A restraint apparatus for securing a mobility device in a vehicle includes a base configured to being mounted to a floor of the vehicle, a support coupled to the base and extending upward therefrom, and a backing plate adjustably coupled to the support. The backing plate defines a channel to provide vertical adjustment of the backing plate with respect to the support. An upper support is pivotally coupled to the backing plate, and a claw assembly is coupled to the upper support. The claw assembly includes a claw member and a latching member, where the latching member is pivotally coupled to the claw member to enable pivotal movement between an unlatched position and a latched position. A control system operably controls the pivotal movement of the latching member between its latched position to its unlatched positions. In the unlatched position, the claw assembly provides an opening for receiving the device.

A mobility carrier apparatus for vehicles includes: a carrier to store a mobility, and the carrier is not exposed at ordinary times and withdrawn when it is desired to use the mobility, thereby improving the external design of a vehicle and convenience of the vehicle. In particular, the carrier slides along a pair of sliding rails so as to be withdrawn from or stored in a case of the mobility carrier apparatus, and the carrier is provided with a storage unit in which the mobility is loaded. The mobility is lifted upwards at the time of withdrawal of the carrier.

Cot fastening systems which fix and hold an emergency cot to a crash stable, cot fastener track included in the system and provided within an emergency vehicle and methods of affixing the emergency cot thereto are disclosed. The track has a longitudinal length with first and second ends, open side rails longitudinally extending between the ends, and a channel centrally located between the rails. The side rails align, accommodate and guide a first fixture of the cot towards the first end as the cot is rolled within the vehicle and to retain the first fixture adjacent the first end at least vertically and laterally therein. The channel accommodates therein and retains a second fixture adjacent the second end at least vertically and laterally therein. A securing mechanism releasably prevents removal of the first fixture from the open side rails and removal of the second fixture from the channel.

A surface mount assembly may comprise at least one connector set, including a mount anchor and mount fitting that are configured to lockingly engage, and a remote release assembly for unlocking the two. The surface mount assembly may include a catch to catch the mount fitting as it drops from engagement with the mount anchor. The surface mount assembly may further include a guide member for guiding the mount fitting into engagement with the mount anchor. The surface mount assembly may further include a case mount assembly that is crashworthy, in that it is configured to transfer the loads from cargo contained in the case to the mount fitting, while largely bypassing the case. The surface mount assembly may also include two connector sets, where the remote release assembly is disposed between the two and is configured to simultaneous release each of the two from engagement.

A litter lift system includes a winch and a lifting strap. The winch includes a rotatable spool. The lifting strap has one end coupled to the rotatable spool and is movable due to rotation of the rotatable spool. The lifting strap has a first lifting segment and a second lifting segment positioned away from the end of the lifting strap coupled to the rotatable spool. The first lifting segment and the second lifting segment are each forked to interface with a frame of a litter at first lifting segment and second lifting segment distal ends, wherein a coupling is attached to the first lifting segment. Rotation of the rotatable spool in a first direction raises the first lifting segment and the second lifting segment. Rotation of the rotatable spool in a second direction different from the first direction lowers the first lifting segment and the second lifting segment.

A litter lift system includes a motor-driven winch and a lifting strap. The motor-driven winch includes a rotatable spool. The lifting strap has one end coupled to the rotatable spool and is movable in response to rotation of the rotatable spool. The lifting strap has a first lifting segment and a second lifting segment positioned away from the end of the lifting strap coupled to the rotatable spool. The first lifting segment and the second lifting segment are each forked to define two separate lifting loops. Rotation of the rotatable spool in a first direction raises the first lifting segment and the second lifting segment. Rotation of the rotatable spool in a second direction different from the first direction lowers the first lifting segment and the second lifting segment.

A mobility carrier apparatus for vehicles includes: a carrier to store a mobility, and the carrier is not exposed at ordinary times and withdrawn when it is desired to use the mobility, thereby improving the external design of a vehicle and convenience of the vehicle. In particular, the carrier slides along a pair of sliding rails so as to be withdrawn from or stored in a case of the mobility carrier apparatus, and the carrier is provided with a storage unit in which the mobility is loaded. The mobility is lifted upwards at the time of withdrawal of the carrier.

A wheelchair lift includes a base, and an arm slideably supported by the base. A chair support is rotatably supported by the arm. A linkage is supported by the arm and is extendable relative to the chair support from a coiled position to a straightened position. A motor is supported by the arm and is connected to the linkage. The linkage is coiled about the motor in the coiled position.

A system for a vehicle includes a LIDAR sensor attachable to the vehicle and a puddle lamp fixed relative to the LIDAR sensor and oriented to project a light projection downward beside the vehicle. A computer may be in communication with the LIDAR sensor and the puddle lamp and programmed to actuate the puddle lamp in response to receiving data generated by the LIDAR sensor indicating a user positioned within a threshold distance of the vehicle.

A litter lift system includes a winch system and a lifting strap. The winch system includes a rotatable spool. The lifting strap has a first end, a second end, and an intermediate segment extending away from the lifting strap between the first end and the second end. The first end is coupled to the rotatable spool such that rotation of the spool in a first direction winds the lifting strap about the spool and rotation of the spool in a second direction unwinds the lifting strap from the spool. The second end defines a first lifting segment and the intermediate segment defines a second lifting segment. The first lifting segment and the second lifting segment are each forked to define two separate lifting loops.