements of a structure that undergo relative movements and deformations, that increase the level of damping when the overall structure is subjected to a loading condition is disclosed. The new configuration damper aides in controlling displacements, velocities and accelerations under dynamic loading in structural systems.

Abstract: The invention relates to a construction module for erecting flat structures, particularly walls, comprising two parallel panel-shaped wall parts and a module core arranged between them. According to the invention, each wall part has a number of room-height solid squared timbers that are set on end. These squared timbers are joined to one another in an at least non-positive manner via a mechanical pinning placed transversal to the longitudinal direction of the squared timbers and extending in the plane of the wall parts, and/or these squared timbers are each pinned in an at least non-positive manner with at least two crossbars, which extend essentially transversal to the longitudinal direction of the squared timbers and which are located in the future module core.

Abstract: A reinforcing brace frame for providing lateral and seismic support when used in a multi-story light-gauge steel/wood framed building is disclosed. The reinforcing brace frame comprises a horizontally extending upper metallic frame member, a pair of spaced metallic frame members having a lower end and an upper end, at least one metallic diagonal member, a plurality of slots and at least one abutting tube having a proximal end and a distal end. The pair of spaced metallic frame members is vertically extended and rigidly connected at opposite ends of the upper metallic frame member to form a rigid upright tubular frame. The reinforcing brace frame is stacked and connected by means of the at least one abutting tube which is then bolted in place using at least one attachment means to secure subsequent reinforcing brace frames to resist lateral seismic loads.

Abstract: A buckling restrained brace includes a deformable core contained within an outer casing. Ends of the core protrude from the casing for connection to a frame or other structure. A length of the deformable core between its ends, referred to as the gauge or yielding section, is capable of deforming during an earthquake or blast loading. The gauge section is differentially heat treated from the ends so that the gauge section has a lower yield strength than the ends. The casing provides containment of the core to prevent buckling of the core. A metal foil interface or unbonding layer is provided between the deformable core and the casing so that the deformable core does not bind to the casing. The buckling restrained brace provides significant performance improvements over prior art BRBs coupled with simplified assembly.

Abstract: Methods are provided for creating footings for structures proximate a wall face of a segmental retaining wall using a device that includes a sleeve and a reinforcing member having a base. The methods can include placing the device on a layer of backfill material behind the wall face so that the sleeve is located adjacent the wall face and the base of the reinforcing member extends away from the wall face, covering the base of the reinforcing member with at least one other layer of the backfill material, placing a bottom portion of the structure in the sleeve, and filling the sleeve with an anchoring material.

Abstract: A seismic damper includes upper and lower brackets, and a link mechanism. The upper bracket is formed with an upper hole. The lower bracket is formed with lower and intermediate holes. The link mechanism includes a support link, and first, second, and third pivot joints. The support link has first and second ends, each of which is formed with a through-hole, and an intermediate portion, which is formed with a through-hole. The first pivot joint extends through the upper hole in the upper bracket and the through-hole in the first end of the support link. The second pivot joint extends through the lower hole in the lower bracket and the through-hole in the second end of the support link. The third pivot joint extends through the intermediate hole in the lower bracket and the through-hole in the intermediate portion of the support link.

Abstract: A shock-absorbing tie brace has a central member and an outer frame. The central member has two ends and multiple neck portions. The neck portions are formed between the ends to form at least one enlarged portion between the neck portions. Each neck portion has a height (Hn) relative to the central line smaller than a height (He) of each one of the at least one enlarged portion, and a proportion of the height (Hc) of each neck to the height (He) of any one of the at least one enlarged portion is o.1 to 0.99. The outer frame is mounted around and encloses the central member. Accordingly, the shock-absorbing tie brace has an excellent capability for bearing buckling load and is not easily bent or buckled.

Abstract: A damper system for installation in a structure to dissipate seismic and wind energy transmitted to the structure, includes first and second pairs of elongated members forming an outer parallelogram, third and fourth pairs of elongated members forming an inner parallelogram, and a pair of energy dissipating devices connected between the parallelograms for dissipating the energy transmitted to the structure.

Abstract: A technical installation, especially a nuclear power plant, has a number of system components that are respectively supported by a number of beams, and a number of pressurized conduits. The technical installation is designed in such a way that secondary damage occurring in the surroundings of pressurized conduits are kept particularly low even if the pressurized conduits rupture. This is achieved in that at least one of the beams is embodied in a segmented manner in an area that is expected to be affected if a pressurized conduit ruptures, adjacent segments preferably being connected to each other via screw connections.

Abstract: A seismic damper includes upper and lower brackets, and a link mechanism. The upper bracket is formed with an upper hole. The lower bracket is formed with lower and intermediate holes. The link mechanism includes a support link, and first, second, and third pivot joints. The support link has first and second ends, each of which is formed with a through-hole, and an intermediate portion, which is formed with a through-hole. The first pivot joint extends through the upper hole in the upper bracket and the through-hole in the first end of the support link. The second pivot joint extends through the lower hole in the lower bracket and the through-hole in the second end of the support link. The third pivot joint extends through the intermediate hole in the lower bracket and the through-hole in the intermediate portion of the support link.

Abstract: A yielding fuse device is provided for use in association with a brace member in a bracing assembly for a structural frame. The device includes arms or elements that yield flexurally when a bracing member moves in an axial direction, with the bracing assembly under either tension or compression loading conditions. The device of the present invention is particularly useful as a mass customized cast device. The device is well suited for seismic bracing applications.

Abstract: A pin-fuse frame used in a frame assembly that may be subject to extreme seismic loading. The pin-fuse frame includes of columns, beams, plate assemblies that extend between columns and beams, and may included a diagonal brace. The plate assemblies are fixed to the columns and attached to the beams and brace via pin joints. A joint includes a pin connection through outer connection plates connected to a column and inner connection plates connected to a beam. Connecting rods positioned about the pin maintain a coefficient of friction until exposed to extreme seismic activity, at which time the joint accommodates a slippage of at least one of the inner and outer connection plates relative to each other rotationally about the pin. The diagonal brace is separated into two segments connected together with connection plates. These connection plates accommodate a slippage of the segments relative to each other.

Abstract: The present invention is directed to a brace apparatus having a core member configured to absorb energy generated by seismic or other forces by undergoing plastic deformation. A buckling restraining assembly is included for maintaining the structural integrity of the brace after the core member has undergone plastic deformation. The buckling restraining assembly includes one or more bearings is located proximal the core member. The bearings are adapted to minimize friction between the core member and the buckling restraining apparatus. An air gap is positioned between the core member and the one or more bearings of the buckling restraining apparatus are adapted to prevent bonding of the core member and buckling restraining assembly. Projections are included in the core member of the brace apparatus to minimize movement of the middle portion of the core member relative to the buckling restraining assembly.

Abstract: A seismic energy damping system with plural redundancy for a building or structure subject to seismic perturbation (i.e., deflection of the building structure) includes a distributed plurality of seismic energy dampers, and a plurality of rigid shear panels cooperating with the building structure via the seismic energy dampers. The plural shear panels and plural seismic energy dampers distribute seismic energy absorption and dissipation throughout the building structure to avoid stress concentrations, and to dissipate significant seismic energy, thus limiting the amplitude of deflections of the building structure during a seismic event.

Abstract: The present invention is directed to a brace apparatus having a core member configured to absorb energy generated by seismic or other forces by undergoing plastic deformation. A buckling restraining assembly is included for maintaining the structural integrity of the brace after the core member has undergone plastic deformation. The buckling restraining assembly includes one or more bearings is located proximal the core member. The bearings are adapted to minimize friction between the core member and the buckling restraining apparatus. An air gap is positioned between the core member and the one or more bearings of the buckling restraining apparatus are adapted to prevent bonding of the core member and buckling restraining assembly. Projections are included in the core member of the brace apparatus to minimize movement of the middle portion of the core member relative to the buckling restraining assembly.

Abstract: A pin-fuse frame is used in a frame assembly that may be subject to extreme seismic loading. The pin-fuse frame includes of columns, beams, plate assemblies that extend between columns and beams, and may included a diagonal brace. The plate assemblies are fixed to the columns and attached to the beams and brace via pin joints. A joint includes a pin connection through outer connection plates connected to a column and inner connection plates connected to a beam. Connecting rods positioned about the pin maintain a coefficient of friction until exposed to extreme seismic activity, at which time the joint accommodates a slippage of at least one of the inner and outer connection plates relative to each other rotationally about the pin. The diagonal brace is separated into two segments connected together with connection plates. These connection plates accommodate a slippage of the segments relative to each other.

Abstract: A seismic bracing assembly has a first subassembly and a second subassembly that are connected by a sleeve. The first subassembly has a structural yoke used to secure the first subassembly to a structural member. The second subassembly has another yoke used to secure the second subassembly to an anchoring member. The first and second subassembly have a sufficient length to allow rough in assembly of the two subassemblies with the sleeve that couples them together.

Abstract: A buckling restrained brace includes a deformable core contained within an outer casing. Ends of the core protrude from the casing for connection to a frame or other structure. A length of the deformable core between its ends, referred to as the gauge or yielding section, is capable of deforming during an earthquake or blast loading. The gauge section is differentially heat treated from the ends so that the gauge section has a lower yield strength than the ends. The casing provides containment of the core to prevent buckling of the core. A metal foil interface or unbonding layer is provided between the deformable core and the casing so that the deformable core does not bind to the casing. The buckling restrained brace provides significant performance improvements over prior art BRBs coupled with simplified assembly.

Abstract: A joint structure includes a splice plate and a gusset plate, which can prevent out-of-plane buckling of the gusset plate without the necessity of welding a stiffening rib plate thereon. The joint structure includes a gusset plate and at least one splice plate connected to the gusset plate. Each of the splice plates is constructed from section steel having a non-rectangular cross-section. The joint structure can be used in a building during assembly of the building or for reinforcement of the building.

Abstract: A hold down connector is provided for securing together multiple building members. The hold down connector resists movement of the building members when connected to an elongated tie member. In one embodiment, the hold down connector includes a transverse portion connected to first and second elongated legs with at least one aperture at elongated connections between the transverse portion and the first leg and between the transverse portion and second leg. In another embodiment, the hold down connector includes a transverse portion connected to first and second elongated legs with the transverse portion partially supported by transverse extensions of the first and second legs. A hold down connector in accordance with embodiments results in increased load bearing properties, construction from thicker materials, and easy installation.

Abstract: The invention relates to a retrofit connector for fast attachment to an existing system that supports a suspended load below a ceiling, beam or floor without the need to disassemble or disconnect any components of the system. Advantageously, the connector is easy to install and inexpensive to manufacture. The connector is removably or permanently attachable to a sway brace clamp or attachment to form a pivotable connector-clamp assembly. The assembly is capable of reliably supporting heavy loads against adverse sway and seismic disturbances.

Abstract: A shock-absorbing tie brace has a central member and an outer frame. The central member has two ends and multiple neck portions. Each neck portion has a dimension of cross section smaller than that of the ends to form multiple enlarged portions beside the neck portions on the central member. The outer frame is mounted around and encloses the central member. Accordingly, the shock-absorbing tie brace has an excellent capability for bearing buckling load and is not easily bent or buckled.

Abstract: A reinforcing structure for a building and a reinforcing member used for the structure, where the structure has excellent anti-vibration characteristics and quake resistance. The reinforcing structure and member for a building are capable of reducing the deformation of structural members of the building caused by vibration and removing the deformation so that the original form is restored. A reinforcing member (1) is provided and fixed at a corner portion where structural members (11, 12) of a building intersect. The reinforcing member (1) is formed such that a first spring member (third leaf 33) and a second spring member (layered leaf (5)) are combined, and a damper (4) and a synthetic resin foam body (2a) are arranged in a space between the first and second spring members. A synthetic resin foam body (2b) is filled in a space surrounded by the structural members (11, 12) and the reinforcing member (1).

Abstract: A link-fuse joint resists bending moments and shears generated by seismic loading. A joint connection includes a first plate assembly having a first connection plate including a first diagonal slot formed therethrough. A second plate assembly has a second connection plate including a second diagonal slot formed therethrough. The second diagonal slot is diagonally opposed to the first diagonal slot. The second connection plate is position such that at least a portion of the second diagonal slot aligns with a portion of the first diagonal slot. A pin is positioned through the first diagonal slot and the second diagonal slot. The joint connection accommodates a slippage of at least one of the first and second plate assemblies relative to each other when the joint connection is subject to a seismic load and without significant loss of clamping force.