An anisotropic conductive sheet according to the present invention comprises an insulating layer and a plurality of conductive layers. The insulating layer is elastic, and has a first surface that is positioned on one side in the thickness direction, a second surface that is positioned on the other side in the thickness direction, and a plurality of through holes that penetrate the layer from the first surface to the second surface. The conductive layers are respectively arranged on the inner wall surfaces of the plurality of through holes. The insulating layer comprises an elastic layer that is formed of a crosslinked product of an elastomer composition, and a heat-resistant resin layer that is formed of a heat-resistant resin composition that has a higher glass transition temperature than the crosslinked product of an elastomer composition.

It is aimed to provide a terminal connection structure of a novel structure capable of advantageously preventing rotational displacements between two terminals without being accompanied by an increased spring force of a spring member. A terminal connection structure is provided with a first terminal 10 including a first connecting portion 32, a second terminal 12 including a second connecting portion 24, and a spring member 14 for sandwiching the first and second connecting portions 32, 24 in an overlapped state. At least one 44 of contact surfaces of the first and second connecting portions 32, 24 has a contact point portion 42 in the form of a curved surface bulging toward the other contact surface 30. The spring member 14 includes a pressing point 50 for pressing the first and second connecting portions 32, 24 in an overlapping direction at a position separated from the contact point portion 42.

A device includes an elastic base, a device body provided on the base, a wiring line provided on the base, a coupling member coupled to the wiring line, and an electrically conductive adhesive layer provided between the wiring line and the coupling member. The wiring line extends from the electrically conductive adhesive layer to the device body. The wiring line has a wiring portion overlapping with the electrically conductive adhesive layer. The degree of polymerization of the electrically conductive adhesive layer decreases in the extending direction of the wiring portion.

A frangible shunt link assembly includes a frangible link configured to conductively couple a current collector coupled with a vehicle and one or more components of the vehicle. The frangible link is configured to break responsive to the current collector being at least partially separated from the vehicle to interrupt a conductive connection between the current collector and the one or more components of the vehicle.

A frangible shunt link assembly includes a frangible link configured to conductively couple a current collector coupled with a vehicle and one or more components of the vehicle. The frangible link is configured to break responsive to the current collector being at least partially separated from the vehicle to interrupt a conductive connection between the current collector and the one or more components of the vehicle.

The invention relates to a terminal (1), in particular an installation terminal, for connection of an electrical conductor (2) without stripping, having at least one conductor insertion area (13) for inserting an electrical conductor (2), insulated with an insulating material, into the terminal (1) in a conductor insertion direction, wherein the terminal (1) furthermore has, for each conductor insertion area (13), an actuating part (50), which is rotatable about an axis of rotation, and an insulation-piercing contact (30) having a cutting edge (33) for cutting through the insulating material and establishing electrical contact with the electrical conductor (2), wherein the cutting edge (33) extends about the axis of rotation along an arc, wherein the insulation-piercing contact (30) is connected to the actuating part (50) in such a way that, via a rotation of the actuating part (50) about the axis of rotation, the insulation-piercing contact (30) is movable between a contacting position, in which the cutting edge (33) intersects the conductor insertion area (13) for establishing electrical contact with an inserted electrical conductor (2), and a release position, in which the cutting edge (33) clears the conductor insertion area.

The invention relates to a terminal (1), in particular an installation terminal, for connection of an electrical conductor (2) without stripping, having at least one conductor insertion area (13) for inserting an electrical conductor (2), insulated with an insulating material, into the terminal (1) in a conductor insertion direction, wherein the terminal (1) furthermore has, for each conductor insertion area (13), an actuating part (50), which is rotatable about an axis of rotation, and an insulation-piercing contact (30) having a cutting edge (33) for cutting through the insulating material and establishing electrical contact with the electrical conductor (2), wherein the cutting edge (33) extends about the axis of rotation along an arc, wherein the insulation-piercing contact (30) is connected to the actuating part (50) in such a way that, via a rotation of the actuating part (50) about the axis of rotation, the insulation-piercing contact (30) is movable between a contacting position, in which the cutting edge (33) intersects the conductor insertion area (13) for establishing electrical contact with an inserted electrical conductor (2), and a release position, in which the cutting edge (33) clears the conductor insertion area.

An electrical harness assembly for an agricultural implement includes multiple harness segments coupled to one another. Each harness segment includes a first connector, a second connector, and a third connector. In addition, the second connector of each harness segment is configured to directly couple to the first connector of a subsequent harness segment, the third connector of each harness segment is configured to couple to a respective row unit component, and each harness segment does not include a harness controller.

An electrical harness assembly for an agricultural implement includes multiple harness segments coupled to one another. Each harness segment includes a first connector, a second connector, and a third connector. In addition, the second connector of each harness segment is configured to directly couple to the first connector of a subsequent harness segment, the third connector of each harness segment is configured to couple to a respective row unit component, and each harness segment does not include a harness controller.