Provided is a junction. In one aspect, the junction includes a first member, the first member formed of a first material, and a second member overlapping with the first member, the second member formed of a second material, the first and second members defining an overlapping space. In accordance with this aspect, the junction additionally includes an expanded metal joint located in at least a portion of the overlapping space, the expanded metal joint comprising a metal that has expanded in response to hydrolysis.

An example method of joining a first structure and a second structure is described that includes forming a bond cavity between a first structure and a second structure, placing a semi-permeable breather material at one or more exits of the bond cavity, placing a vacuum bag around the bond cavity and the semi-permeable breather material, evacuating the bond cavity via a vacuum port and forcing adhesive into the bond cavity via an adhesive port while the bond cavity is evacuated, and curing the adhesive via one or more heaters to bond the first structure to the second structure.

Some embodiments relate to a stand that complies with safety standards. The stand includes a first shelf, wherein the first shelf comprises two first elongated slots and two first holes located in the vicinity of each end of the first shelf. The stand also includes a second shelf. Additionally, the stand includes a first wall, wherein the first wall comprises two third elongated slots and a first notch, wherein the two third elongated slots are sized to slide and fit into one of the first elongated slots and one of the second elongated slots respectively. The stand also includes a second wall. Additionally, the stand includes two connecting bars each is sized to fit into one of the two first holes and one of the two second holes respectively, the two connecting bars each further comprises a flange sized to fit into the first notch and the second notch respectively.

A clamping system for fastening a cooling unit on a circulating supporting element of a caterpillar-type casting machine includes at least one connecting element, which is pre-tensioned in its longitudinal direction by a spring, and a clamping arrangement, by which the cooling unit is fastenable on the supporting element. The connecting element is accommodated in a displaceably mounted manner in the direction of its longitudinal axis inside the supporting element. The clamping arrangement is formed by a head on an upper end face of the connecting element and a recess, which is provided on/in the cooling unit and is brought into interaction therewith. The connecting element is pre-tensioned by the spring toward the supporting element and is transferred into a clamping position, in which the cooling unit, when the head of the connecting element engages with the recess provided on/in the cooling unit, is automatically clamped with the supporting element.

A clamping system for fastening a cooling unit on a circulating supporting element of a caterpillar-type casting machine includes at least one connecting element, which is pre-tensioned in its longitudinal direction by a spring, and a clamping arrangement, by which the cooling unit is fastenable on the supporting element. The connecting element is accommodated in a displaceably mounted manner in the direction of its longitudinal axis inside the supporting element. The clamping arrangement is formed by a head on an upper end face of the connecting element and a recess, which is provided on/in the cooling unit and is brought into interaction therewith. The connecting element is pre-tensioned by the spring toward the supporting element and is transferred into a clamping position, in which the cooling unit, when the head of the connecting element engages with the recess provided on/in the cooling unit, is automatically clamped with the supporting element.

A panel attachment structure for a wearable article manufacturing equipment includes: lower and upper panels vertically arranged while separated up-and-down; a first processing section and a first driving section respectively attached to a front face and a back face of the lower panel; a second processing section and a second driving section respectively attached to a front face and a back face of the upper panel; a base horizontally arranged under the lower panel; and a pair of pillars raised from the base, wherein, in the structure, the lower and upper panels are removably fixed to the pillars while being supported by the respective lower and upper parts of the pillars, and each pillar has a support section, provided between the upper and lower panels and supporting the load of the upper panel.

A fastener assembly includes a plunger, a grommet, and a lever arm. The plunger may include a head, a tip portion, and a longitudinal centerline axis. The grommet may be configured to receive the tip portion of the plunger. The tip portion of the plunger may be axially movable relative to the grommet between a latched state and an unlatched state. The lever arm may be coupled to the plunger between the head and the tip portion. The lever arm extends from the plunger at an angle relative to the longitudinal centerline axis, with the lever arm being actuatable to switch the fastener assembly from the latched state to the unlatched state, according to various embodiments.

A fastening assembly includes: a first sleeve, a second sleeve, a positioning element, a driven element and an elastic element. The first sleeve includes a plug tube having a passage communicating with the first sleeve. The second sleeve is integrated into the first sleeve. The driven element includes an inserting rod movably inserted in the passage along a first direction and a guiding portion having a first inclined guiding surface forming a first acute angle with the first direction. The positioning element includes a guide rod movably inserted in the second sleeve along the second direction and a slide block connected to the guide rod and in sliding contact with the first inclined guiding surface. One end of the elastic element leans against the driven element, and the other end of the elastic element leans against the first sleeve.

A fastening assembly includes: a first sleeve, a second sleeve, a positioning element, a driven element and an elastic element. The first sleeve includes a plug tube having a passage communicating with the first sleeve. The second sleeve is integrated into the first sleeve. The driven element includes an inserting rod movably inserted in the passage along a first direction and a guiding portion having a first inclined guiding surface forming a first acute angle with the first direction. The positioning element includes a guide rod movably inserted in the second sleeve along the second direction and a slide block connected to the guide rod and in sliding contact with the first inclined guiding surface. One end of the elastic element leans against the driven element, and the other end of the elastic element leans against the first sleeve.

A mechanical sliding connector that mates to an identical mechanical connector by a sliding action. The connector can be slid into another connector or another connecter can slide on to it, allowing the connectors to connect in either direction. The connector features a latching mechanism that engages with no interaction required by the operator other than sliding the connectors together. Unlatching the connectors can be accomplished by unlatching either of the connectors and sliding them apart. The connector latch resets automatically after it's disconnected enabling it to be ready for another connection without user action. This feature along with a latch locking feature provides for easy one hand operation.