Abstract:
PROBLEM TO BE SOLVED: To provide a metal can battery assembly for inhibiting short-circuiting generated by shock related to deformation in a metal can. SOLUTION: A tapered assembly 900 has a taper at least at one of both end sections. A center height 907 is higher than an outer-periphery height 908. A first edge 906 having each taper in each of sectional and outer shapes is provided. The tapered section allows a cavity to be present between the corner section of the metal can and an electrode assembly. The "shock absorption region" inhibits damage to the internal electrode assembly by external shock to the can and improves reliability in the cell. COPYRIGHT: (C)2006,JPO&NCIPI
Abstract:
A removable battery package (10) having a latch mechanism (32) for attaching the battery package (10) to a radio (18) is provided. The battery package (10) comprises a housing (15) having an interior surface (30), an exterior surface (14) and sidewalls (16). Engagement means (32) are located on the interior surface (30) of the housing (15) for engaging a receiving means (22) located on the radio (18). Activating means are provided for activating the latch wherein the activating means comprises a recessed portion (12) located in the exterior surface (14) of the housing (15) transverse to the engagement means (32). The recessed portion (12) is designed so that by pressing the sidewalls (16) of the housing (15) a portion of the housing (24) is temporarily outwardly deformed thereby disengaging the engagement means (32).
Abstract:
A method is provided for positioning an object (133) relative to a structural member (103). The method includes providing a first and second member (103, 113), a positioning member (123) with a first end (126) and a second end (124), and the object (133). The first end (126) is positioned proximal to the object (133), and a first energy director (107) is positioned between, and is in contact with, the first end (126) and the first member (103). A second energy director (125), having a slower characteristic melting rate than that of the first energy director (107), is positioned between, and is in contact with, the second end (124) and the second member (123). Energy is first imparted to cause at least one of the first and second energy directors (107, 125) to begin melting. Imparting the energy is discontinued after the first energy director (107) is substantially melted and the object (133) is properly positioned, while the second energy director (125) is not substantially melted.