Abstract:
PROBLEM TO BE SOLVED: To provide a planarizing apparatus for a probe card assembly. SOLUTION: The probe card assembly 200 is composed of an elastic contact structure 211, a space exchanger 210, a frame 212, an interposer 230, elastic contact structures 229 and 231, a frame 218, a printed wiring substrate 220, a drive plate 222, a stud 238, an extension stud 240, and a screw 224. COPYRIGHT: (C)2005,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To make improvements in an interconnection between microelectronic components by a method wherein a flexible extension element is mounted on a contact region on the electronic component and so formed as to be elastic. SOLUTION: A wire 502 is wrapped up in or covered with a first inner coating layer 520, and the first inner coating layer 520 is coated with a second outer coating layer 522 for the formation of a wire stem 530. The first layer 520 of the wire stem 530 is made to cover a terminal 512 as a contacting region on a semiconductor substrate 508 where the end 502a of the wire 502 is bonded, and the wire 502 of soft gold material is mounted and fixed to the terminal 512. By this setup, improvements can be made in an interconnection between microelectronic components.
Abstract:
PROBLEM TO BE SOLVED: To provide a device to come into press-contact with an electronic component by providing an interval converter board having multiple first terminals arranged on the upper surface and multiple second terminals arranged on the lower surface, and multiple restorable contact structures which are directly mounted to the multiple first terminals. SOLUTION: This probe card assembly 500 comprises a probe card 502, an interleaved body 504 and an interval converter 506, and is tentatively connected with a semiconductor wafer 508. The probe card 502 is a conventional circuit board having multiple contact regions 510 arranged on its upper surface, and an electronic component, a connector or the like can be mounted to the probe card 502 as well. The interleaved body 504 includes a board 512. Multiple restorable mutual connection elements 514 are mounted on the lower surface of the board 512 and extended downward from there, and multiple corresponding restorable mutual connection elements 516 are mounted on the upper surface of the board 512 and extended upward from there.
Abstract:
The probe card assembly (500) includes a probe card (502), and a space transformer (506) having resilient contact structures (524) mounted to and extending from terminals (522) on its surface. An interposer (504) is disposed between the space transformer and the probe card. The space transformer and interposer are stacked on the probe card and the resilient contact structures can be arranged to optimise probing of entire wafer.
Abstract:
The probe card assembly (500) includes a probe card (502), and a space transformer (506) having resilient contact structures (524) mounted to and extending from terminals (522) on its surface. An interposer (504) is disposed between the space transformer and the probe card. The space transformer and interposer are stacked on the probe card and the resilient contact structures can be arranged to optimise probing of entire wafer.
Abstract:
A method of forming a probe array includes forming a layer of tip material over a block of probe material. A first electron discharge machine (EDM) electrode is positioned over the layer of tip material, the EDM electrode having a plurality of openings corresponding to a plurality of probes to be formed. Excess material from the layer of tip material and the block of probe material is removed to form the plurality of probes. A substrate having a plurality of through holes corresponding to the plurality of probes is positioned so that the probes penetrate the plurality of through holes. The substrate is bonded to the plurality of probes. Excess probe material is removed so as to planarize the substrate.
Abstract:
Improved interconnection elements and tip structures for effecting pressure connections between terminals of electronic components are described. The tip structure (20) of the present invention has a sharpened blade (22) oriented on the upper surface of the tip structure (20) such that the length of the blade (22) is substantially parallel to the direction of horizontal movement of the tip structure (20) as the tip structure deflects across the terminal of an electronic component. In this manner, the sharpened substantially parallel oriented blade (22) slices cleanly through any non-conductive layer(s) on the surface of the terminal and provides a reliable electrical connection between the interconnection element and the terminal of the electrical component. One embodiment encompasses a blade oriented at an angle such that the length of the blade is within approximately 45° of the axis parallel to the horizontal movement of the tip structure as the tip structure deflects across the surface of the terminal of the electronic component under test.
Abstract:
The probe card assembly (500) includes a probe card (502), and a space transformer (506) having resilient contact structures (524) mounted to and extending from terminals (522) on its surface. An interposer (504) is disposed between the space transformer and the probe card. The space transformer and interposer are stacked on the probe card and the resilient contact structures can be arranged to optimise probing of entire wafer.
Abstract:
The probe card assembly (500) includes a probe card (502), and a space transformer (506) having resilient contact structures (524) mounted to and extending from terminals (522) on its surface. An interposer (504) is disposed between the space transformer and the probe card. The space transformer and interposer are stacked on the probe card and the resilient contact structures can be arranged to optimise probing of entire wafer.