Systems and methods for coupling a tag to an item. The methods comprise: dispensing the tag from a tag feeder of a tag applicator; performing first operations by the tag applicator to mechanically move the tag into a nest of the tag applicator; determining if a given criteria is met based on feedback information received from at least one of a user of the tag applicator and a sensor provided with the tag applicator; and performing second operations by the tag applicator to couple the tag to the item, when a determination is made that the given criteria is met.

Systems and methods for coupling a tag to an item. The methods comprise: dispensing the tag from a tag feeder of a tag applicator; performing first operations by the tag applicator to mechanically move the tag into a nest of the tag applicator; determining if a given criteria is met based on feedback information received from at least one of a user of the tag applicator and a sensor provided with the tag applicator; and performing second operations by the tag applicator to couple the tag to the item, when a determination is made that the given criteria is met.

A device for securing one or more units includes a first component and a second component configured to couple to the first component. The first component includes a body that has an elongated shape and a head that is connected to an upper longitudinal end of the body. The head includes a part that is configured to be rotationally engaged by a tool. The first component also includes a retainer at a lower longitudinal end of the body. The first component further includes an elastic latch formed in a thickness of the body. The elastic latch includes a tab that has an upper end connected to the body and a free lower end. The elastic latch is configured to cooperate with complementary means of one or both of the second component or the one or more units.

A positioning device positions and/or centers a first vehicle part relative to a second vehicle part. The device includes a body having a first end connected to the first vehicle part and a second free end in contact with a section formed in the second vehicle part during positioning and/or centering. The section configured to slide along at least two or more sliding surfaces during positioning and/or centering in a phase-wise manner.

A fastener comprising a body having a first portion and a second portion is provided. The first and second body portions are adjustably connected such that the distance between the first body portion and the second body portion is adjustable along a longitudinal axis of the body. A first flange is arranged on the first body portion and a second flange is arranged on the second body portion. A locking mechanism is provided for securing the first and second body portions together while permitting adjustment of the distance between the first and second body portions in the direction of the longitudinal axis.

A through bolted connection hardware includes a bolt having an at least partially threaded shaft and a head. At least one nut connector defines a shaft hole and a head hole that is coaxial with the shaft hole, and the shaft hole is sized to receive the shaft of the bolt and not to allow the head to fit through the shaft hole. An outer surface of the at least one nut connector has a hexagonal shape. A tube defines an axially extending threaded bore that is configured to matingly receive the shaft at a first end of the threaded bore.

A through bolted connection hardware includes a bolt having an at least partially threaded shaft and a head. At least one nut connector defines a shaft hole and a head hole that is coaxial with the shaft hole, and the shaft hole is sized to receive the shaft of the bolt and not to allow the head to fit through the shaft hole. An outer surface of the at least one nut connector has a hexagonal shape. A tube defines an axially extending threaded bore that is configured to matingly receive the shaft at a first end of the threaded bore.

A spring-loaded locking bolt with a guide sleeve and an adjusting pin movably mounted axially in the guide sleeve. The adjusting pin can be brought into a locked position protruding axially out of the guide sleeve against the actuating force of an axial compression spring and a retracted neutral position which does not protrude axially from the guide sleeve. The adjusting pin has a locking end and an actuating end in conjunction with an actuator knob. The actuator knob has an outer sleeve with which the actuator knob is movably mounted axially on a sleeve section of the guide sleeve. The actuator knob includes an inner locking projection which in the locked position lockingly engages into a corresponding recess in the side wall of the sleeve section, and fixes the actuator knob, which is engaged under spring tension, against an axial rotation about the center axis of the locking bolt, and in the neutral position the actuator knob is rotatable about the center axis.

A fixing device 101 has a pair of complementary fingers 102,103 complementary pivot formations 121,122. Each has distal portion 104 and a proximal portion 105. Both have a flat surface 106, which abuts the same face in the other finger, both at the distal portions when the fixing is arranged for insertion in an aperture 107 in a board 108 and at the proximal portions when the fingers are arranged both for insertion and gripping of the board. The distal portions each have a surface 111 with an edge 1112 common with the surface 106. This surface 111 comes into abutment with the back face 112 of the board 108. The proximal portion is generally hemispherical to allow rotation within the aperture 107. A lug portion 1161 generally in the direction of the distal portion 104. FIXING DEVICE A fixing device 101 has a pair of complementary fingers 102,103 complementary pivot formations 121,122. Each has distal portion 104 and a proximal portion 105. Both have a flat surface 106, which abuts the same face in the other finger, both at the distal portions when the fixing is arranged for insertion in an aperture 107 in a board 108 and at the proximal portions when the fingers are arranged both for insertion and gripping of the board. The distal portions each have a surface 111 with an edge 1112 common with the surface 106. This surface 111 comes into abutment with the back face 112 of the board 108. The proximal portion is generally hemispherical to allow rotation within the aperture 107. A lug portion 1161 generally in the direction of the distal portion 104. With the fingers engaged and their distal portions brought as close to alignment as possible, the Tee projections 114 abut the flanges 109 at angled faces 135. The contours of the fingers are such that they can be inserted into the aperture 107 until the distal portions 104 enter the aperture. Passage of these through the aperture is inhibited by the lugs 1161, specifically by abutment of the angled back surface 118. Pressure on the angular relief surfaces 120 of the abutments 1162 urges the lugs into the front face 135 of the board 108. The reaction of the board acts about the pivot centrally of the aperture, tending to turn the fingers about the lugs under the constraint that they are pivoted together. The fingers are turned with the distal portions coming to lie on the backside of the board. This allow

A high load toggle bolt hollow wall anchor comprises a bolt and a two piece toggle member, wherein the first piece of the two piece toggle member is an elongated member with a threaded opening for receiving the bolt, and wherein a second piece of the two piece toggle member is a load plate having i) a planar wall engaging face, ii) a wall opening engaging ridge extending from the wall engaging face, and iii) a groove in a rear of the load plate configured to receive and to hold the elongated member therein. The load plate provides a load dispersing toggle member adaptor. A method of implementation is also disclosed.