Abstract: An IC card includes a frame with a rectangular border open on one side, a printed circuit board equipping an electronic component, a plate-shaped connector, and one pair of conductive shell plates. The connector constitutes one side of the frame. The one pair of shell plates covers both faces of the frame and the connector. The connector has a housing, a plurality of male contacts arranged in parallel in the interior of the housing, and a short circuit terminal. The male contacts are such that one end portion is a connecting portion to an external terminal and another end portion is connected to the printed circuit board. The short circuit terminals are mounted on the housing such that one end portion is in contact with a predetermined male contact among the plurality of male contacts and another end portion is in contact with an inner wall of a shell plate.

Abstract: A card connector includes a housing inserted a card therein, a slider, a rotating cam member having a shaft portion that is retained so as to be rotatable by the slider, and a compression coil spring that biases the rotating cam member. The slider includes second chevron teeth that engage with first chevron teeth provided at an end of the rotating cam member. The rotating cam member is provided with a first broad protrusion and a second narrow protrusion alternately at an outer circumference of the shaft portion. When inserting the card, since the rotating cam member turns by a predetermined angle so that the first protrusion faces the starting end of the passage groove, the slider is locked. When pushing the card again, since the rotating cam member turns by a predetermined angle, the second protrusion faces the starting end of the passage groove, the card can be ejected.

Abstract: The present invention provides a card connector that can be loaded on a double-sided printed circuit board and allows intergration of components using common components. A first and a second housing 1, 2 have a pair of cranked hook-shaped projections 17. A first and a second covering plate 5, 6 have a cranked hook-shaped opening 57. The first covering plate 5 can be joined to the second housing 2 by reversing in a left-right direction the first covering plate 5. The second covering plate 6 can be joined to the first housing 1 by reversing in a left-right direction the second covering plate 6. The first and the second housings 1, 2, and the first and the second covering plates 5, 6 can be used as common parts, respectively.

Abstract: A sticking apparatus includes a sticking table 21 for supporting a semiconductor wafer W and a sticking unit 24 that peels off an adhesive sheet S1 from a release liner PS and sticks the adhesive sheet to the semiconductor wafer W. The sticking unit 24 has a detector 60. The detector 60 is disposed above a feed-out path of a raw strip sheet L for detecting a displacement amount S of the adhesive sheet S1 in the lateral direction perpendicular to the feed-out direction thereof. When the displacement amount S is detected, a displacement correction device 51 is activated and the sticking table 21 is moved by a distance corresponding to the displacement amount S, thereby the adhesive sheet S1 can be stuck onto the semiconductor wafer W in accordance with the outer shape thereof. The adhesive sheet S1 is stuck onto the wafer W by a sticking roll 61, which is brought into a contact with the release liner PS to impart a pressing force thereto.

Abstract: There is provided a sheet peeling apparatus and a peeling method using a plurality of peeling units. A sheet peeling apparatus for peeling off a sheet stuck on the surface of a semiconductor wafer by using an adhesive tape of a width narrower than that of the sheet, which is equipped with a peeling head for peeling off the sheet by pulling the adhesive tape in an obtuse angled direction in a state stuck to the end portion of the sheet; and first and second rollers for peeling off the sheet by pulling the adhesive tape in the substantially right angle or acute angle direction in a state stuck with the adhesive tape in the direction across the sheet. Either of the peeling units are selectively used in accordance with the type of the sheet.

Abstract: A sticking apparatus 10 includes a sticking table 11 supporting a semiconductor wafer W and a sticking unit 12 sticking a heat sensitive adhesive sheet S to the semiconductor wafer W. The sticking unit 12 includes a peeling section that, when paying out a raw sheet L having adhesive sheet S laminated to one side face of a release liner PS, peels off the release liner PS and the adhesive sheet S and a sheet preliminary peeling unit 40 provided at an upstream side of the peeling section in a pay-out direction of the raw sheet. The sheet preliminary peeling unit 40 includes a moving member 50 that moves to and from in a state of being pinched between the release liner PS and the adhesive sheet S. The preliminarily peeled-off release liner PS and adhesive sheet S are temporarily re-bonded by a temporary re-bonding unit 41, enabling to stick the adhesive sheet S on the wafer W.

Abstract: The electronic card of the present invention enables prevention of failure of an electronic circuit incorporated in the electronic card by establishing an electrostatic shielding unit. A connector has a plurality of contacts and a housing. A container case has a side facing a face of one side of the substrate on which an electronic circuit is imprinted, and a first shell and a second shell of electrically conductive material positioned on a side facing the face of the other side of the substrate, respectively. An opening is established on a front end section relating to insertion and removal of the connector in a housing, and is held in a state in which contacts are exposed internally. An electrostatic shielding unit is of electrically conductive material that is electrically connected to the container case, and is positioned in an exposed state on a surface of the above-mentioned front end section.

Abstract: There is provided a sheet peeling apparatus and a peeling method using a plurality of peeling units capable of performing peeling off operation under optimum condition in accordance with the material, thickness or the like of a protective sheet. A sheet peeling apparatus 10 for peeling off a sheet S stuck on the surface of a semiconductor wafer W by using an adhesive tape T of a width narrower than that of the sheet S, which is equipped with a peeling head 15 (second peeling unit) for peeling off the sheet S by pulling the adhesive tape T in an obtuse angled direction in a state stuck to the end portion of the sheet; and first and second rollers 21, 22 (first peeling unit) for peeling off the sheet S by pulling the adhesive tape T in the substantially right angle or acute angle direction in a state stuck with the adhesive tape T in the direction across the sheet S. Either one of the peeling units are selectively used in accordance with the type of the sheet S.

Abstract: A sheet peeling apparatus 50 which, after sticking a web material LS laminated with heat sensitive adhesive type adhesive sheet S on a release liner PS to a semiconductor wafer W, cuts the web material along the periphery of a semiconductor wafer and peels off a release liner PS portion positioned on the semiconductor wafer and a web material portion S1 positioned at the periphery side around the semiconductor wafer. The apparatus is equipped with a roll 135 capable of performing a relative movement with respect to the table 47 supporting the wafer W, and is arranged to stick a peeling tape ST to the web material LS with the roll, and then winds to peel off the tape; thus, only the adhesive sheet S is left on the wafer W.

Abstract: A peeling apparatus 10 includes a peeling table 11 supporting a wafer W on which a sheet S is stuck and a sheet peeling unit 12 disposed above the peeling table 11, in which sheet S can be peeled off with relative movement of the sheet peeling unit 12 and the peeling table 11. The peeling apparatus 10 includes a support roll 20 of peeling tape PT, first and second rolls 30, 31 bonding the peeling tape PT to the sheet S surface, and a winding roll 21 of the peeling tape PT. Peeling-off is performed in a state of forming an initial peeling angle a1 such that a peeling tape PT is folded in an aperture C formed between the second roll 31 and the sheet S, and afterwards the sheet S is peeled off at subsequent peeling angle a2 corresponding to a diameter of the second roll 31.

Abstract: A sticking apparatus 10 includes a sticking table 11 supporting a semiconductor wafer W and a Sticking unit 12 sticking a heat sensitive adhesive sheet S to the semiconductor wafer W. The sticking unit 12 includes a peeling section that, when paying out a raw sheet L having adhesive sheet S laminated to one side face of a release liner PS, peels off the release liner PS and the adhesive sheet S and a sheet preliminary peeling unit 40 provided at an upstream side of the peeling section in a pay-out direction of the raw sheet. The sheet preliminary peeling unit 40 includes a moving member 50 that moves to and from in a state of being pinched between the release liner PS and the adhesive sheet S. The preliminarily peeled-off release liner PS and adhesive sheet S are temporarily re-bonded by a temporary re-bonding unit 41, enabling to stick the adhesive sheet S on the wafer W.

Abstract: A wafer W is supported on the rear surface side thereof by a ring frame R by means of a dicing tape T, and a protection tape H is stuck on the front surface side the wafer W. A suction unit 12 includes a table 16 having a suction face 15 in the upper face. The suction face 15 sucks the dicing tape T to hold the wafer W through performing a predetermined suction. At least in a partial area along the periphery of the suction face 15, a groove 24 is formed. By sucking through the suction face 15, the inside of the groove 24 becomes negative pressure and the dicing tape T is sunk therein.

Abstract: There is provided a mounting apparatus capable of forming dicing tapes in the process of feeding-out a strip material, and sticking the dicing tape to a ring frame to fix a semiconductor wafer. The mounting apparatus 10 sticks the dicing tape to the ring frame RF to fix the semiconductor wafer to the ring frame in a state that the ring frame RF and the semiconductor wafer W are disposed on a table 11. The mounting apparatus 10 includes a pre-cut means 13 for forming a cut L in a state of half cut in a film FL of a strip material A to form a dicing tape T in the process of feeding out the strip material A and a sticking means 34 for peeling off the dicing tape from a base sheet S to stick the dicing tape to the ring frame RF.

Abstract: Chips C which have already been diced are attached to a ring frame F using an adhesive sheet, and a protective sheet S1 is attached to a circuit pattern surface of the chips C. The chips C, along with a ring frame F, are held in place on a table 27 of a protective sheet peeling apparatus 20. A supply portion for an adhesive tape T is disposed in the vicinity of a table 24, and the supplied adhesive tape T is attached to the protective sheet S1. When the protective sheet S1 is peeled from the circuit pattern surface, peeling starts from corner portions of the chips C or opposing corner positions by pulling the adhesive tape T.

Abstract: Chips C which have already been diced are attached to a ring frame F using an adhesive sheet, and a protective sheet S1 is attached to a circuit pattern surface of the chips C. The chips C, along with a ring frame F, are held in place on a table 27 of a protective sheet peeling apparatus 20. A supply portion for an adhesive tape T is disposed in the vicinity of a table 24, and the supplied adhesive tape T is attached to the protective sheet S1. When the protective sheet S1 is peeled from the circuit pattern surface, peeling starts from corner portions of the chips C or opposing corner positions by pulling the adhesive tape T.

Abstract: A die bonding sheet sticking apparatus and a method of sticking a die bonding sheet which, in the production of small electronic components, for example, semiconductor chips, effect sticking to a back surface of wafer a die bonding sheet capable of functioning not only as a protective tape at the time of dicing but also as an adhesive for die bonding at the time of die bonding of semiconductor chips after dicing onto a lead frame.

Abstract: Chips C which have already been diced are attached to a ring frame F using an adhesive sheet, and a protective sheet S1 is attached to a circuit pattern surface of the chips C. The chips C, along with a ring frame F, are held in place on a table 27 of a protective sheet peeling apparatus 20. A supply portion for an adhesive tape T is disposed in the vicinity of a table 24, and the supplied adhesive tape T is attached to the protective sheet S1. When the protective sheet S1 is peeled from the circuit pattern surface, peeling starts from corner portions of the chips C or opposing corner positions by pulling the adhesive tape T.

Abstract: A protecting sheet applied to a wafer is removed by using an adhesive tape with a prescribed length, by bonding the adhesive tape to an edge portion of the protecting sheet and then pulling the adhesive tape. During pulling, a guide roller is held in contact with the protecting sheet and, while the guide roller is held in a fixed position, a peeling head portion and a table are moved in the opposite direction with each other to thereby remove the protecting sheet.

Abstract: A wafer transfer apparatus comprising a first ultraviolet irradiation unit capable of irradiating and exposing ultraviolet light to a protective tape; a positioning unit capable of effecting positioning of a wafer; a mount unit capable of uniting the wafer with a ring frame; a protective tape peeling unit capable of peeling a protective tape from the wafer surface; and a second ultraviolet irradiation unit capable of irradiating and exposing ultraviolet light to a dicing tape. The provided wafer transfer apparatus is one of enhanced general applicability which can be applied to not only the conventional postdicing processing but also a predicing processing, and which, irrespective of the types of employed protective tape and dicing tape, can continuously and automatically transfer the wafer having the protective tape stuck thereto to the dicing tape and the ring frame and further peel the protective tape from the wafer surface.

Abstract: Chips C which have already been diced are attached to a ring frame F using an adhesive sheet, and a protective sheet S1 is attached to a circuit pattern surface of the chips C. The chips C, along with a ring frame F, are held in place on a table 27 of a protective sheet peeling apparatus 20. A supply portion for an adhesive tape T is disposed in the vicinity of a table 24, and the supplied adhesive tape T is attached to the protective sheet S1. When the protective sheet S1 is peeled from the circuit pattern surface, peeling starts from corner portions of the chips C or opposing corner positions by pulling the adhesive tape T.