Abstract:
A testing jig includes a substrate, a carrier provided on the substrate, two conductive members made of a conductive material, and a compensation member made of a conductive material. The substrate has a signal circuit and a grounding circuit thereon. The carrier has a base board made of an insulating material and a conductive circuit made of a conductive material provided thereon. The base board has a signal perforation aligning with the signal circuit, a grounding perforation aligning with the grounding circuit, and multiple compensation holes. The conductive members both have an end exposed out of the carrier, and are respectively fitted in the signal perforation and the grounding perforation to make another end thereof contact the signal circuit or the grounding circuit. The compensation member is fitted in one of the compensation holes to be electrically connected to the conductive member in the grounding perforation through the conductive circuit.
Abstract:
The instant disclosure provides an operating method of inspecting equipment, with the method applicable to semiconductor inspecting equipment having a movable element. The method includes: displaying a wafer graphic by a touch display; detecting a touch signal generated by the touch display; detecting the magnification of the wafer graphic when the touch signal is generated; and determining the moving speed of the movable element based on the magnification of the wafer graphic when the touch signal is generated. In addition, the moving direction of the movable element can be determined according to the touch signal. Through the instant disclosure, the operator can more intuitively operate each movable element of semiconductor inspecting equipment.
Abstract:
A multilayer circuit board includes a first substrate and a second substrate in stack. The first substrate first substrate a first pad, and a first circuit, wherein the first circuit is embedded in the first substrate, and the first pad is electrically connected to the first circuit. The second substrate has a first through hole, a second pad, and a second circuit, wherein the first through hole is opened at both sides of the second substrate, and the first pad of the first substrate is in the first through hole; the second circuit is embedded in the second substrate, and the second pad is electrically connected to the second circuit. The pads on each substrate are exposed by the through hole(s) of the above substrate(s) to shorten the null sections of the interconnectors and reduce the interference from the null sections.
Abstract:
A probe holding structure includes a substrate and a plurality of holding modules. The substrate has an opening and a plurality of grooves arranged around a periphery of the opening. The holding modules are connected with the grooves, respectively. Each holding modules includes a fixing member and a plurality of probes. The fixing member is connected with a corresponding groove. The probes are connected with the fixing member and pass through the corresponding groove. The probe holding structure is combined with a lens adjusting mechanism having a lens to form an optical inspection device for testing electric characteristics of chips.
Abstract:
A vertical probe device includes a lower die having engaging holes and needle holes, a positioning film having limiting holes and needle holes, probe needles inserted through the needle holes, and supporters having at least an upper stopping surface and at least a lower stopping surface for moveably limiting the positioning film therebetween. Each supporter has a head, a neck passing through the limiting hole and having a length longer than the thickness of the positioning film, a body, and a tail inserted into the engaging hole, which are connected in order, and at least one of the upper and lower stopping surfaces. The supporters can prevent the positioning film from being lifted and flipped over and enables the positioning film to move so that the probe needles are reliable.
Abstract:
A spring probe includes a needle, a spring sleeve sleeved onto the needle, and a protrusion. The spring sleeve has upper and lower non-spring sections, and at least a spring section therebetween. The needle has a bottom end portion protruding out from the lower non-spring section, and a top end portion located in the upper non-spring section. The protrusion is located at one of the top end portion and the upper non-spring section. The needle is movable relative to the upper non-spring section from an initial position to a connected position where the upper non-spring section is electrically connected with the needle through the protrusion when receiving an external force. As a result, the spring probe effectively prevents signals from being transmitted through the spring section, thereby improving stability of signal transmission and preventing the spring section from fracture.
Abstract:
A testing jig includes a substrate and a plurality of conductive elastic pieces, wherein the substrate has a recess and a plurality of circuits; the recess is located on a top surface of the substrate, while the circuits are provided on the top surface of the substrate. The conductive elastic pieces are provided on the substrate, and are respectively electrically connected to the circuits. Each of the conductive elastic pieces has a contact portion located within an orthographic projection range of the recess, wherein each of the contact portions contacts a pad of a DUT. Whereby, attenuation happens while transmitting test signals with high frequency can be effectively reduces by using the conductive elastic pieces to transmit test signals.
Abstract:
An assembly method of direct-docking probing device is provided. First, a space transforming plate made by back-end-of-line semiconductor manufacturing process is provided, so the thickness of the space transforming plate is predetermined by the client of probe card manufacturer. Then a reinforcing plate in which a plurality of circuits disposed is provided, which has larger mechanical strength than the space transforming plate. After that the reinforcing plate and the space transforming plate are joined and electrically connected by a plurality of solders so as to form a space transformer. Then, a conductive elastic member and a probe interface board are provided. Thereafter, the space transformer and the conductive elastic member are mounted on the probe interface board. After that, at least one vertical probe assembly having a plurality of vertical probes is mounted on the space transforming plate, and the vertical probes is electrically connected with the space transforming plate.
Abstract:
A position adjustable probing device adapted for being mounted to a circuit board includes a frame, a probe head, a space transformer module and an elevation adjusting structure. The frame has a first surface, a second surface opposite to the first surface, and a first opening penetrating through the first and second surfaces. The probe head is coupled to the frame. The space transformer module is disposed in the first opening. The elevation adjusting structure is provided at the frame and has a plurality of spacers for adjusting a position of the frame relative to a reference surface in a vertical direction.
Abstract:
A probe card which is capable of transmitting high-frequency signals provided by a DUT, and the DUT includes an output pin group and an input pin group for sending and receiving the high-frequency signals respectively. The probe card includes a first signal pin group, a second signal pin group, and a multiband circuit. The first signal pin group is made of a conductive material, and is used to contact the output pin group; the second signal pin group is made of a conductive material too, and is used to contact the input pin group; the multiband circuit is electrically connected to the first signal pin group and the second signal pin group to allow signals within a first bandwidth and a second bandwidth to pass therethrough.