Exemplary embodiments described in this disclosure are generally directed to using a vehicle to provide building security. In one exemplary embodiment, a computer that is provided in a vehicle is communicatively coupled to various sensors included in an anti-theft security system of the vehicle. The computer automatically activates a building security procedure upon determining that the vehicle has entered, or is located inside, a geofence of a residence. The sensors are configured to detect a security event that may take place near the residence. For example, a motion sensor may be used to detect a burglar approaching the residence or a sound detector may be used to detect shattering of a glass window of the residence. Upon detecting such a security event, the anti-theft security system of the vehicle may transmit a security alert to an individual and/or a monitoring service.

The theft prevention monitoring device, system and method are provided. The theft prevention monitoring device includes: a housing, a moving mechanism, a controller, and a video control module, the controller includes a moving control module, an image recognition module, and a sound and light control module; the moving control module is adapted to control a moving mechanism to move along a running route; the video control module is adapted to use a camera to scan environment information, real-time build dynamic map of environment, and generate the running route; the image recognition module is adapted to match captured videos or images of people with pre-stored videos or images of people to obtain matching result, provide corresponding control instructions; a sound and light alarm of the sound and light control module is adapted to give an alarm by sending out sound and light according to the corresponding control instructions.

A system for providing information about presence in a space

includes a movement sensor for generating a signal upon detecting movement; and
a presence sensor for generating a signal upon detecting presence, being a temperature-based matrix sensor having an array of sensing elements.

The system further includes:

a processing and/or control component in communication with the movement and presence sensors, configured to generate a presence signal upon receiving the first and/or second signals; and configured to obtain background information of the presence detection field. The information includes reference temperature values and are obtained upon the movement sensor not detecting movement and/or the presence sensor detecting presence. For each sensing element with presence, using the measured temperature value of surrounding sensing elements not having presence. If all surrounding sensing elements have presence, using the measured temperature value of some sensing elements surrounding the former surrounding sensing elements not having presence.

A device and a method for detecting a passenger within a vehicle are provided. The device includes a sensor mounted inside the vehicle and a vehicle network connection device that receives a position and a backrest angle of each seat in the vehicle and transmits a control signal for adjusting the position and the backrest angle of each seat in the vehicle. A controller performs primary detection using the sensor in a precise detection mode determined based on the received position and backrest angle of each seat in the vehicle, and performs final detection using the sensor in a general detection mode while adjusting the position and backrest angle of each seat in the vehicle.

An electronic device has memory, one or more processors, a speaker, and a microphone. The device sends a first set of ultrasound chirps at a first rate via the speaker. It receives, via the microphone, a first set of signals corresponding to the first set of ultrasound chirps and being reflected from a person. The device determines based on the first set of signals that the person is in proximity to the electronic device. In accordance with the determination that the person is in proximity to the electronic device, the device sends a second set of ultrasound chirps at a second rate, faster than the first rate. It receives, via the microphone, a second set of signals corresponding to the second set of ultrasound chirps, and identifies a gesture from the person based on the second set of signals.

A system for detecting a presence in an environment to be monitored includes an electrostatic charge variation sensor, a vibration sensor, and an environmental pressure sensor. A processing unit is configured to acquire, from the electrostatic charge variation sensor, an electrostatic charge variation signal, and detect in the electrostatic charge variation signal, first signal characteristics indicative of the presence of a subject in the environment to be monitored. The processing unit further validates the detection of presence of the subject using the vibration and pressure signals provided by the other sensors.

Integrating a direct current (DC) voltage motion sensing alarm with an alternating current (AC) voltage light source is presented herein. A wall switch box can comprise a voltage conversion component that generates a DC voltage from an AC voltage that is higher in magnitude than the DC voltage, a motion sensing component detects a motion of an object using the DC voltage, and a security component that generates, based on the motion using the DC voltage, an alarm signal that has been encoded according to an encryption strength of a communication protocol corresponding to a transmission of the alarm signal from the wall switch box. In one aspect, a communication expansion component can wirelessly transmit, using the DC voltage based on control information specifying the communication protocol, the alarm signal according to the encryption strength. In another aspect, the encryption strength can correspond to at least 2.sup.128 combinations.

The theft prevention monitoring device, system and method are provided. The theft prevention monitoring device includes: a housing, a moving mechanism, a controller, and a video control module, the controller includes a moving control module, an image recognition module, and a sound and light control module; the moving control module is adapted to control a moving mechanism to move along a running route; the video control module is adapted to use a camera to scan environment information, real-time build dynamic map of environment, and generate the running route; the image recognition module is adapted to match captured videos or images of people with pre-stored videos or images of people to obtain matching result, provide corresponding control instructions; a sound and light alarm of the sound and light control module is adapted to give an alarm by sending out sound and light according to the corresponding control instructions.

An opening detection device for an opening element such as a door or window including a module that is applied to an inner side of the opening element, wherein the module includes means for detecting movement of the opening element, first presence detection means forming a conical beam defining what is termed a trust perimeter encompassing an operating distance over which an operator operates the mechanism for opening the opening element on the first side of the opening element, second presence detection means for detecting a presence on what is termed a mistrust perimeter circumscribed around the opening element and means for processing data from the detection means, for memory storage and for computation that are connected to the detection means.

This disclosure relates to method of enhancing the three-dimensional detection range of a vision-based, single camera intrusion detection system within a tensile test machine or other materials testing machine. Illumination sources are offset from the camera and provide a cones of illumination which intersect with the conical viewing zone of the camera thereby defining a detection zone. When objects intrude into these conical regions, a shadow is cast. The shadow is detected by the camera. The detection of the intrusion is typically used as a safety function to deactivate at least part of the function of the materials testing machine.