Inductor cooling systems and methods are disclosed. A vehicle may include a transmission case including a coolant inlet and an inductor assembly having a flange extending around a periphery thereof. A thermally conductive cover having a sealing surface may form a seal with the flange. A cavity may be defined between the cover and the inductor assembly and configured to receive coolant from the coolant inlet. A thermal interface material (TIM) may be in contact with a surface of the cover and a surface of the transmission case. The TIM may be a solid or a paste-like substance. If the TIM is solid, it may be in a state of compression between a bottom surface of the cover and the surface of the transmission case. The TIM may transfer heat from coolant in the cavity to the transmission case while the coolant is not being circulated.

A system, a method and a computer program to monitor a plurality of transformer operating parameters, as well as to accurately control one or more of the transformer operating parameters. Also, the system and method may calculate loss of life and give diagnosis for recovery and provide maintenance notification, along with monitoring the operation of the LTC.

In accordance with an exemplary embodiment, a power inductor includes a body, at least two bases disposed in the body, at least two coil patterns disposed on the at least two bases, respectively, and a connection electrode disposed on an outer portion of the body and connecting the at least two coils to each other.

In accordance with an exemplary embodiment, a power inductor includes a body, at least two bases disposed in the body, a plurality of coil patterns disposed on at least one surface of the at least two the base, respectively, and a connection electrode disposed on an outer portion of the body and connecting the at least two coils to each other.

A temperature compensation circuit including a magnetic coil, wherein an electrical resistance of the magnetic coil increases with increasing temperature. The temperature compensation circuit is electrically connected to the magnetic coil and includes at least has one component whose electrical resistance decreases with increasing temperature. A plurality of components having electrical resistances decreasing with increasing temperature, increases with increasing temperature, and/or substantially constant with increasing temperature may also be provided.

A system, a method and a computer program to monitor a plurality of transformer operating parameters, as well as to accurately control one or more of the transformer operating parameters. Also, the system and method may calculate loss of life and give diagnosis for recovery and provide maintenance notification, along with monitoring the operation of the LTC.

The present invention provides a current transformer having excellent temperature characteristics and realizing high-precision adjustment of the output voltage via gap adjustment and small tolerance, and a method for manufacturing the same. The core component for current transformers of the present invention, comprises an E-type core 40 formed of an electromagnetic steel sheet and having three legs 41, 42, 41 extending substantially parallel to each other and a connecting part 43 connected at each end of the legs, and an I-type core 50 formed of an electromagnetic steel sheet and having the same length as the connecting portion, the I-type core being placed on and bonded to the connecting part of the E-type core to form a single-piece core component.

A wire winding method for forming a common mode choke includes winding a first wire and a second wire in parallel for 1 turn, winding the first wire and the second wire to cross each other in a following turn, winding the first wire and the second wire in parallel for turn, winding the first wire for turn, and winding the second wire to cross the first wire, winding the first wire and the second wire in parallel for first turn, winding the first wire to cross the first wire, and winding the second wire to cross the first wire, winding the first wire and the second wire in parallel for second turn, winding the first wire to cross the first wire, and winding the second wire for turn, and winding the first wire and the second wire in parallel for another turn.

An inductor for use as a passive electronic component. The inductor has a hollow ceramic tube, a metal target rod located inside the hollow ceramic tube, a coil wound on the outside of the hollow ceramic tube and including a first end and a second end, and a first terminal engaging the first end of the coil and a second terminal engaging the second end of the coil. The metal target rod is fixed relative to the coil at a position so that the inductor has a zero temperature coefficient. Also provided is an LC resonant circuit including the inductor.