Abstract: A riveting apparatus has a support die with a support surface. The support surface supports a rivet that extends through a circuit board and an electrical connector. The support surface has a first inclined surface, a second inclined surface, and a depression positioned therebetween. The depression receives a head of the rivet and positionally aligns the rivet with an upper tool unit as the rivet is guided across the first inclined surface toward the second inclined surface. The upper tool unit fastens the rivet to the circuit board.

Abstract: A riveting apparatus having a support die with a support surface. The support surface supports a rivet that extends through a circuit board and an electrical connector. The support surface has a first inclined surface, a second inclined surface, and a depression positioned therebetween. The depression receives a head of the rivet and positionally aligns the rivet with an upper tool unit as the rivet is guided across the first inclined surface toward the second inclined surface. The upper tool unit fastens the rivet to the circuit board.

Abstract: A rivet coupling device 1 has a connector holder unit 250 which carries connectors 200 and a board 50. A supporting die 150 is disposed beneath the connectors 200, and an upper tool unit 92 is disposed above the connectors 200. The upper tool unit 92 can be lowered in order to couple rivets 220. In conjunction with this movement, a link mechanism 30 is actuated to move a cam plate 80, whereby the supporting die 150 is raised slightly by cam projections 148, so that the rivets 220 extending through the connector 200 are deformed between crimpers 134 on the upper tool unit 92 and the supporting die 150. Prior to rivet coupling, a slight gap is formed by the spring terminals between the board 50 and the connector 200. After rivet coupling is performed, this gap is eliminated without deforming the board 50.

Abstract: A method of manufacturing a transparent conductive film is provided, which is capable of obtaining a transparent conductive film having both reduced specific resistance and reduced film compressive stress, and a transparent conductive film manufactured by the same method is also provided. The temperature of a substrate placed in opposed relation to an anode is set to not more than 130° C. A plasma beam is generated by discharge plasma generating means constituting a cathode and guided to the anode such that an evaporation material received in the anode evaporates and particles of the evaporated materials are ionized, to thereby form the transparent conductive film on a surface of the substrate. The transparent conductive film thus formed is subjected to a heat treatment at a temperature of not less than 180° C. The resulting transparent conductive film has a specific resistivity of 230 &mgr;&OHgr;·cm or less and a film compressive stress of 0.35 GPa or less.

Abstract: The template (90) comprises a comb member (91) formed with guide grooves (91a) for guiding two of the plurality of electrical wires in the direction of movement, comb member (92) formed with guide grooves to guide three electrical wires to the predetermined direction, a comb member (93) to shift two electrical wires by one pitch thereof, a comb member (94) to shift three electrical wires by one pitch thereof, spacers (95), (96) disposed at both sides of the comb member (94), spacers (97, 98) disposed at both sides of the comb member (93), and a substrate (100) to arrange and hold the above comb members and the spacers.

Abstract: Simultaneous attaching of wires (13) through the pressure-connecting method to a number of electrical connectors (11) arranged in a row, makes it possible to process a larger number of electrical connectors at one time. A position-determining device (55) is provided for each electrical connector (11) which makes it possible to determine the position of each pressure-type contact of said electrical connectors (11) arranged in a row. The positioning determining device (55) is used to align a plurality of the electrical connectors (11) so that tolerance differences are not cumulative. FIG. 12.

Abstract: An apparatus (11) for stripping cable (12) to remove a section of cable jacket (13) includes opposed stripping blades (15) each having a pair of adjacent blade sections (18) including semi-circular cutting edges (19) defined by grooves (20) operable to cut the jacket (13) peripherally with the adjacent blade sections (18) driven axially apart in a relative sense to pull the cut section of the jacket away from the cable. Pairs of guide and gripping members (16) having internesting teeth (23, 24) are positioned adjacent the blade sections (18) to grip the cable (12) and provide a support for the cable. A suction device (17) is displaced axially to receive the cut jacket section and remove such from the stripping site.

Abstract: A tool for stripping outer and inner jackets from an end of a transmission cable comprises upper and lower guide members (18, 19) normally spaced from each other defining an opening (23) therebetween and having first and second guide means (24, 26), cutting blade means (17a, 17b) mounted on the guide members and having first and second cutting sections (17c, 17d; 17e, 17f) aligned respectively with the first and second guide means (24, 26), a support surface (25) on one of the guide members (19) and a cutting member (20b) on the other guide member (18) in alignment with the support surface (25), operating means (11, 11a, 28) connected to the guide members (18, 19) to move them toward and away from each other when the cable is placed in the first guide means (24) so that the first cutting section (17c, 17d) cuts and strips an end of the outer jacket from the cable, then exposed fused ends of the inner jackets are placed on the support surface (25) so that the cutting member (20b) slits the fused inner jackets