Abstract: A flat transmission device includes a belt-shaped unit and a clamp device. The clamp device includes a main clamp member that covers a part of an end of the belt-shaped unit in the width direction including a side edge of the belt-shaped unit on a first side in the width direction, and an auxiliary clamp member that covers a part of the end of the belt-shaped unit in the width direction including a side edge of the belt-shaped unit on a second side in the width direction. The main clamp member and the auxiliary clamp member move relative to each other while partially overlapping with each other in the width direction, thereby cooperatively entirely covering the end of the belt-shaped unit in the width direction.

Abstract: A long object guiding device includes a long tubular member and is configured to guide a long object inserted through the tubular member while protecting, with the tubular member, the long object in correspondence with displacement of the tubular member. The tubular member has a long sheet shape in an unfolded state. A longitudinal direction of the tubular member intersects a width direction. A first joint portion is disposed on one side edge of the tubular member in the width direction to extend in the longitudinal direction. A second joint portion is disposed on an other side edge of the tubular member in the width direction to extend in the longitudinal direction. At least one end of the tubular member, in the longitudinal direction, has a passage portion that allows for passage of an end of the long object.

Abstract: A stacked connector includes a first housing (10A) and a second housing (10B) to be stacked one on the other. The first and second housings (10A, 10B) include deflectable first locking lances (24A) and second locking lances (24B) configured to lock first terminal fittings (60A) and second terminal fittings (60B). The first and second locking lances (24A, 24B) include first base ends (22A) and second bases (22B) exposed in a first facing surface (11A) and a second facing surface (11B). The first and second base ends (22A, 22B) include parts overlapping in a stacking direction of the first and second housings (10A, 10B).

Abstract: A stacked connector includes a first housing (10A) and a second housing (10B) to be stacked one on the other. The first and second housings (10A, 10B) respectively include first detecting portions (17A) and second detecting portions (17B) configured to interfere with incompletely inserted second terminal fittings (60B) and first terminal fittings (60A) on a first facing surface (11A) and a second facing surface (11B). The first housing (10A) is recessed with groove portions (35) formed in an outer side surface opposite to the first facing surface (11A) by cutting a region along a width direction, extending in a depth direction, and open on both ends in the depth direction.

Abstract: A lever-type connector (F) includes a housing (10) having a wire bundle (27) drawn out from a wire draw-out surface (13). Guide grooves (36) formed in arms (31) of a lever (30) and are configured to guide support shafts (26) of the housing (10) to bearing holes (34) of the arms (31) when assembling the lever (30) with the housing (10). Retracted portions (39) are formed in the guide grooves (36) an are configured to allow an operating portion (32) to be displaced away from the wire bundle (27) when assembling the lever (30) with the housing (10).

Abstract: A stacked connector includes a first housing (10A) and a second housing (10B) to be stacked one on the other. The first and second housings (10A, 10B) include deflectable first locking lances (24A) and second locking lances (24B) configured to lock first terminal fittings (60A) and second terminal fittings (60B). The first and second locking lances (24A, 24B) include first base ends (22A) and second bases (22B) exposed in a first facing surface (11A) and a second facing surface (11B). The first and second base ends (22A, 22B) include parts overlapping in a stacking direction of the first and second housings (10A, 10B).

Abstract: A stacked connector includes a first housing (10A) and a second housing (10B) to be stacked one on the other. The first and second housings (10A, 10B) respectively include first detecting portions (17A) and second detecting portions (17B) configured to interfere with incompletely inserted second terminal fittings (60B) and first terminal fittings (60A) on a first facing surface (11A) and a second facing surface (11B). The first housing (10A) is recessed with groove portions (35) formed in an outer side surface opposite to the first facing surface (11A) by cutting a region along a width direction, extending in a depth direction, and open on both ends in the depth direction.

Abstract: A lever-type connector (F) includes a housing (10) formed with support shafts (26) and rotation restricting portions (20F, 20R). A lever (30) includes plate-like arms (31) and is rotatable between an initial position where the lever waits at the start of connection to a mating connector (M) and a connection position where the connection to the mating connector (M) is completed. The lever (30) is mounted by fitting bearing holes (34) of the arms (31) to the support shafts (26). Reverse rotation restricting projections (45) project from surfaces of the arms (31) facing the housing (10) toward the housing (10) and are configured to be locked to the rotation restricting portions (20F, 20R) to restrict rotation of the lever (30) at the initial position toward a side opposite to the connection position.

Abstract: A battery terminal includes a fastening portion (11) that is partially open in a circumferential direction and a flange (42) projects radially out from the fastening portion (11). Two facing portions (14) project radially out from open ends (13) of the fastening portion (11) and face each other in the circumferential direction. The fastening portion (11) is reduced in diameter and fastened to a battery post P by having the facing portions (14) approach each other. The flange (42) of the fastening portion (11) has cuts (20) for partially reducing a thickness of the fastening portion (11) in a radial direction.

Abstract: A lever-type connector (F) includes a housing (10) having a wire bundle (27) drawn out from a wire draw-out surface (13). Guide grooves (36) formed in arms (31) of a lever (30) and are configured to guide support shafts (26) of the housing (10) to bearing holes (34) of the arms (31) when assembling the lever (30) with the housing (10). Retracted portions (39) are formed in the guide grooves (36) an are configured to allow an operating portion (32) to be displaced away from the wire bundle (27) when assembling the lever (30) with the housing (10).

Abstract: A lever-type connector (F) includes a housing (10) formed with support shafts (26) and rotation restricting portions (20F, 20R). A lever (30) includes plate-like arms (31) and is rotatable between an initial position where the lever waits at the start of connection to a mating connector (M) and a connection position where the connection to the mating connector (M) is completed. The lever (30) is mounted by fitting bearing holes (34) of the arms (31) to the support shafts (26). Reverse rotation restricting projections (45) project from surfaces of the arms (31) facing the housing (10) toward the housing (10) and are configured to be locked to the rotation restricting portions (20F, 20R) to restrict rotation of the lever (30) at the initial position toward a side opposite to the connection position.

Abstract: A battery terminal (A) includes a lower member (11) to be fit to a battery post (P) having an axis line extending in a vertical direction while being positioned with respect to the battery post (P) and an upper member (30) arranged above the lower member (11). Two fastening pieces (36) are formed only on the upper member (30) and are deformable to be held in close contact with an outer periphery of the battery post (P). A fastening member (50) is provided for deforming the fastening pieces (36) so that the fastening pieces (36) are held in close contact with the battery post (P).

Abstract: A battery terminal cover (10) for accommodating a battery terminal (30) to be connected to a battery post (42) includes a main body (11) with a first accommodation space (18) for accommodating the battery terminal (30) and an opening (19) for opening the first accommodation space (18) to outside. A lid (21) is displaceable between a closing position for closing the opening (19) and an opening position for opening the opening (19). Hinges (25) project from outer surfaces of the main body (11) and the lid (21) and couple the main body (11) and the lid (21). Projections (26) project from the outer surface of the main body (11) near the hinges (25) and have a projecting dimension equal to or larger than that of the hinges (25).

Abstract: A terminal fitting (10) includes a body (11) in the form of a rectangular tube, a tab (41) of a mating terminal (40) being inserted into the body (11) from the front. A resilient contact piece (22) is accommodated in the body (11). The tab (41) is sandwiched resiliently in a plate thickness direction thereof between the resilient contact piece (22) and a receiving plate (15) of the body (11). Holding portions (30) are formed integrally to the resilient contact piece (22) and capable of holding the tab (41) with a relative displacement of the tab (41) in a width direction with respect to the resilient contact piece (22) restricted by coming into contact with side edges (41S) of the tab (41).

Abstract: A battery terminal (A) includes a terminal main body (10). Left and right fastening pieces (36) are formed on the terminal main body (10) and are deformable to be held in close contact with an outer periphery of a battery post (P). A cam member (51) have left and right pressing surfaces (56) capable of pressing outer side edges of the pair of fastening pieces (36) and are inclined with respect to an axis line of the battery post (P). Fastening members (fastening bolt (58) and nut (61)) vertically displace the cam member (51) with the pressing surfaces (56) held in contact with the outer side edges of the fastening pieces (36). Inclination restricting portions (16) are formed on the terminal main body (10) and restrict lateral inclination of the cam member (51). The cam member (51) is slidable in contact with the inclination restricting portions (16).

Abstract: A terminal fitting (10) includes a body (11) in the form of a rectangular tube, a tab (41) of a mating terminal (40) being inserted into the body (11) from the front. A resilient contact piece (22) is accommodated in the body (11). The tab (41) is sandwiched resiliently in a plate thickness direction thereof between the resilient contact piece (22) and a receiving plate (15) of the body (11). Holding portions (30) are formed integrally to the resilient contact piece (22) and capable of holding the tab (41) with a relative displacement of the tab (41) in a width direction with respect to the resilient contact piece (22) restricted by coming into contact with side edges (41S) of the tab (41).

Abstract: A battery terminal includes a fastening portion (11) that is partially open in a circumferential direction and a flange (42) projects radially out from the fastening portion (11). Two facing portions (14) project radially out from open ends (13) of the fastening portion (11) and face each other in the circumferential direction. The fastening portion (11) is reduced in diameter and fastened to a battery post P by having the facing portions (14) approach each other. The flange (42) of the fastening portion (11) has cuts (20) for partially reducing a thickness of the fastening portion (11) in a radial direction.

Abstract: A battery terminal (A) includes a terminal main body (10). Left and right fastening pieces (36) are formed on the terminal main body (10) and are deformable to be held in close contact with an outer periphery of a battery post (P). A cam member (51) has left and right pressing surfaces (56) capable of pressing outer side edges of the pair of fastening pieces (36) and inclined with respect to an axis line of the battery post (P). A fastener (50) is configured to vertically displace the cam member (51) with the pressing surfaces (56) held in contact with outer side edges of the fastening pieces (36). The fastening piece (36) is formed with an arcuate surface (45) slidable in contact with the pressing surface (56).

Abstract: A battery terminal (A) includes a terminal main body (10). Left and right fastening pieces (36) are formed on the terminal main body (10) and are deformable to be held in close contact with an outer periphery of a battery post (P). A cam member (51) have left and right pressing surfaces (56) capable of pressing outer side edges of the pair of fastening pieces (36) and are inclined with respect to an axis line of the battery post (P). Fastening members (fastening bolt (58) and nut (61)) vertically displace the cam member (51) with the pressing surfaces (56) held in contact with the outer side edges of the fastening pieces (36). Inclination restricting portions (16) are formed on the terminal main body (10) and restrict lateral inclination of the cam member (51). The cam member (51) is slidable in contact with the inclination restricting portions (16).

Abstract: A battery terminal cover (10) for accommodating a battery terminal (30) to be connected to a battery post (42) includes a main body (11) with a first accommodation space (18) for accommodating the battery terminal (30) and an opening (19) for opening the first accommodation space (18) to outside. A lid (21) is displaceable between a closing position for closing the opening (19) and an opening position for opening the opening (19). Hinges (25) project from outer surfaces of the main body (11) and the lid (21) and couple the main body (11) and the lid (21). Projections (26) project from the outer surface of the main body (11) near the hinges (25) and have a projecting dimension equal to or larger than that of the hinges (25).