An electronic device includes a circuit board and a camera assembly. The circuit board has a mounting hole extending through the circuit board in a thickness direction, and the mounting hole includes a first end and a second end oppositely arranged along the thickness direction of the circuit board. The camera assembly includes a first part arranged in the mounting hole and a second part extending out from the first end of the mounting hole, and the first part includes a camera substrate assembly. A support member is arranged on the circuit board and at the mounting hole and the first part is arranged on the support member. The support member includes at least one conductive sheet. The at least one conductive sheet is further coupled to a metal wiring of the circuit board, and the at least one conductive sheet is insulated from the camera substrate assembly.

A printed circuit board provides lateral notches for receiving wire conductors in a lateral direction to be joined with printed circuit board traces by solder or an insulation displacement connector eliminating the need for laborious sequential insertion of conductors through printed circuit board holes.

A circuit board assembly includes a main board, a daughter board, a metal bracket, and a conductive gasket. The daughter board includes a circuit board and an electronic module with a plurality of pins connected to the circuit board. The metal bracket clamps at one side of the circuit board and the electronic module to shield the plurality of pins. The metal bracket has a connection part connecting the main board. The conductive gasket is disposed between the metal bracket and the plurality of pins.

A method of making a printed circuit board and a printed circuit board including a plurality of plastic substrate parts having one or more first substrate parts each having at least one coupling means, and one or more second substrate parts each having at least one receiving means to receive the coupling mean. At least one of the plurality of plastic substrate parts is formed with a further structural element, and at least two of the plurality of plastic substrate parts are connected to each other through the at least one coupling means and the at least one receiving means. The connected substrate parts include a circuit.

Provided is a probe device for testing a sensor chip that detects a target material from an analysis specimen, has a reactant reacting specifically with the target material, and transmits a generated electrical signal through a pad. The probe device can include a lower housing accommodating a circuit board electrically connectable to an external test device; a middle housing positioned on the lower housing, coupled to the lower housing, and having the sensor chip mounted thereon; a probe module having probe pins for connecting a pad of the sensor chip and a connection pad of the circuit board to each other; and an upper housing positioned on the middle housing, coupled to the middle housing, having a recessed portion that opens the sensor chip, and having a guide area for aligning the probe module on the pads of the sensor chip and the circuit board.

A flexible mounting clip is configured for engaging with a circuit board for removably attaching the circuit board to a mounting surface. A rib on an arm of the mounting clip engages with an opening in the circuit board to position and hold the circuit board in place, allowing easy replacement of the circuit board without tools.

A circuit board assembly includes a main board, a daughter board, a metal bracket, and a conductive gasket. The daughter board includes a circuit board and an electronic module with a plurality of pins connected to the circuit board. The metal bracket clamps at one side of the circuit board and the electronic module to shield the plurality of pins. The metal bracket has a connection part connecting the main board. The conductive gasket is disposed between the metal bracket and the plurality of pins.

An item of print media (30) including an inductive secondary (50) for providing power to a load (32). The inductive secondary is responsive to an electromagnetic flux to generate a time-varying current or voltage therein. The current or voltage induced in the inductive secondary directly or indirectly powers the load to thereby enhance the functionality and/or the appeal of the item of print media without significantly adding to its cost. The load can provide a visual and/or auditory output, and can include an electroluminescent display, an e-ink display, a piezo speaker coil, an electrostatic speaker, an OLED, an LED or an LCD display. Embodiments of the invention can be utilized in connection with a wide variety of print media, including for example books, booklets, pamphlets, labels, magazines, manuals, brochures, maps, charts, posters, journals, newspapers or loose leaf pages.

An electric heater for an automobile vehicle, with at least one heating element and with at least one circuit board, whereby the circuit board has at least one contact area through which an electrical connection between a heating element and a power supply can be realized. The heating element has at least one PTC-heating element, whereby the heating element can be clipped to the circuit board via a connector clip, and whereby the connector clip has two flexible extensions, which are arranged opposed to each other.

A flexible circuit tape includes flexible circuit boards each including a substrate unit and a circuit unit. The circuit unit is disposed on a routing region of the substrate unit and includes circuit lines each having an inner lead and an outer lead. A second width between the two outermost outer leads accounts for 60.00-99.00% of a first width of the substrate unit. The first width is greater than or equal to 80 mm such that number of outer leads can be increased.