Abstract: A battery-side terminal (2) includes a fastening ring (5) to be fixed to a battery post (1), and a connecting piece (8) extends from the fastening ring (5). A current sensor (4) includes a sensor portion (4A) formed with a slit (14) through which the connecting piece (8) is insertable. The battery-side terminal (2) and the current (4) are transported to a connection site while being assembled into one unit. At the connection site, the connecting piece (8) and the harness-side terminal (3) are aligned and placed one over the other, and are tightened by means of a bolt. This tightening operation is performed at a position distanced from a battery, and hence can be performed smoothly performed without being hindered.

Abstract: A terminal unit (TU) includes a battery terminal (2) mounted at the leading end of a wiring harness (4), and a holder (8) mounted on the wiring harness (4) at a position distanced from the battery terminal (2). A current sensor (12) is transported separately from the terminal unit (TU) to a connection site to a battery (B). The battery terminal (2) is introduced through the current sensor (12) and the current sensor (12) then is coupled with the holder (8) at the connection site. This operation is performed at a position distanced from the battery (B), and hence can be performed smoothly without being hindered.

Abstract: The present invention aims to prevent forcing of pins when a female connector is obliquely inserted into a shunt.

Abstract: A plurality of steps respectively constituted by inner housings (19) are incorporated into an outer housing (18) of a female connector (12). Moreover, a pushing operation force transmitting member (20) is incorporated thereinto. The engaging relation of this pushing operation force transmitting member (20) to each of the inner housings is changed every time this member is externally operated. Thus, a pushing operation force applied to the outer housing (18) is transmitted to the inner housings (19) sequentially. Consequently, the outer housing (18) and the pushing operation force transmitting member (20) are alternately pushed. Thus, the plurality of steps respectively constituted by the inner housings (19) are sequentially connected to a male connector (12).

Abstract: A connector housing (1) of a connector (1) is constituted by a lower housing (7), which is mounted on a printed circuit board (2), and an upper housing (8) connected to the lower housing (7) in such a manner as to be able to perform shifting movement with respect the housing (7). Further, terminals (6) are provided in such a way as to penetrate through a partitioning wall portion (8a) of the upper housing (8) and through a connecting block portion (7b) of the lower housing (7). At that time, tapered holes (7d) are provided in the connecting block portion (7b). The terminals (6) are maintained in a state in which a bending deformation thereof caused by the shifting movement of the upper housing (8) is allowed. Consequently, when the connector (1) is connected to the mating connector (3), the connectors (1, 3) can be connected to each other by performing the shifting movement of the upper housing (8) thereby to concurrently absorb the positional displacement therebetween.

Abstract: A connector housing (6) of the connector device (1) is composed of an outer housing (9) to be mounted onto a printed circuit board (2) by screwing, and an inner housing (8) connected to the outer housing (9) so as to be movable in the right and left direction with respect to the outer housing (9). Into the inner housing (8), there is incorporated a terminal (7) including a connecting portion (7a) to be connected by a terminal (5) of a mating connector device (3), a spring portion (7c), and a switch contact (7b) respectively formed integral with the terminal (7). On the printed circuit board (2), there is disposed an electrode (2a) with which the switch contact (7b) can be elastically contacted. Thanks to this structure, by switchingly moving the inner housing (8) in the right and left direction, circuit switching can be achieved.

Abstract: When the holder 20 is assembled to the male side housing 10 (stationary side housing), the cam grooves 23a, 23b respectively engage with the cam pins 41a, 41b, so that the female side housing 40 (movable side housing) is displaced in a direction perpendicular to the assembling direction and located at the connecting position, so that both the terminal metal fittings 18, 50 are connected with each other. At this time, due to the friction caused between the terminal metal fittings 18, 50, a force resisting displacement of the female side housing 40 and also resisting assembly of the holder 20 is generated. However, a cam action is exerted by the cam grooves 23a, 23b which are oblique with respect to the assembling direction. Therefore, an intensity of the operation force to be given to the holder 20 in the assembling direction is low. When the above structure is adopted, it is unnecessary to provide a manual operation member which is independent as an assembly force reducing means.

Abstract: A lever 22 is pivotally mounted on bosses 29 formed on a connector 21, and the connector 21 is fitted into a mating connector 23 by pivotally moving the lever 22 about the bosses 29. The connector 21 is formed by a plurality of division connectors 24, 25 and 26, and a plurality of kinds of division connectors may be substituted for the division connectors 25 and 26. Therefore, a plurality of kinds of connectors 21, having the same length, can be formed. Any of the plurality of kinds of connectors 21 can be fitted into the mating connector 23 by one lever 22, and the lever 22 can be of the common use-type.

Abstract: An adapter has a cylindrical body which is screwed onto a battery post, and a flange portion formed on a top portion of the cylindrical body to be clamped by a screwing tool. A terminal body includes a substantially U-shaped adaptor fitting portion which accommodates the adapter therein, and a seat portion on which an electric wire terminal is fixed. A lever includes a cam portion and is supported on the terminal body so as to be pivotable between a first position and a second position. A space in which the flange portion is capable of passing through is secured inside of the adaptor fitting portion when the lever is in the first position. The cam portion is abutted against an outer periphery of the cylindrical body of the adaptor so that the adaptor is retained between the cam portion and an inner face of the adaptor fitting portion, when the lever is in the second position. The flange portion of the adaptor is engaged with a top end face of the adapter fitting portion of the terminal body.

Abstract: A connector body 30 to be fixed to a motor case 51 is formed of an aluminum die cast, and is provided, on one of side surfaces thereof, with a cylindrical housing portion 31 for inserting a terminal of a motor cable 10 to be a shielding electric wire. A double enveloping contact 33 is fitted in the housing portion 31 and an eye-ball shaped fixing portion 37 protruded from a front edge thereof is fixed, with a bolt 40, to a fixing base 45 provided integrally on the direct inside of the housing portion 31. A terminal fixture 15 of the terminal of the motor cable 10 is inserted from the housing portion 31 into the connector body 30, and is connected to the other bus bar 50, and a shield shell 21 fitted and attached into a terminal of a shield layer 13 elastically comes in contact with the inner periphery of the contact 33. A reliable electrical connection is obtained between the contact 33 and the housing portion 31 so that a shield function can be displayed effectively.

Abstract: A connector has a housing (2) with cavities (4) for accommodating both crimping and insulation-displacement terminal fittings (5, 6). Locks (15) extend into the cavities (4) to elastically engage the terminal fittings (5, 6). A retainer mount opening (17) extends through an outer wall of the housing (2) and communicates with the cavities (4), and a retainer (3) is mounted in the opening (17) for doubly locking the terminal fittings (5, 6). Connecting portions (8) of the same shape are provided at the front of the terminal fittings (5, 6). The height of insulation-displacement portions (7) is shorter than that of the connecting portion (8) in the insulation-displacement terminal fitting (5), and terminal locks (18) of the retainer (3) engage with steps (8A) at the rear of the connecting portions (8). The retainer (3) can be pushed to a full locking position after the terminal fittings (5, 6) are mounted with the housing (2) to redundantly lock the terminal fittings (5, 6) in the cavities (4).

Abstract: A battery (B) includes electrodes (11a, 11b) and engaging portions (10a, 10b) formed by recessing portions of the battery (B) around the electrodes (11a, 11b), and recesses (14a, 14b, 23a, 23b) are formed in side surfaces of the engaging portions (10a, 10b). The recesses (14a, 14b, 23a, 23b) are symmetrically arranged in the left and right engaging portions (10a, 10b). Transversely symmetrical identification pieces (19a, 19b) project from the leading ends of terminals (15a, 15b). In the case of a correct correspondence of the electrodes (11a, 11b) and the terminals (15a, 15b), the identification pieces (19a, 19b) fit into the recesses (14a, 14b, 23a, 23b), enabling assembling of the terminals (15a, 15b) with the electrodes (11a, 11b). In the case of an incorrect correspondence, the identification pieces (19a, 19b) cannot be fitted into the recesses (14a, 14b, 23a, 23b) and interfere with the upper surface of the battery (B), making assembling impossible.

Abstract: A terminal cap (10) is provided to prevent erroneous use of a booster cable to connect batteries that have different specifications. The terminal cap (10) is mounted to cover a battery terminal (T) to be connected with one of electrodes of a 32 V-battery. The terminal cap (10) has protection walls (20) that extend from a first accommodating portion (11a) for accommodating a connecting portion (7) of the battery terminal (T). The protection walls (20) are formed to be higher than a threaded shaft (1) of the electrode. Thus, even if an attempt is made to erroneously connect a booster cable, the protection walls (20) will interfere with the booster cable and prevent connection with the electrode located inside the protection walls (20).

Abstract: A projection (9) is provided in a male connector (1). A lever (16) is rotatably provided in a female connector (2). The lever (16) has a curved groove (18) . When the lever (16) is turned, the projection (9) is inserted into the groove (18). As the projection (9) is inserted into this groove (18), the connection between the male connector (1) and the female connector (2) is strengthened. At that time, the lever (16) provides leverage. Moreover, the distance between the fulcrum for this lever and a point of action gradually decreases. Furthermore, in this case, the groove (18) is formed in such a way as to extend to the turning center portion of the lever (16), so that the distance between the fulcrum for the lever and the point of action is reduced still more. Consequently, a larger connecting force can be provided thereto.

Abstract: A lever 22 is pivotally supported on a male connector 21 through bosses 27, and an engagement projection 30 is formed on a lower portion of a front end portion of each side wall 28 of the lever 22, and a side projection 31, which is disposed beneath the boss 27 in an initial fitting condition, is formed on each side wall 28. Guide step grooves 37 for respectively guiding the side projections 31 are formed in an inner face 32A of a hood portion 32 of the female connector 23. A first step portion 37A and a second step portion 37B are formed intermediate opposite ends of the guide step groove 37. When the side projection 31 abut respectively against the side projections 31, the engagement projections can be engaged respectively in engagement grooves 35. Therefore, the lever 22 is provisionally retained by the second step portions 37B, and in this condition the lever 22 is pivotally moved so as to positively engage the engagement projections 30 respectively in the engagement grooves 35.

Abstract: Steam or high-temperature gas containing steam flows through a gas-flow drying pipe. Tobacco is fed from a feed port into the high-temperature gas flowing through the gas-flow drying pipe, and heated and expanded while it flows together with the gas. Steam or water is injected into the high-temperature gas flow from injection nozzles at the positions downstream from the feed port to change the gas temperature. Thereby, the heat quantity given to the tobacco from the high-temperature gas is controlled to prevent the tobacco quality from degrading.

Abstract: Moist pellet feed for breeding fish comprising (A) not less than 50 parts by weight of a raw feed, (B) not more than 50 parts by weight of a powdery mixed feed, and (C) a sodium carboxymethyl cellulose which has free carboxylic acid groups in the molecule and which, as a 1% aqueous solution at 25.degree. C., has a viscosity of not less than 1000 cps, wherein an equivalent ratio of free carboxylic acid groups to sodium carboxylate groups in said sodium carboxymethyl cellulose is preferably from 0.005:1 to 0.02:1, and the amount of said component (C) is from 0.5 to 10% by weight based on the total amount of said components (A) and (B). By using the specific binding agent, the moist pellet feed has a proper hardness and little to not stickiness.