In general, the subject matter described in this disclosure can be embodied in a circuit-board attachment method. The method includes providing a circuit board that defines a channel in a surface of the circuit board, and placing a stencil over the surface of the circuit board so that a slot that is in the stencil and defined by the stencil aligns with the channel in the circuit board. The method includes applying solder to the stencil when the slot in the stencil is aligned with the channel in the circuit board to provide the solder into the slot in the stencil and the channel, and removing the stencil, leaving the solder in the channel and protruding from the channel. The method includes placing a component in contact with the solder that is protruding from the channel, and heating the solder to attach the component to the circuit board.

A method is provided for manufacturing a printed circuit board assembly. A method includes applying a liquefied radiant-heat material on a heating component mounted on the printed circuit board; mounting a shield unit on the printed circuit board in contact with the liquefied radiant-heat material; and simultaneously curing the liquefied radiant-heat material and bonding the shield unit.

A capacitor comprises a first winding member, where the first winding member comprises a first dielectric layer and a first conductive layer. A second winding member comprises a second dielectric layer and second conductive layer. The first winding member is interleaved, partially or entirely, with the second winding layer. A dielectric package is adapted to at least radially contain or border the first winding member and the second winding member. A first metallic member has a generally planar, radially extending surface for electrically and mechanically contacting an upper portion the first conductive layer. A second metallic member has a generally planar, radially extending surface for electrically and mechanically contacting a lower portion of the second conductive layer.

An aspect includes one or more board layers. A first chip cavity is formed within the one or more board layers, wherein a first Josephson amplifier or Josephson mixer is disposed within the first chip cavity. The first Josephson amplifier or Josephson mixer comprises at least one port, each port connected to at least one connector disposed on at least one of the one or more board layers, wherein at least one of the one or more board layers comprises a circuit trace formed on the at least one of the one or more board layers.

A solid state power switch assembly of an aircraft solid state power controller includes a circuit board, at least one solid state power switch, and a busbar. The at least one solid state power switch has a first side and an opposing second side. A power switch electric contact surface is formed on the first side and the at least one solid state power switch is arranged on the circuit board with the second side facing the circuit board and the first side facing away from the circuit board. The busbar comprises at least one busbar contact portion configured for electrically contacting the power switch electric contact surface and at least one busbar mounting portion, which is configured for be mounted to the circuit board, so that the at least one solid state power switch is sandwiched between the at least one busbar contact portion and the circuit board.

A compartment EMI shield for use inside of a system module package is provided that comprises at least a first set of electrically-conductive wires that surrounds and extends over circuitry of the module package. Adjacent wires of the first set are spaced apart from one another by a predetermined distance selected to ensure that the compartment EMI shield attenuates a frequency or frequency range of interest. First and second ends of each of the wires are connected to an electrical ground structure. A length of each wire that is located in between the first and second ends of the respective wire extends above the circuitry and is spaced apart from the components of the circuitry so as not to be in contact with the components of the circuitry.

A system receives event information associated with an event that corresponds to a temperature of a memory sub-system including memory devices encased in respective packages. The system determines whether the event information associated with the event satisfies a threshold condition. Responsive to determining that the event information associated with the event satisfies the threshold condition, the system causes a thermoelectric component (TEC) that is coupled to an external surface of each of the respective packages of the memory devices of the memory sub-system to transfer thermal energy between the TEC and the memory devices via thermal conduction.

A job-site gear in one aspect of the present disclosure includes a circuit board, at least one electronic component, and a resin member. A first surface of the circuit board includes a first area, a second area, and a third area. The third area is located in a boundary between the first area and the second area. A second surface of the circuit board includes a fourth area, a fifth area, and a sixth area located behind the first area, the second area, and the third area, respectively. The third area and the sixth area include at least one slit penetrating through the circuit board. The resin member is integrally molded so as to (i) penetrate through the at least one slit and (ii) cover the first area, the fourth area, and a part of the at least one electronic component on the first area.

Provided is a complex electronic component including a noise filter part including a wire wound around a core and removing a noise signal and an ESD protecting part coupled to the noise filter part and protecting an ESD.

A compartment EMI shield for use inside of a system module package is provided that comprises at least a first set of electrically-conductive wires that surrounds and extends over circuitry of the module package. Adjacent wires of the first set are spaced apart from one another by a predetermined distance selected to ensure that the compartment EMI shield attenuates a frequency or frequency range of interest. First and second ends of each of the wires are connected to an electrical ground structure. A length of each wire that is located in between the first and second ends of the respective wire extends above the circuitry and is spaced apart from the components of the circuitry so as not to be in contact with the components of the circuitry.