Abstract: A transducer for measuring normal force of a compliant pin includes a fixture having a base. A supporting beam extends from the base. A sensing beam is positioned proximate to the sensing beam and supported at at least one end thereof. The fixture has a slot positioned between the supporting beam and the sensing beam and configured to receive the compliant pin. A strain gauge array is provided on the sensing beam for sensing strain of the sensing beam. The strain of the sensing beam corresponds to normal force imparted on the sensing beam by the compliant pin. The sensing beam is configured to be deformed when the compliant pin is loaded into the slot and the deformation corresponds to strain of the sensing beam configured to be sensed by the strain gauge array.

Abstract: A transducer for measuring normal force of a compliant pin includes a fixture having a base. A supporting beam extends from the base. A sensing beam is positioned proximate to the sensing beam and supported at at least one end thereof. The fixture has a slot positioned between the supporting beam and the sensing beam and configured to receive the compliant pin. A strain gauge array is provided on the sensing beam for sensing strain of the sensing beam. The strain of the sensing beam corresponds to normal force imparted on the sensing beam by the compliant pin. The sensing beam is configured to be deformed when the compliant pin is loaded into the slot and the deformation corresponds to strain of the sensing beam configured to be sensed by the strain gauge array.

Abstract: An LCD counter assembly including a housing that houses an LCD display at a first end and a printed circuit board (PCB) assembly at a second end opposite the first end. A diffuser is intermediate the PCB assembly and the LCD display, the LCD display and the PCB assembly in electrical contact with a connector that provides electrical signals from the PCB assembly to the LCD. The first end of the housing includes an aperture through which the LCD display is readily visible to an observer. The PCB assembly may include a backlight to improve the visibility of the LCD display. The PCB assembly further includes a PCB having a printed circuit and a plurality of pads, a single piece, double beam, activation and trigger switch combination assembled to the board, the board configured to receive the double beam activation and trigger switch combination and a removable tab to separate the activation switch in the double beam combination from one of the plurality of pads.

Abstract: An LCD counter assembly including a housing that houses an LCD display at a first end and a printed circuit board (PCB) assembly at a second end opposite the first end. A diffuser is intermediate the PCB assembly and the LCD display, the LCD display and the PCB assembly in electrical contact with a connector that provides electrical signals from the PCB assembly to the LCD. The first end of the housing includes an aperture through which the LCD display is readily visible to an observer. The PCB assembly may include a backlight to improve the visibility of the LCD display. The PCB assembly further includes a PCB having a printed circuit and a plurality of pads, a single piece, double beam, activation and trigger switch combination assembled to the board, the board configured to receive the double beam activation and trigger switch combination and a removable tab to separate the activation switch in the double beam combination from one of the plurality of pads.

Abstract: A connector apparatus is provided as having an insulated housing and a terminal that is secured inside the insulated housing with locking lances. The locking lances have scalloped edges to ensure that the lances only partially penetrate the housing, but also provide a secure connection to provide an increased retention of the terminal in the housing. Once the terminal is secured within the housing, the terminal is permanently disposed within the housing and cannot easily be removed.

Abstract: A zero insertion force socket includes a cover which is movable along a longitudinal axis relative to a base housing. An actuation member is mounted for rotation about a rotation axis that is parallel to the longitudinal axis. The actuation member is operably connected for moving the cover along the longitudinal axis when the actuation member is rotated about the rotation axis. The actuation member may include a leg that extends along the rotation axis, and a handle that extends perpendicular to the leg. The leg includes at least one thread that is received in a recess in the cover.

Abstract: A zero insertion force socket includes a cover which is movable along a longitudinal axis relative to a base housing. An actuation member is mounted for rotation about a rotation axis that is parallel to the longitudinal axis. The actuation member is operably connected for moving the cover along the longitudinal axis when the actuation member is rotated about the rotation axis. The actuation member may include a leg that extends along the rotation axis, and a handle that extends perpendicular to the leg. The leg includes at least one thread that is received in a recess in the cover.

Abstract: A connector assembly is provided comprising a conductive upper shell having a top, sides, a front face and a back wall. A conductive lower shell is provided having sides, a bottom, a front face and a rear wall. The sides of the lower shell include recesses formed in edges thereof. Flanges are provided on the sides of the upper shell. The flanges have tabs extending downward therefrom. The tabs are received in the recesses in the edges of the sides of the lower shell when the upper and lower shells are joined. The recesses hold the flanges against the sides of the upper shell. A connector assembly is provided comprising an upper shell having a top, sides, a front face and a back wall. A lower shell has sides, a bottom, a front face and a back wall, wherein the front face of one of the upper and lower shells includes a pin and the front face of another of the upper and lower shells includes a cross member.

Abstract: A zero insertion force socket includes a cover which is movable along a longitudinal axis relative to a base housing. An actuation member is mounted for rotation about a rotation axis that is parallel to the longitudinal axis. The actuation member is operably connected for moving the cover along the longitudinal axis when the actuation member is rotated about the rotation axis. The actuation member may include a leg that extends along the rotation axis, and a handle that extends perpendicular to the leg. The leg includes at least one thread that is received in a recess in the cover.

Abstract: A zero insertion force socket includes a cover which is movable along a longitudinal axis relative to a base housing. An actuation member is mounted for rotation about a rotation axis that is parallel to the longitudinal axis. The actuation member is operably connected for moving the cover along the longitudinal axis when the actuation member is rotated about the rotation axis. The actuatiom member may include a leg that extends along the rotation axis, and a handle that extends perpendicular to the leg. The leg includes at least one thread that is received in a recess in the cover.

Abstract: A zero insertion force socket is provided having a cover and housing sidably mounted to one another. The housing includes a pocket receiving a cam assembly. The cam assembly is slidably moveable within the housing in a direction perpendicular to the direction of movement between the cover and housing. The lever is rotatably mounted within the housing and engages the cam assembly to transfer rotational movement of the lever into axial movement of the cam assembly in a transverse direction. The cam assembly communicates with the cover such that the cam assembly drives the cover in a longitudinal direction as the cam assembly moves in a transverse direction. The lever and cam assembly cooperate to spread actuation forces across the cover and housing.

Abstract: A connector assembly is provided comprising an upper shell having a top, sides, a front face and a back wall. A lower shell is provided having sides, a bottom, a front face and a rear wall. The sides of the lower shell include recesses formed in edges thereof. Flanges are provided on the sides of the upper shell. The flanges have tabs extending downward therefrom. The tabs are received in the recesses in the edges of the sides of the lower shell when the upper and lower shells are joined. The recesses hold the flanges against the sides of the upper shell. A connector assembly is provided comprising an upper shell having a top, sides, a front face and a back wall. A lower shell has sides, a bottom, a front face and a back wall, wherein the front face of one of the upper and lower shells includes a pin and the front face of another of the upper and lower shells includes a cross member. The pin is held by the cross member to retain the front faces of the upper and lower shells joined with one another.

Abstract: An electrical connector is provided having a conductive receptacle assembly with walls including grounding contacts, and a conductive plug member for connection to the receptacle assembly. The plug member includes peripheral surfaces that electrically engage grounding contacts on the receptacle assembly. A latch assembly is mounted to the plug member and includes a spring biasing face place that lockably engages one wall of the receptacle assembly. The latch assembly is conductive to afford a grounding correction between the plug member and receptacle assembly along one peripheral wall therebetween. The plug is formed with upper and lower shells, each of which is formed as a unitary structure, such as during a diecast molding procedure. The upper and lower shells are conductive and formed with substantially no openings therein to define a chamber therebetween offering significant EMI shielding characteristics. A PC equalization board is enclosed within the upper and lower shells.

Abstract: A zero insertion force socket is provided having a cover and housing slidably mounted to one another. The housing includes a pocket receiving a cam assembly. The cam assembly is slidably moveable within the housing in a direction perpendicular to the direction of movement between the cover and housing. The lever is rotatably mounted within the housing and engages the cam assembly to transfer rotational movement of the lever into axial movement of the cam assembly in a transverse direction. The cam assembly communicates with the cover such that the cam assembly drives the cover in a longitudinal direction as the cam assembly moves in a transverse direction. The lever and cam assembly cooperate to spread actuation forces across the cover and housing.

Abstract: A zero insertion force socket is provided having a cover and housing slidably mounted to one another. The housing includes a pocket receiving a cam assembly. The cam assembly is slidably moveable within the housing in a direction perpendicular to the direction of movement between the cover and housing. The lever is rotatably mounted within the housing and engages the cam assembly to transfer rotational movement of the lever into axial movement of the cam assembly in a transverse direction. The cam assembly communicates with the cover such that the cam assembly drives the cover in a longitudinal direction as the cam assembly moves in a transverse direction. The lever and cam assembly cooperate to spread actuation forces across the cover and housing.

Abstract: Retention assembly (10) includes an end section (30,104) at each end of a pair of board-mounted receptacle connectors and defines guide channels (20) for insertion thereinto of a pair of modules (22). A retention cap (14,100) is securable to posts (38,122) of end sections (30,104) and is movable transversely to be wedged against top surfaces (68) of modules (22).

Abstract: A magnetic press (10) for performing a manufacturing operation includes tooling (60) operatively connected to reciprocating parts comprising rods (22), and a magnet (41) connected to the rods (22) through a stationary plate (31). A control circuit (200) electrically operates a reciprocating magnet (41) and a stationary magnet (51) for inducing flux fields of attraction in the magnets (41,51), and for reversing the polarity of the flux fields to eliminate residual magnetism and for cushioning the landing of magnet (41) on a return stroke.

Abstract: A machine (144) for crimping terminals onto conductors, is disclosed which automatically compensate for different conductor density and terminal sizes for maintaining a desired crimp height for each different combination of sizes. The machine (144) includes a compensating unit (146) that is interposed within the drive mechanism to automatically alter an otherwise fixed distance (162) in the drive mechanism. The compensating unit (146), when combined with the ram, includes a pair of opposed resilient beams (158, 160) that deflect when sufficient axial loading is applied to the ram during the crimping operation. This deflection results in the altering of the fixed distance (162) and, therefore, the altering of the shut height (164) of the machine (144).

Abstract: A machine (10) for receiving and operating a terminal applicator (12) in the attaching of an electrical terminal (14) to a conductor includes a magnetic power unit (28) having a fixed electromagnet (30) attached to the frame (20) and a movable electromagnet (32) coupled to the terminal applicator (12). The machine includes a cycling mechanism (86) for manually moving the movable electromagnet (32) through the power and return strokes of the terminal applicator (12). The cycling mechanism (86) includes a lead screw (88) having a nut (102) in threaded engagement therewith that moves vertically when the lead screw is rotated. A latch (110) attached to the nut (102) pivots into an opening (112) in the periphery (114) of the movable electromagnet (32) when the lead screw is rotated in one direction (130). As the lead screw (88) is rotated further the latch (110) carries the movable electromagnet (32) downwardly through its power stroke.

Abstract: A magnetic press (10) for performing a manufacturing operation includes tooling (60) operatively connected to reciprocating parts comprising rods (22), and a magnet (41) connected to the rods (22) through a stationary plate (31). A control circuit (200) electrically operates a reciprocating magnet (41) and a stationary magnet (51) for inducing flux fields of attraction in the magnets (41,51), and for reversing the polarity of the flux fields to eliminate residual magnetism and for cushioning the landing of magnet (41) on a return stroke. FIGS. 2 and 4.