A vehicle accessory has an arm extending from a pocket. The arm preferably has sides which can flex and then push outwardly to assist in mechanical retention between seats of a vehicle to locate the pocket in front of a seat. The pocket may have at least three sides extending upwardly relative to a bottom, if not more, and accessory may be manufactured from a single planar sheet bent to shape.

An accessory mounting frame is attachable to various vehicle seat bases and allows for connection of a vehicle accessory when the vehicle seat is removed. The accessory mounting frame includes a first seat attachment projection, a second seat attachment projection, and an accessory fastener coupled to the first seat attachment projection and the second seat attachment projection. The first seat attachment projection has a first bearing surface that is configured to bear against a first portion of the vehicle seat base. The second seat attachment projection has a second bearing surface that is configured to bear against a second portion of the vehicle seat base. The first seat attachment projection and the second seat attachment projection are adjustable with respect to the accessory fastener.

An illustrative embodiment includes a latch rotatably mounted on a support bracket and including first and second flanges that define therebetween a notch configured to receive a striker bar. The latch is rotatable into a closed position with the striker bar received in the notch responsive to the first flange being moved against the striker bar. A pawl having an inner edge and a cam edge is rotatably mounted on the support bracket. An outer side of the first flange is configured to engage the inner edge to hold the pawl in an unlocked position responsive to the latch being in an open position. The pawl is configured to rotate and the cam edge is configured to move against the first side of the first flange to hold the latch in the closed position responsive to the latch rotating past the inner edge of the pawl.

A system and method is provided for calibrating a portable vehicle sensor which is releasably mountable to a vehicle at least at a first and a second position on the vehicle, wherein the first and second positions are offset from each other. The system includes inputting means configured to receive position information relating to the second position when or after the portable vehicle sensor has been moved from the first position to the second position; calibration means configured to calibrate the position of the portable vehicle sensor with respect to the second position by use of the received position information.

A bracket for holding an in-vehicle device inside a window glass includes a base configured to be fixed to an inside surface of the window glass; right and left side portions protruding downward from the base; a locking member assembled so as to be movable between a first position and a second position; and at least one support portion configured to receive a supported portion provided in the in-vehicle device and inserted between the right and left side portions from a lateral direction while the locking member is located at the first position. When the locking member is moved to the second position while the supported portion is received by the support portion, the locking member is pressed against the supported portion so that the in-vehicle device is held in any of the front to rear direction and the up to down direction without rattling.

A roof antenna includes a base plate, an outer cover, an inner cover arranged under the outer cover and connected to the base plate, and a fastening device on the base plate arranging and fastening the roof antenna at an intended installation location. The inner cover accommodates at least one antenna element for receiving and/or transmitting high-frequency signals that is arranged on the base plate. The roof antenna includes a camera arranged under the outer cover and accommodated inside the inner cover. At least one of the outer cover and the inner cover has an opening for a recording field of the camera.

A sensor enclosure comprises a cover and a structure. The structure can be encased by the cover. The structure comprises a frame, a ring, and one or more anchoring posts. The frame can be configured to mount one or more sensors. The ring, disposed peripherally to the frame, can be operatively coupled to the cover. The ring can include a drainage ring plate that drains rainwater accumulated on the cover away from the sensor enclosure. The one or more anchoring posts, disposed underneath the frame and the ring, can be used to anchor the sensor enclosure to a vehicle.

A protection mechanism for a working vehicle includes a roof provided above an operator's seat, a pillar extending upward from a vehicle body and supporting the roof, a camera with a predetermined viewing direction, and a support stay which is connected to the pillar, orients the predetermined viewing direction of the camera sideways, and supports the camera below a peripheral portion of the roof. The protection mechanism includes a front pillar supporting a front portion of the roof and a rear pillar supporting a rear portion of the roof. The support stay is connected to the rear pillar.

A system for communicating with removable components may include an electronic controller and a removable component having an identifier and configured to communicate with the electronic controller. The removable component may be configured to transmit the identifier to the electronic controller via a first communication channel. The electronic controller may be configured to transmit a confirmation to the removable component after receipt of the identifier. The removable component may be configured to transmit information to the electronic controller via at least one of the first communication channel and/or a second communication channel, after receipt of the confirmation.

Vehicle sensor systems include modular sensor kits having one or more pods (e.g., sensor roof pods) and/or one or more bumpers (e.g., sensor bumpers). The sensor roof pods are configured to couple to a vehicle. A sensor roof pod may be positioned atop a vehicle proximate a front of the vehicle, proximate a back of the vehicle, or at any position along a top side of the vehicle being coupled, for example, using a mounting shim or a tripod. The sensor roof pods can include sensors (e.g., LIDAR sensors, cameras, ultrasonic sensors, etc.), processing units, control systems (e.g., temperature and/or environmental control systems), and communication devices (e.g., networking and/or wireless devices).