Abstract: A non-aqueous electrolyte power storage device in which a coating material having a silanol group is present at least on a surface of an electrode active material layer and a sulfur-based material is contained in a cell, the electrode active material layer contains an electrode active material and a resin-based binder, the electrode active material is an active material capable of being alloyed with a metal element identical to an ion species responsible for electrical conduction or an active material capable of absorbing ions responsible for electrical conduction, and the coating material having a silanol group is a silicate containing a siloxane bond as a component or a silica fine particle aggregate (containing a siloxane bond as a component).

Abstract: To provide a negative electrode for nonaqueous electrolyte secondary batteries, by which the structural deterioration of the electrode is suppressed and cycle characteristics can be improved by absorbing the expansion and contraction of a silicon-based active material placed in the inside of a current collector made of porous metal, and a nonaqueous electrolyte secondary battery including the same. A negative electrode for nonaqueous electrolyte secondary batteries, having a current collector made of porous metal, and a negative electrode material placed in pores of the porous metal, the negative electrode material including a negative electrode active material including a silicon-based material; a skeleton forming agent including a silicate having a siloxane bond; a conductive additive; a binder; and a fibrous material.

Abstract: To provide an electrode for non-aqueous electrolyte batteries, which traps hydrogen sulfide gas, generated from the inside thereof for some reason, in the electrode, and suppresses the outflow of hydrogen sulfide gas to the outside of the battery. An electrode for lithium ion batteries includes a coating material which contains a silanol group and is present on at least a surface of an active material layer. The active material layer contains a sulfur-based material and a resin-based binder. The sulfur-based material is an active material capable of alloying with lithium metal or an active material capable of occluding lithium ions. The coating material containing the silanol group is a silicate having a siloxane bond or a silica fine particle aggregate having a siloxane bond as a component.

Abstract: Provided are a negative electrode that is for use in a non-aqueous electrolyte secondary battery, includes a porous metal body as a current collector, contains a skeleton-forming agent highly infiltrated in the current collector so that it is less likely to suffer from structural degradation and provides improved cycle durability; and a non-aqueous electrolyte secondary battery including such a negative electrode. The negative electrode for use in a non-aqueous electrolyte secondary battery includes a current collector including a porous metal body; a first negative electrode material disposed in pores of the porous metal body and including a conductive aid, a binder, and a negative electrode active material including a silicon-based material; and a second negative electrode material disposed in pores of the porous metal body and including a skeleton-forming agent including a silicate having a siloxane bond.

Abstract: A support structure assembly for an automotive vehicle includes a side member extending in a generally longitudinal direction and having a forward end; a link member having a generally fixed shape and having outer and inner mounting portions with the inner portion being mounted to the side member via an inner hinged connection; and a bumper having a main bumper member and a bumper extension member forming an end portion of the bumper. The bumper extends generally transverse and lateral to the longitudinal direction of the side member, and the bumper extension member extends laterally across and beyond the forward end of the side member. The bumper extension member includes forward and rearward wall portions. The rearward wall portion is sandwiched between the main bumper member and the forward end of the side member.

Abstract: A support structure assembly for an automotive vehicle includes a side member extending in a generally longitudinal direction and having a forward end; a link member having a generally fixed shape and having outer and inner mounting portions with the inner portion being mounted to the side member via an inner hinged connection; and a bumper having a main bumper member and a bumper extension member forming an end portion of the bumper. The bumper extends generally transverse and lateral to the longitudinal direction of the side member, and the bumper extension member extends laterally across and beyond the forward end of the side member. The bumper extension member includes forward and rearward wall portions. The rearward wall portion is sandwiched between the main bumper member and the forward end of the side member.

Abstract: A support structure assembly for an automotive vehicle includes a side member extending in a generally longitudinal direction and having a forward end; a link member having a generally fixed shape and having outer and inner mounting portions with the inner portion being mounted to the side member via an inner hinged connection; and a bumper having a main bumper member and a bumper extension member forming an end portion of the bumper. The bumper extends generally transverse and lateral to the longitudinal direction of the side member, and the bumper extension member extends laterally across and beyond the forward end of the side member. The bumper extension member includes forward and rearward wall portions. The rearward wall portion is sandwiched between the main bumper member and the forward end of the side member.

Abstract: A structural body part and a method of assembling a structural body part are provided. The structural body part includes an inner wall surface defining an enclosed space. A nut is disposed within the enclosed space. The structural body part includes an aperture for receiving a fastener so as to accommodate the addition of additional structure. The body structure includes a spacer. The nut is attached to the spacer. The spacer is configured to suspend the nut above the inner wall surface of the structural body part. Thus, the inner wall surface of the structural body part is exposed and covered with a solution when submersed therein.

Abstract: A countermeasure assembly for an automotive vehicle includes a front side rail extending in a generally longitudinal direction; a bumper having a main bumper member and a bumper extension forming an end portion of the bumper; and a pivot link having front and rear mounting portions. The front mounting portion is pivotably engaged with the bumper extension member to define a front pivot joint, and the rear mounting portion is pivotably engaged with the front side rail to define a rear pivot joint. The rear pivot joint is located rearward and inward from the front pivot joint. The bumper extension is bolted to the forward end of the front side rail. The bumper extension has a front member and a rear member, of which the rear member is bolted to the front side rail. The front member and the rear member of the bumper extension define a hollow box structure.

Abstract: A countermeasure assembly for an automotive vehicle includes a front side rail extending in a generally longitudinal direction; a bumper having a main bumper member and a bumper extension forming an end portion of the bumper; and a pivot link having front and rear mounting portions. The front mounting portion is pivotably engaged with the bumper extension member to define a front pivot joint, and the rear mounting portion is pivotably engaged with the front side rail to define a rear pivot joint. The rear pivot joint is located rearward and inward from the front pivot joint. The bumper extension is bolted to the forward end of the front side rail. The bumper extension has a front member and a rear member, of which the rear member is bolted to the front side rail. The front member and the rear member of the bumper extension define a hollow box structure.

Abstract: A support structure assembly for an automotive vehicle includes a side member extending in a generally longitudinal direction and having a forward end; a link member having a generally fixed shape and having outer and inner mounting portions with the inner portion being mounted to the side member via an inner hinged connection; and a bumper having a main bumper member and a bumper extension member forming an end portion of the bumper. The bumper extends generally transverse and lateral to the longitudinal direction of the side member, and the bumper extension member extends laterally across and beyond the forward end of the side member. The bumper extension member includes forward and rearward wall portions. The rearward wall portion is sandwiched between the main bumper member and the forward end of the side member.

Abstract: A motor mounting structure including: a left and right pair of side section members disposed at two vehicle width direction sides of a vehicle body with a length direction of the side section members being along a vehicle front-rear direction; a first cross member spanning across a vehicle width direction between the pair of side section members; a second cross member spanning across the vehicle width direction between the pair of side section members, and disposed offset in a vehicle top-bottom direction with respect to the first cross member as viewed from directly in front of the vehicle body; and a coupling member coupling together the first cross member and the second cross member, with an attaching portion of a motor to be mounted to the vehicle body attached to the coupling member.

Abstract: A frontal impact countermeasure assembly for an automotive vehicle, the countermeasure assembly comprising: a front side rail extending in a generally longitudinal direction and having a forward end; a bumper extending generally laterally to the longitudinal direction of the front side rail and having an outboard end; and a pivot link having outer and inner mounting portions, the outer mounting portion being pivotably engaged with the bumper in a region of the outboard end to define a front pivot joint, the inner mounting portion being pivotably engaged with the front side rail to define a rear pivot joint, the rear pivot joint being located rearward and inward relative to the front pivot joint.

Abstract: A frontal impact countermeasure assembly for an automotive vehicle, the countermeasure assembly comprising: a front side rail extending in a generally longitudinal direction and having a forward end; a bumper extending generally laterally to the longitudinal direction of the front side rail and having an outboard end; and a pivot link having outer and inner mounting portions, the outer mounting portion being pivotably engaged with the bumper in a region of the outboard end to define a front pivot joint, the inner mounting portion being pivotably engaged with the front side rail to define a rear pivot joint, the rear pivot joint being located rearward and inward relative to the front pivot joint.

Abstract: An automotive vehicle support structure assembly includes a bumper extending across the front of the vehicle, a longitudinal side member extending rearwardly from the bumper, and a link member extending between the end of the bumper and the side member. The link member is mounted to the side member and bumper via a pair of hinged connections. In the event of a small overlap collision, the link member is configured to contact a colliding barrier and pivot rearwardly in response while maintaining contact with the barrier to transfer the force of the collision inwardly toward the side member.

Abstract: A frame structure is adapted to absorb energy from frontal impacts and extends under a front portion of the body frame. The frame structure includes a rear sub-frame located below and in front of a pair of side frame under-members, and at least one ramp connected to the pair of side frame under-members for directing rearward sliding movement of the rear sub-frame and attached structures downwardly beneath a battery assembly. A catching surface engages a steering gear to improve energy absorption during frontal impacts. A reinforcement bracket attached to the pair of side frame under-members defines a pocket for temporarily catching the rear sub-frame providing an energy absorption path before releasing the rear sub-frame to slide past. A tether is connected between the pair of side frame under-members and the rear sub-frame for holding the rear sub-frame against the ramp to increase energy absorption.

Abstract: A vehicle frame structure is adapted to absorb energy from frontal impacts. The frame structure extends under a front portion of the body frame. The frame structure includes a rear sub-frame located below and in front of a pair of side frame under-members, and a catching surface connected to the pair of side frame under-members for engaging the rear sub-frame and attached structures. A steering gear is attached to the rear sub-frame. The catching surface interacts with the steering gear to promote additional crushing energy absorption during sliding movement of the rear sub-frame relative to the catching surface during the frontal impact. The catching surface can be formed on ramps attached to the pair of side frame under-members. A tether can prolong crushing contact of the rear sub-frame with respect to the catching surface.

Abstract: A frame structure is adapted to absorb energy from frontal impacts and extends under a front portion of the body frame. The frame structure includes a rear sub-frame located below and in front of a pair of side frame under-members, and a reinforcement bracket attached to the pair of side frame under-members to facilitate formation and control a deformation shape in an energy absorption pocket in the side frame under-member during a frontal impact for temporarily restraining the rear sub-frame before releasing the rear sub-frame to slide past the reinforcement bracket. The energy absorption pocket is formed in the side frame under-member forward of and outboard of the reinforcement bracket during a frontal impact prior to the rear sub-frame be released from B-point bolt connections to the side frame under-members.

Abstract: A lower wall portion of a bracket is attached to a motor compartment cross member via a charger. The bracket has an L-shaped cross-sectional configuration when viewed from a side of the vehicle, and includes a vertical wall portion which is bent from a vehicle-rear side end of the lower wall portion and extends toward the top of the vehicle. A DC/DC converter is attached to an upper portion of the vertical wall portion of the bracket. The DC/DC converter is located in such a position that an upper portion of the DC/DC converter overlaps with a cowling when viewed from a front of the vehicle.

Abstract: A frame structure is adapted to absorb energy from frontal impacts and extends under a front portion of the body frame. The frame structure includes a rear sub-frame located below and in front of a pair of side frame under-members, and a tether is connected between the pair of side frame under-members and the rear sub-frame for prolonging proximity of the rear sub-frame with the side frame under-members. A noise-vibration, ride and handling bracket can be modified to define the tether. The tether attaches to the pair of side frame under-members at two outboard locations and to the rear sub-frame at the two inboard locations positioned forward of the outboard locations. The tether attaches to the pair of side frame under-members providing a limited degree of rotary displacement away from the side frame under-members.