Abstract: To achieve high speed exchange of electrical signals between a connection device and a tester, a support member is provided for supporting the connection device, a plurality of pointed contact terminals are arrayed in an area on the probing side, a multiplayer film is provided having a plurality of lead out wires electrically connected to the contact terminals and a ground layer enclosing an insulation layer, and a frame is clamped on the rear side of the multiplayer film. A clamping member is provided on the frame to make the multiplayer film project out to eliminate slack in the multiplayer film. A contact pressure means is provided for making the tips of the contact terminals contact each of the electrodes with predetermined contact pressure from the support member to the clamping member.

Abstract: The fabrication of a semiconductor integrated circuit device involves testing using a pushing mechanism that is constructed by forming, over the upper surface of a thin film probe, a reinforcing material having a linear expansion coefficient (thermal expansion coefficient) almost equal to that of a wafer to be tested; forming a groove in the reinforcing material above a contact terminal; placing an elastomer in the groove so that a predetermined amount projects out of the groove; and disposing a pusher and another elastomer to sandwich the pusher between the elastomers. With the use of such a probe, it is possible to improve the throughput of wafer-level electrical testing of a semiconductor integrated circuit.

Abstract: When electrical properties of semiconductor chips of a semiconductor wafer are inspected by bringing plural contact terminals disposed on the principal surface of a probe sheet of a probe cassette constituting a semiconductor inspection apparatus into contact with plural electrodes of the plural semiconductor chips on the principal surface of the semiconductor wafer which is disposed so as to face the principal surface of the probe sheet, the air pressure of the space formed between the facing surfaces of the principal surface of the probe sheet and the principal surface of the semiconductor wafer is reduced so as to suck the semiconductor wafer toward the side of the principal surface of the probe sheet and deform mainly the semiconductor wafer, thereby pressing the plural electrodes of the plural semiconductor chips of the semiconductor wafer against the plural facing contact terminals of the principal surface of the probe sheet.

Abstract: The fabrication of a semiconductor integrated circuit device involves testing using a pushing mechanism that is constructed by forming, over the upper surface of a thin film probe, a reinforcing material having a linear expansion coefficient (thermal expansion coefficient) almost equal to that of a wafer to be tested; forming a groove in the reinforcing material above a contact terminal; placing an elastomer in the groove so that a predetermined amount projects out of the groove; and disposing a pusher and another elastomer to sandwich the pusher between the elastomers. With the use of such a probe, it is possible to improve the throughput of wafer-level electrical testing of a semiconductor integrated circuit.

Abstract: In a prove card comprising: a probe sheet having a contact terminal contacting with an electrode provided on a wafer, a wiring led from the contact terminal, and an electrode electrically connected to the wiring; and a multilayered wiring substrate having an electrode electrically connected to the electrode of the probe sheet, wherein a contact between the contact terminal and the electrode of the wafer is established by one or more adhesion holder for pressing, from the backside of a terminal group of the terminal contacts, the terminal group via a press block with a spring to contact with the electrode pad. A device in which the probe sheet is attached to the adhesion holder and a plurality of chips are tested simultaneously by combining the adhesion holder.

Abstract: 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.

Abstract: A probe card, and a probe sheet used for the method of testing (producing) a semiconductor device using the probe card, include first contact terminals in electrical contact with the electrodes of a test object formed at a narrow pitch, wires connected with and led from the first contact terminals, and second contact terminals in electrical contact with the wires. The first and second contact terminals are formed using the etching holes of a crystalline member and lined with a metal sheet.

Abstract: When electrical properties of semiconductor chips of a semiconductor wafer are inspected by bringing plural contact terminals disposed on the principal surface of a probe sheet of a probe cassette constituting a semiconductor inspection apparatus into contact with plural electrodes of the plural semiconductor chips on the principal surface of the semiconductor wafer which is disposed so as to face the principal surface of the probe sheet, the air pressure of the space formed between the facing surfaces of the principal surface of the probe sheet and the principal surface of the semiconductor wafer is reduced so as to suck the semiconductor wafer toward the side of the principal surface of the probe sheet and deform mainly the semiconductor wafer, thereby pressing the plural electrodes of the plural semiconductor chips of the semiconductor wafer against the plural facing contact terminals of the principal surface of the probe sheet.

Abstract: A probe card has first contact terminals electrically connected to the fine-pitch electrodes of a test target; wirings drawn from the first contact terminals; and second contact terminals electrically connected to the wirings, wherein the first contact terminals are formed each using an anisotropically etched hole in a crystalline substrate, and a semiconductor device test method (fabrication method) using the probe card.

Abstract: In the highly accurate thin film probe sheet which is used for the contact to electrode pads disposed in high density with narrow pitches resulting from the increase in integration degree of semiconductor chips and for the inspection of semiconductor chips, a large spatial region in which a metal film selectively removable relative to terminal metal is formed in advance is formed in the peripheral region around minute contact terminals having sharp tips and disposed in high density with narrow pitches equivalent to those of the electrode pads. Thus, occurrence of damage in an inspection process is significantly reduced, and an inspection device simultaneously achieving the miniaturization and the durability can be provided.

Abstract: A probing device for electrically contacting with a plurality of electrodes 3, 6 aligned on an object 1 to be tested so as to transfer electrical signal therewith, comprising: a wiring sheet being formed by aligning a plurality of contact electrodes 21, 110b, corresponding to each of said electrodes, each being planted with projecting probes 20, 110a covered with hard metal films on basis of a conductor thin film 41 formed on one surface of an insulator sheet 22 of a polyimide film by etching thereof, while extension wiring 23, 110c for electrically connecting to said each of said contact electrodes being formed on basis of a conductor thin film formed on either said one surface or the other surface opposing thereto of said insulator sheet of the polyimide film; and means for giving contacting pressure for obtaining electrical conduction between said extension wiring and said object to be tested by contacting tips of said projecting contact probe formed onto said each contact electrode through giving pressuri

Abstract: To achieve high speed exchange of electrical signals between a connection device and a tester, a support member is provided for supporting the connection device, a plurality of pointed contact terminals are arrayed in an area on the probing side, a multiplayer film is provided having a plurality of lead out wires electrically connected to the contact terminals and a ground layer enclosing an insulation layer, and a frame is clamped on the rear side of the multiplayer film. A clamping member is provided on the frame to make the multiplayer film project out to eliminate slack in the multiplayer film. A contact pressure means is provided for making the tips of the contact terminals contact each of the electrodes with predetermined contact pressure from the support member to the clamping member.

Abstract: Provided is a fabrication method of a semiconductor integrated circuit device which comprises forming a pushing mechanism by forming, over the upper surface of a thin film probe, a reinforcing material having a linear expansion coefficient (thermal expansion coefficient) almost equal to that of a wafer to be tested; forming a groove in the reinforcing material above a contact terminal, placing an elastomer in the groove so that a predetermined amount exceeds the groove, and disposing a pusher and another elastomer to sandwich the pusher between the elastomers. The present invention makes it possible to improve the throughput of wafer-level electrical testing of a semiconductor integrated circuit.

Abstract: To achieve high speed exchange of electrical signals between a connection device and a tester, a support member is provided for supporting the connection device, a plurality of pointed contact terminals are arrayed in an area on the probing side, a multiplayer film is provided having a plurality of lead out wires electrically connected to the contact terminals and a ground layer enclosing an insulation layer, and a frame is clamped on the rear side of the multiplayer film. A clamping member is provided on the frame to make the multiplayer film project out to eliminate slack in the multiplayer film. A contact pressure means is provided for making the tips of the contact terminals contact each of the electrodes with predetermined contact pressure from the support member to the clamping member.

Abstract: A probe card has first contact terminals electrically connected to the fine-pitch electrodes of a test target; wirings drawn from the first contact terminals; and second contact terminals electrically connected to the wirings, wherein the first contact terminals are formed each using an anisotropically etched hole in a crystalline substrate, and a semiconductor device test method (fabrication method) using the probe card.

Abstract: 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.

Abstract: A probing device for electrically contacting a plurality of electrodes aligned on an object to be tested so as to transfer electrical signal therewith. The probing device includes a wiring sheet formed by aligning a plurality of contact electrodes, corresponding to each of the electrodes on the object to be tested. Each of the contact electrodes is formed with a plurality of projecting probes on one surface of an insulator sheet with extension wiring electrically connected to each of the contact electrodes being formed on basis of a conductor thin film formed on either the one surface or an opposite surface the insulator sheet. Means also are provided for applying contacting pressure to the wiring sheet to obtain electrical conduction between the extension wiring and the object to be tested whereby contacting tips of the projecting contact probes formed on each of the contact electrodes contact and form an electrical connection with an electrode on the object to be tested.

Abstract: 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.

Abstract: 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.

Abstract: A probing device for electrically contacting with a plurality of electrodes 3, 6 aligned on an object 1 to be tested so as to transfer electrical signal therewith, comprising: a wiring sheet being formed by aligning a plurality of contact electrodes 21, 110b, corresponding to each of said electrodes, each being planted with projecting probes 20, 110a covered with hard metal films on basis of a conductor thin film 41 formed on one surface of an insulator sheet 22 of a polyimide film by etching thereof, while extension wiring 23, 110c for electrically connecting to said each of said contact electrodes being formed on basis of a conductor thin film formed on either said one surface or the other surface opposing thereto of said insulator sheet of the polyimide film; and means for giving contacting pressure for obtaining electrical conduction between said extension wiring and said object to be tested by contacting tips of said projecting contact probe formed onto said each contact electrode through giving pressuri