A system for a system for controlling a vehicle fuel-level display includes one or more processors and a memory communicably coupled to the one or more processors and storing a fuel-level display control module. The module includes computer-readable instructions that when executed by the one or more processors cause the one or more processors to, responsive to generation of a control signal, control operation of the vehicle so as to cause the fuel-level display to display a predetermined false low-fuel level.

A commercial vehicle access control system provides selective access to authorized users to interior areas of respective service vehicle item storage compartments. The compartments are usable to house items such as tools, equipment, materials or products that are removed from or placed in such compartments. A system controller is in operative connection with a plurality of electrically actuated door locks which can be operated responsive to communication with a portable wireless device to enable access to selected compartments and the items which are housed therein. A plurality of vehicle cameras and other sensors are operative to detect activities related to the removal from or placement of items within the compartments, as well as other conditions associated with the operation and status conditions of the vehicle.

A commercial vehicle access control system provides selective access to authorized users to interior areas of respective service vehicle item storage compartments. The compartments are usable to house items such as tools, equipment, materials or products that are removed from or placed in such compartments. A system controller is in operative connection with a plurality of electrically actuated door locks which can be operated responsive to communication with a portable wireless device to enable access to selected compartments and the items which are housed therein. A plurality of vehicle cameras and other sensors are operative to detect activities related to the removal from or placement of items within the compartments, as well as other conditions associated with the operation and status conditions of the vehicle.

The present invention relates to a glass break detecting device. The device is detachably attached to a windshield or a windowpane. The device sounds a loud alarm and additionally illuminates an LED within nanoseconds upon detecting that the glass to which the device is attached is broken or shattered. The device includes a piezoelectric sensor to detect vibrations in the glass to determine if the glass is broken. The device includes a built-in battery to power different components. The device can be manually turned by a user and provides real-time visual and audible alerts to notify individuals of the breakage and shattering of glass.

The present invention relates to a glass break detecting device. The device is detachably attached to a windshield or a windowpane. The device sounds a loud alarm and additionally illuminates an LED within nanoseconds upon detecting that the glass to which the device is attached is broken or shattered. The device includes a piezoelectric sensor to detect vibrations in the glass to determine if the glass is broken. The device includes a built-in battery to power different components. The device can be manually turned by a user and provides real-time visual and audible alerts to notify individuals of the breakage and shattering of glass.

Methods and systems for assessing, detecting, and responding to malfunctions involving components of autonomous vehicle and/or smart homes are described herein. Autonomous operation features and related components can be assessed using direct or indirect data regarding operation. Such assessment may be performed to determine the condition of components for salvage following a collision or other loss-event. To this end, the information regarding a plurality of components may be received. A component of the plurality of components may be identified for assessment. Assessment may including causing test signals to be sent to the identified component. In response to the test signal, one or more responses may be received. The received response may be compared to an expected response to determine whether the identified component is salvageable.

A method of, and safety system usable in, responding to an unauthorized possession of a vehicle configured to transport at least one person, including the steps of: obtaining the vehicle with the safety system associated therewith, the safety system configured to at least one of: a) generate at least one form of detectable signal; b) generate an electronic signal; and c) generate at least one image of a person in/on the vehicle; and generating an input to cause the system to generate at least one of: i) the at least one form of detectable signal that can be sensed by persons in the vicinity of the vehicle; ii) the electronic signal; and iii) the at least one image of a person in/on the vehicle. The system is configured so that at least one of the at least one form of detectable signal, the electronic signal, and the at least one image is generated after a time delay following the generation of the input to the safety system.

A method of, and safety system usable in, responding to an unauthorized possession of a vehicle configured to transport at least one person, including the steps of: obtaining the vehicle with the safety system associated therewith, the safety system configured to at least one of: a) generate at least one form of detectable signal; b) generate an electronic signal; and c) generate at least one image of a person in/on the vehicle; and generating an input to cause the system to generate at least one of: i) the at least one form of detectable signal that can be sensed by persons in the vicinity of the vehicle; ii) the electronic signal; and iii) the at least one image of a person in/on the vehicle. The system is configured so that at least one of the at least one form of detectable signal, the electronic signal, and the at least one image is generated after a time delay following the generation of the input to the safety system.

An in-vehicle electronic system is mounted to a vehicle. The in-vehicle electronic system includes one or more sensors used to determine a security state of the vehicle, an alarm apparatus configured to issue an alarm when the security state is abnormal, and a first ECU directly connected to the sensor and the alarm apparatus without the intermediation of another ECU and also connected to a plurality of other ECUs, in which the first ECU includes a processor configured to determine a security state based on at least information received from the sensor, and cause the alarm apparatus to operate when it is determined that the security state is abnormal.

An in-vehicle electronic system is mounted to a vehicle. The in-vehicle electronic system includes one or more sensors used to determine a security state of the vehicle, an alarm apparatus configured to issue an alarm when the security state is abnormal, and a first ECU directly connected to the sensor and the alarm apparatus without the intermediation of another ECU and also connected to a plurality of other ECUs, in which the first ECU includes a processor configured to determine a security state based on at least information received from the sensor, and cause the alarm apparatus to operate when it is determined that the security state is abnormal.