Abstract: A battery pack is provided with an improved interface through the use of an endcap which forms a top surface of a battery pack housing. The endcap includes a walled aperture for a connector. The connector along with electronic circuitry is disposed on a printed circuit board located beneath the endcap. A dam of UV glue surrounds a perimeter of the connector preventing the potting compound from intruding into contacts. An endcap perimeter rim of UV glue seals the endcap to the housing. The endcap further includes an injection port and flow directors for guiding a potting compound into the endcap to form a water tight seal.

Abstract: A battery pack is provided with an improved charger interface through the use a contact carrier assembly. The non-conductive contact carrier aligns and retains a plurality of charger contacts. The carrier aligns a first portion of each charger contact along a back surface of the battery pack housing and further facilitates alignment of another portion of each charger contact within bottom apertures of the housing thereby allowing each contact to extend across perpendicular back and bottom surfaces of the housing with improved ruggedness. Improved sealing is also provided by sealing the back of the carrier.

Abstract: A battery pack is provided with an improved charger interface through the use a contact carrier assembly. The non-conductive contact carrier aligns and retains a plurality of charger contacts. The carrier aligns a first portion of each charger contact along a back surface of the battery pack housing and further facilitates alignment of another portion of each charger contact within bottom apertures of the housing thereby allowing each contact to extend across perpendicular back and bottom surfaces of the housing with improved ruggedness. Improved sealing is also provided by sealing the back of the carrier.

Abstract: A battery pack is provided with an improved interface through the use of an endcap which forms a top surface of a battery pack housing. The endcap includes a walled aperture for a connector. The connector along with electronic circuitry is disposed on a printed circuit board located beneath the endcap. A dam of UV glue surrounds a perimeter of the connector preventing the potting compound from intruding into contacts. An endcap perimeter rim of UV glue seals the endcap to the housing. The endcap further includes an injection port and flow directors for guiding a potting compound into the endcap to form a water tight seal.

Abstract: A connector assembly for connecting a battery to different electrical components within an electrical device includes a housing, and a plurality of sheet metal contacts coupled to and extending through the housing. The plurality of sheet metal contacts define a plurality of battery contact regions and a plurality of internal contact regions spaced form the plurality of battery contact regions. The plurality of internal contact regions physically contact the plurality of different electrical components. A first one of the plurality of internal contact regions is offset from a second one of the plurality of internal contact regions in a different spatial plane than a spatial plane of the second one of the plurality of internal contact regions.

Abstract: An apparatus (10, 240, 300) includes a signpost (11, 241-256, 322, 612, 623, 626-628, 652, 661, 682, 686, 703) which transmits signpost signals (24) that are received by a tag (12, 271-275, 301-316, 395-397, 616-618, 641-643, 653, 656-657, 662-664, 679, 708, 711). The tag in turn transmits radio frequency beacon signals (72) which are received by a reader (13, 261, 319, 521-530). The tag can vary the duration of the beacon signals, for example in dependence on whether it is currently receiving a signpost signal. Further, the tag can dynamically vary the transmission rate and/or transmission power of the beacon signals, for example following receipt of a signpost signal. Varying these parameters can facilitate compliance with governmental regulations.