Electrically conductive articles are provided, including a composite including (a) a resin, and (b) electrically conductive shaped particles distributed in the resin, the particles having a monosized distribution. Each particle has a shape including at least a first surface and a second surface intersecting the first surface at an angle a between about 5 degrees and about 150 degrees. The composite has a thickness and often each of the electrically conductive shaped particles distributed in the resin is oriented within the resin such that the particle does not extend beyond the thickness of the composite. A method for making an electrically conductive article is also provided, including (a) providing electrically conductive shaped particles having a monosized distribution, and (b) distributing the particles into a resin to form a composite.

An electrical connection box includes an outer box and an inner box to be accommodated in the outer box. The outer box includes an outer box body, a first lock portion to lock the inner box and a ground member to be electrically connected to a ground conductor, the ground member including a first ground contact portion provided at or adjacent to the first lock portion. The inner box includes an inner box body, a second lock portion to be engaged with the first lock portion, a ground circuit element to which the circuit base is connected to ground the circuit base and a contact conductor electrically connected to the ground circuit element, the contact conductor including a second ground contact portion to be electrically connected to the first ground contact portion when the first lock portion and the second lock portion are engaged with each other.

A radio frequency filter includes a first conductive pattern; a second conductive pattern connected to a first point of the first conductive pattern and extended; a third conductive pattern connected to a second point of the first conductive pattern and extended to surround a portion of the second conductive pattern; a fourth conductive pattern; a fifth conductive pattern connected to a third point of the fourth conductive pattern and extended; and a sixth conductive pattern connected to a fourth point of the fourth conductive pattern and extended to surround a portion of the fifth conductive pattern. The first conductive pattern extends toward the fourth conductive pattern and the fourth conductive pattern extends toward the first conductive pattern. A distance between the first conductive pattern and the fourth conductive pattern is greater than or equal to a distance between the third conductive pattern and the sixth conductive pattern.

A substrate that includes at least one dielectric layer, a first inductor formed in the at least one dielectric layer, a second inductor formed in the at least one dielectric layer, and a patterned ground layer formed on a metal layer of the substrate. The patterned ground layer is configured to provide electromagnetic (EM) shielding. The patterned ground layer includes a plurality of slots. The plurality of slots may be filled with the at least one dielectric layer. The plurality of slots may include a slot with a rectangular shape, a slot with a polygon shape, a slot with a circular shape, or combinations thereof. The patterned ground layer may include at least one slot that, individually or collectively, has a shape of a spiral.

A field device having a monitoring device for grounding and/or shield connections, wherein the monitoring device is connected to a power supply of the field device, an activation arrangement for activating a monitoring current and at least one current detection device downstream of the activation arrangement, wherein the at least one current detection device is connected to at least one component of the field device to be grounded and/or to be shielded.

A display device includes a display panel; a plurality of contact units disposed on side surfaces of the display panel; a metal cover disposed on a rear surface of the display panel and grounded; and a connection line disposed between the metal cover and the plurality of contact units. Accordingly, in the present disclosure, by disposing the plurality of contact units connected to the metal cover on the side surfaces of the display panel, the metal covers of the display devices may be connected to each other when implementing a tiling display device.

A cable connection structure includes a cable including a power cable including a power line and a power shield line, a signal cable including a signal line and a signal shield line, a control unit including a control-side ground, and a controlled unit that includes a controlled-side ground, receives supply of power from the control unit, and exchanges the electric signals with the control unit. The power shield line and the signal shield line are connected to the control-side ground and the controlled-side ground. At least one of the power cable and the signal cable includes an earth line that connects the control-side ground and the controlled-side ground to each other.

An electrical connection box includes an outer box and an inner box to be accommodated in the outer box. The outer box includes an outer box body, a first lock portion to lock the inner box and a ground member to be electrically connected to a ground conductor, the ground member including a first ground contact portion provided at or adjacent to the first lock portion. The inner box includes an inner box body, a second lock portion to be engaged with the first lock portion, a ground circuit element to which the circuit base is connected to ground the circuit base and a contact conductor electrically connected to the ground circuit element, the contact conductor including a second ground contact portion to be electrically connected to the first ground contact portion when the first lock portion and the second lock portion are engaged with each other.

An electronic control unit includes; a circuit board including a plurality of layers, the layers including a plurality of ground layers having different thicknesses from one another; a drain line connected to the circuit board; a switching device configured to selectively connect the drain line to one of the plurality of ground layers based on a frequency of an electromagnetic wave inside a vehicle cabin; and a controller configured to control the connection of the switching device based on the frequency of the electromagnetic wave inside the vehicle cabin.

A system for limiting or diminishing current to unpowered Serializer/Deserializer (SerDes) circuitry is provided. The system comprises receiver input termination circuitry and a cold spare circuitry. The receiver input circuitry comprises a termination resistor and an N-type metal oxide silicon field effect transistor (MOSFET). The cold spare circuitry comprises a first MOSFET and a second MOSFET. When the system is powered on, an input current flows to the receiver input termination circuit to be discharged by the N-type MOSFET which is electrically connected to a ground. When the system is powered off, the input current flows to the cold spare circuitry to discharge the input current. Discharging electrons between the first MOSFET and the second MOSFET depends on the polarity of an accumulated voltage.