Hitachi, Ltd.

Renesas Technology Corp.

Hitachi Cable, Inc.

Ryuji Kohno

Makoto Kitano

Asao Nishimura

Akihiro Yaguchi

Masatoshi Kanamaru

Hideo Miura

Hideyuki Aoki

Naoto Ban

Yoshishige Endo

Hiroya Shimizu

Tetsuo Kumazawa

Nae Yoneda

Tatsuya Nagata

Ichiro Anjoh

Yuji Wada

Atsushi Hosogane

Toshio Miyatake

Naotaka Tanaka

Akihiko Ariga

Yasuhiro Motoyama

Gen Murakami

Susumu Kasukabe

Kunio Matsumoto

Hidetaka Shigi

Terutaka Mori

Takayoshi Watanabe

Shuji Shibuya

Hideki Tanaka

Akira Nagai

Shuji Eguchi

Sueo Kawai

Mamoru Mita

Masaaki Namba

Takanori Aono

Takanorr Aono

Maya Obata

Akio Hasebe

Ichio Shimizu

Junichi Arita

Kazuhiko Nakagawa

Mitsuaki Haneda

Masahiro Seido

Takeshi Terasaki

Chikako Imura

Akira Seito

Kiyomi Kojima

According to the present invention, there is provided a membrane electrode composite module including a membrane electrode composite formed by sandwiching both surfaces of an electrolyte membrane between gas diffusion electrodes, an anode current collecting plate having fuel flow holes through which fuel flows, and a cathode current collecting plate having oxygen flow holes through which oxygen flows, wherein both surfaces of the membrane electrode composite are sandwiched between the anode current collecting plate and the cathode current collecting plate, the membrane electrode composite module further including films made of a synthetic resin (a first film and a second film) which are a base of the anode current collecting plate and a base of the cathode current collecting plate.

Membrane electrode composite module, fuel cell and electronic equipment, and method of manufacturing the membrane electrode composite module

Dispersion of load may be kept within an allowance even when a plurality of probes in a large area are pressed in batch by pressing the probes provided in a membrane to a wafer by applying a pressure load to a plurality of places of a plane of pressure members on the side opposite from the wafer in a probe test step/burn-in test step which is one of semiconductor device manufacturing steps. It is then possible to provide semiconductor devices and a manufacturing method thereof which enhance the reliability and productivity of the semiconductor devices by probing a large number of integrated circuits or a large size integrated circuit in the same time.

Semiconductor device and manufacturing method thereof including a probe test step and a burn-in test step

A probe structure is provided in which secondary electrodes of a main base material and probes are formed can be electrically connected to electrodes in a substrate side even when a lot of probes are formed in a large area, so that a lot of LSIs within a wafer can be tested in one lot in a wafer test process, and an efficiency of the test process can be improved. In the probe structure, an interposer constituted by a high rigid material is arranged between the main base material having the probes formed therein and the substrate side, and the secondary electrodes of the main base material having the probes formed therein are electrically connected to the electrodes in the substrate side via the interposer.

Probe structure

A method of manufacturing a semiconductor device has forming process for forming a semiconductor device on a major surface of a wafer, and testing process for testing defect of the semiconductor device formed on the wafer. The testing process includes a step bringing a testing apparatus into contact with test electrodes of the semiconductor device. The testing apparatus has a contactor including a plurality of probes that come into contact with the test electrodes of the semiconductor device to be tested, and secondary electrodes electrically connected to the probes and disposed on a surface opposite to the probes; a substrate on which electrodes electrically communicated to the contactor by a conducting device. The conducting device is so formed that stress applied to the conducting device in the state where the probes are in contact with the test electrodes is larger than stress applied to the conducting device in the state where the probes are not in contact with the test electrodes.

Method of manufacturing a semiconductor device

A method of manufacturing a semiconductor device has forming process for forming a semiconductor device on a major surface of a wafer, and testing process for testing defect of the semiconductor device. The testing process includes bringing a testing apparatus into contact with test electrodes of the semiconductor device. The testing apparatus has a contactor including probes that come into contact with the test electrodes of the semiconductor device, and secondary electrodes electrically connected to the probes and disposed on a surface opposite to the probes; and a substrate on which electrodes electrically communicated to the contactor by a conducting device. The conducting device is so formed that stress applied to the conducting device in the state where the probes are in contact with the test electrodes is larger than stress applied to the conducting device in the state where the probes are not in contact with the test electrodes.

Testing apparatus for carrying out inspection of a semiconductor device

A semiconductor device includes a quadrangular semiconductor substrate and a self test circuit formed on the semiconductor substrate. A plurality of pads are formed on the semiconductor substrate, which pads are coupled at least to the self test circuit. The semiconductor substrate includes four rectangular or square regions which each include a respective corner of the quadrangle, and at least two of the pads are respectively located on diagonally opposite ones of the regions from one another.

Semiconductor device and test device for same

A semiconductor device superior in heat dissipation in which the exchanging of chips can be readily performed is realized by mounting, through means distinct from bonding or connecting, a LSI chip on an interconnection substrate having substantially no difference in thermal conductivity between the LSI chip and the substrate. The semiconductor device is provided on an interconnection substratewith electrode terminalsof cantilever structure, an interconnection layerfor electrical connection among the electrode terminals, an interconnection layerfor electrical connection to outer portions, and fitting portionsformed in a cover, the substrateand the coverbeing connected by the fitting portions. The chipsandare electrically contacted through the terminalswithout using any bonding or connecting, so that the mounting and detachment of the coverand the substrate can be readily performed.

Semiconductor device and contractor for inspection

A packaging device for holding thereon a plurality of semiconductor devices to be inspected on an inspection device including a probe to be electrically connected to an electrode of each of the semiconductor devices, comprises, holes for respectively receiving detachably therein the semiconductor devices to keep a positional relationship among the semiconductor devices and a positional relationship between the packaging device and each of the semiconductor devices constant with a spacing between the semiconductor devices, in a direction perpendicular to a thickness direction of the semiconductor devices, and electrically conductive members adapted to be connected respectively to the electrodes of the semiconductor devices, and extending to an exterior of the packaging device so that the probe is connected to each of the electrically conductive members.

Packaging device for holding a plurality of semiconductor devices to be inspected

Since each wiring line is formed on one surface of the associated beam at a prescribed width over the entire length of the beam, the beam has the same sectional shape taken in the width direction at any point along an arbitrary longitudinal direction of the beam. As a result, the second moment of area, which is determined by the shapes of the beam and the wiring line, is uniform. This prevents a problem of the curvature of a beam varying locally when the beam is bent by a prescribed amount due to contact of the probe with a pad of a subject body. This, in turn, prevents local concentration of stress in the beams and thereby prevents breakage of the beam. Therefore, the probe structure can be miniaturized while the strength of the beams is kept at a required level, whereby a semiconductor device testing apparatus capable of accommodating many probes can be realized.

Semiconductor device testing apparatus and semiconductor device manufacturing method using it

A semiconductor device testing apparatus is realized, which allows contactors to be positioned throughout the wafer surface highly accurately for uniform contact, testing a large-sized wafer, and cost reduction. A plurality of divided contactor blocks is formed with a positioning groove. The groove is used to position the plurality of contactor blocks with a positioning frame. Because the contactor blocks are divided into plurals, it is less likely that a partial surface distortion affects other portions to impair surface flatness as compared with the case where a plurality of non-divided contactors is formed integrally, and the plurality of contactor blocks can be brought into contact with a wafer to be tested uniformly. Additionally, even though abnormality is generated in a part of the contactor blocks, only the part of the contactor blocks is replaced. Therefore, replacement costs can be reduced as compared with the case where a plurality of non-divided contactors is formed integrally.

Semiconductor device testing apparatus and method for manufacturing the same

A semiconductor inspecting apparatus having a plurality of electrical connection boards arranged in the inspecting apparatus and a plurality of probes respectively provided on a plurality of beams formed on a first board of said plurality of electrical connection boards, the probes being adapted to be individually brought into contact with a plurality of electrode pads of a semiconductor device for inspection, so as to inspect the semiconductor device while establishing electrical connection therebetween. A one-end supported beam is used as each of the beams, and each of the probes is formed at a portion shifted in a rectangular direction to a center line of a longitudinal direction of the one-end supported beam.

Semiconductor-device inspecting apparatus and a method for manufacturing the same

A semiconductor inspection apparatus which is possible to inspect a plurality of semiconductor devices collectively at one time, which has conventionally been difficult because of precision or the like of probes. A method of manufacturing the semiconductor inspection apparatus comprises the steps of forming a cover film on a surface of the silicon substrate and forming a plurality of probes of a polygonal cone shape or a circular cone shape through etching after patterning by photolithography, after the cover film is removed, again forming a cover film on the surface of the silicon substrate and forming a beam or a diaphragm for each probe through etching after patterning by photolithography, after the cover film is removed, again forming a cover film on the surface of the silicon substrate and forming a through hole corresponding to the probe through etching after patterning by photolithography, and after the cover film is removed, forming an insulating film on the surface of the silicon substrate, forming a metal film on a surface of the insulating film, and forming a wiring lead through etching after patterning by photolithography.

Semiconductor inspection apparatus

A testing apparatus and a fabricating method of a semiconductor integrated circuit device for reducing the fabrication cost by placing, in the wafer level burn-in, divided contactors in equally contact with the full surface of wafer, enabling repair of each contactor and improving the yield of contactors. The cassette structure of the mechanical pressurizing system in the testing apparatus is structured with a plurality of divided silicon contactor blocks and a guide frame for integrating these blocks and employs the wafer full surface simultaneous contact system of the divided contactor integration type. Each probe of the silicon contactor is equally placed in contact in the predetermined pressure with each test pad of each chip of the test wafer by mechanically pressuring each silicon contactor block which moves individually, the test control signal is supplied to each chip and this test result signal is obtained for the wafer level burn-in test.

Fabrication method of semiconductor integrated circuit device and its testing apparatus

A method of manufacturing a semiconductor device includes forming process of forming a semiconductor element on a semiconductor wafer and testing process of testing electrical performance of the formed semiconductor element. The testing process includes process of electrically connecting a testing apparatus to an electrode pad formed on the semiconductor element to be tested. The testing apparatus has a probe-formed substrate including a plurality of beams having probes to be electrically connected to the electrode pads. The probe-formed substrate has a first beam having at least one probe for electrically connection with the electrode pad and a second beam having a number of probes for electrical connection with the electrode pads of which number is more than the number of the electrode pads electrically connected by said first beam.

Semiconductor device and a manufacturing method thereof

The invention provides a probe structure in which secondary electrodes of a main base material in which probes are formed can be electrically connected to electrodes in a substrate side even when a lot of probes are formed in a large area, so that a lot of LSIs within a wafer can be tested in one lot in a wafer test process, whereby an efficiency of the test process can be improved. In the probe structure, an interposer constituted by a high rigid material is arranged between the main base material having the probes formed therein and the substrate side, and the secondary electrodes of the main base material having the probes formed therein are electrically connected to the electrodes in the substrate side via the interposer.

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Chiyoda, Japan

Ryuji Kohno