Abstract: A battery alignment system includes a housing having a groove along a side of the housing, a first set of surfaces that define a recess, and first electrical contacts positioned at least partially within the recess. The battery alignment system also includes a battery having a tab to slide within the groove of the housing to facilitate a first alignment, a second set of surfaces that protrude from an end of the battery to slide into the recess of the housing to facilitate a second alignment, and a third surface that extends from one of the second set of surfaces. The third surface engages one of the first set of surfaces to facilitate a third alignment. The battery also includes second electrical contacts that engage the first electrical contacts.

Abstract: A video camera system comprises an elongate camera housing (102) extending along a longitudinal axis (104); a camera lens (106) disposed axially along the longitudinal axis (104) at a distal end of the camera housing, such that the camera lens faces away from the elongate camera housing; a mount (108) including a receptacle (110) to hold the camera housing (102) secured against a vehicular windshield (302) of a motor vehicle, the mount including a first region having a first opening (112); and visually perceptible light indicators (114) positioned on the elongate camera housing (102) at a location such that the visually perceptible light indicators are viewable through the first opening (112) of the mount (108), the visually perceptible light indicators (114) providing an indication of an operational status of the camera system viewable through the vehicular windshield (302) from a location outside of the motor vehicle.

Abstract: A video camera comprises a housing (102) configured of a top housing portion (104), a mid-housing portion (106) and a bottom housing portion (108). The top housing portion is configured as a circular and rounded exterior contoured wall (110) having an exterior recessed feature (112) formed along an edge (114). The mid-housing portion (106) is formed of an IR window ring (116) having an alignment tab (118) extending therefrom, the alignment tab being aligned and recessed within the exterior recessed feature (112) of the rounded exterior contoured wall (110) of the top housing portion (104), and the bottom housing portion (108) providing a camera dome (120) seated within and protruding from the IR window ring (116).

Abstract: A video camera comprises a housing (102) configured of a top housing portion (104), a mid-housing portion (106) and a bottom housing portion (108). The top housing portion is configured as a circular and rounded exterior contoured wall (110) having an exterior recessed feature (112) formed along an edge (114). The mid-housing portion (106) is formed of an IR window ring (116) having an alignment tab (118) extending therefrom, the alignment tab being aligned and recessed within the exterior recessed feature (112) of the rounded exterior contoured wall (110) of the top housing portion (104), and the bottom housing portion (108) providing a camera dome (120) seated within and protruding from the IR window ring (116).

Abstract: A device with linear slots for water drainage is provided. The device comprises: a bezel covering a cavity and a microphone/speaker mounted therein, the bezel having outer and inner faces, the inner face facing the cavity; linear slots through the bezel between the faces, the linear slots being obliquely angled relative to an upright axis of the bezel; linear slats separating the linear slots at the bezel and forming sides thereof having dimensions selected to promote formation of water droplets thereon of a size which overcome water surface tension and flow out of the linear slots when the bezel is exposed to one or more of mist, rain, water and humidity; and one or more recesses at the inner face, adjacent to the linear slots, the one or more recesses to collect water from the water droplets as the water flows out of the linear slots.

Abstract: A video recorder (100) is configured and assembled to provide improved ventilation for cooling and improved protection against liquid intrusion. The video recorder is formed of a main chassis housing, a top cover, and a bezel for coupling the top cover to the main chassis housing. Once assembled, channels are formed which provide paths for both liquid egress and airflow intake. The channels allow airflow into fan intake openings located within a top portion of the main chassis housing. The channels further provide for liquid to be diverted away from the fan intake openings.

Abstract: A video recorder (100) is configured and assembled to provide improved ventilation for cooling and improved protection against liquid intrusion. The video recorder is formed of a main chassis housing, a top cover, and a bezel for coupling the top cover to the main chassis housing. Once assembled, channels are formed which provide paths for both liquid egress and airflow intake. The channels allow airflow into fan intake openings located within a top portion of the main chassis housing. The channels further provide for liquid to be diverted away from the fan intake openings.

Abstract: A device with linear slots for water drainage is provided. The device comprises: a bezel covering a cavity and a microphone/speaker mounted therein, the bezel having outer and inner faces, the inner face facing the cavity; linear slots through the bezel between the faces, the linear slots being obliquely angled relative to an upright axis of the bezel; linear slats separating the linear slots at the bezel and forming sides thereof having dimensions selected to promote formation of water droplets thereon of a size which overcome water surface tension and flow out of the linear slots when the bezel is exposed to one or more of mist, rain, water and humidity; and one or more recesses at the inner face, adjacent to the linear slots, the one or more recesses to collect water from the water droplets as the water flows out of the linear slots.

Abstract: A camera system includes a camera housing having a ball-shaped structure and a camera lens disposed within the ball-shaped structure. The camera system also includes a mount including a receptacle to hold the camera housing and at least one element configured to selectively engage and disengage the camera housing to fix a rotational position of the camera housing relative to the mount. The camera housing is configured to rotate relative to the mount.

Abstract: A camera system includes a camera housing having a ball-shaped structure and a camera lens disposed within the ball-shaped structure. The camera system also includes a mount including a receptacle to hold the camera housing and at least one element configured to selectively engage and disengage the camera housing to fix a rotational position of the camera housing relative to the mount. The camera housing is configured to rotate relative to the mount.

Abstract: Electronic processing systems and methods for collaborating between vehicular threat detection appliances. One system includes a memory, a transceiver, an electronic processor, and a first vehicular 360-degree threat detection appliance that is physically coupled to a first vehicle. The electronic processor is configured to identify a portion of the first vehicular 360-degree threat detection appliance having an obstructed field-of-view. The electronic processor is also configured to detect a second vehicular 360-degree threat detection appliance that is physically coupled to a second vehicle and has an unobstructed field-of-view of the obstructed field-of-view. The electronic processor is further configured to transmit a request to the second vehicular 360-degree threat detection appliance to provide threat detection coverage for the first vehicle in a direction of the obstructed field-of-view.

Abstract: A vehicular computing device is operated to selectively deploy a tethered vehicular drone for capturing video. In operation, the vehicular computing device detects (i) a measure of video quality of video captured by a vehicular camera is less than a video quality threshold, (ii) a measure of change in vehicular motion is greater than a motion-change threshold, (iii) an obstruction within a field-of-view of the vehicular camera, or (iv) an area of interest or object of interest that is outside the field-of-view of the vehicular camera, and responsively deploys the tethered vehicular drone from a vehicular docked position to a tethered flight position to begin capturing video via a drone camera coupled to the tethered vehicular drone, and receives video captured via the drone camera while the tethered vehicular drone is deployed at the tethered flight position.

Abstract: Electronic processing systems and methods for collaborating between vehicular threat detection appliances. One system includes a memory, a transceiver, an electronic processor, and a first vehicular 360-degree threat detection appliance that is physically coupled to a first vehicle. The electronic processor is configured to identify a portion of the first vehicular 360-degree threat detection appliance having an obstructed field-of-view. The electronic processor is also configured to detect a second vehicular 360-degree threat detection appliance that is physically coupled to a second vehicle and has an unobstructed field-of-view of the obstructed field-of-view. The electronic processor is further configured to transmit a request to the second vehicular 360-degree threat detection appliance to provide threat detection coverage for the first vehicle in a direction of the obstructed field-of-view.

Abstract: A holster is provided with an improved attachment interface. The attachment interface is integrated as part of the holster housing and provides a railed track within a circular retaining wall. The attachment interface interchangeably accommodates a variety of different accessory attachments and mounting configurations.

Abstract: A unitary metal clip (100) is formed of a pocket mounting side (102), a device mounting side (104) and a top end pocket flange (108) therebetween. The clip further comprises first and second side flanges (106) extending from the pocket mounting side (102) toward the top end pocket flange (108). The top end pocket flange (108) provides alignment, while first and second side flanges (106) provide slide-in, engagement, and grip features for clip (100). A recessed retention feature (114) is also provided within the pocket mounting side (102) to provide a compression feature of clip. A device mounting platform (130) is located on the device mounting side (104) extending from the top end pocket flange (108) of clip (100) for mounting to a device, such as a holster or directly to a communication device. Clip (100) provides stable, non-rotational positioning and retention for body worn portable communication device applications.