Abstract: A device including a mount, a first arm coupled to the mount, and a second arm coupled to the mount. The first arm includes first teeth and the second arm includes second teeth. A first light assembly rotationally couples to the first arm, and includes a first coupler that engages with the first teeth. A second light assembly rotationally couples to the second arm, and includes a second coupler that engages with the second teeth. A camera assembly pivotably couples to the mount, and includes a camera, a first passive infrared (PIR) sensor, and a second PIR sensor.

Abstract: An audio/video (A/V) device includes a first housing and a second housing rotatably coupled to the first housing. The first housing includes a camera oriented in a first direction, one or more microphones oriented in the first direction, one or more first lighting elements oriented in the first direction, one or more second lighting elements oriented in a second direction, one or more third lighting elements oriented in a third direction, and one or more first contacts. The second housing includes a loudspeaker oriented in a fourth direction and one or more second contacts configured to engage with the one or one first contacts. An engagement between the one or more first contacts and the one or more second contacts communicatively couples the loudspeaker to computing components with the first housing.

Abstract: An electronic device includes a first passive infrared (PIR) sensor and a second PIR sensor positive vertically below the first PIR sensor. One or more lenses are shaped and positioned to focus light received at the one or more lenses onto the first PIR sensor and the second PIR sensor. The first PIR sensor has a first field of view (FoV), and the second PIR sensor has a second FoV that is vertically and horizontally offset from the first FoV.

Abstract: This disclosure describes techniques for optimizing motion detection in systems that use passive infrared (PIR) detectors. The techniques comprise generating a first signal and a second signal by two sets of detector elements. The techniques further involve calculating a sum of the first signal and the second signal as well as a difference between the first signal and the second signal. The techniques may comprise determining whether a slope of either the sum or the difference exceeds a threshold slope value. If the slope exceeds the threshold slope value, a determination may be made as to whether an amplitude of the sum or difference exceeds a detection threshold. If the amplitude does exceed the detection threshold, then a motion detection event is detected. If the slope does not exceed the threshold slope value, the first signal and the second signal are zeroed out.

Abstract: A room monitoring apparatus includes an outer shell which includes a first area transparent to at least some wavelengths of infrared radiation, a second area transparent to visible light, and a third area adapted to be positioned on a surface. A static portion is fixed to a portion of the outer shell and a rotatable portion is rotationally coupled to the static portion. The rotatable portion includes an infrared sensor positioned to receive infrared light from the room through the first area of the outer shell and an imaging sensor, separate from the infrared sensor, positioned to receive visible light from the room through the second area of the outer shell. The apparatus also includes a motor arranged to rotate the rotatable portion with respect to the static portion, a processor coupled to the infrared sensor and the imaging sensor, and a communications interface coupled to the processor.

Abstract: A security apparatus includes a body with a socket that includes a first magnetic material, and a mount with a stem that is formed to fit into the socket and includes a second magnetic material. If the stem is inserted into the socket, the body is held in place by magnetic attraction between the first magnetic material and the second magnetic material. The position of the stem in the socket determines an azimuth angle and an elevation angle for the body with respect to the mount. The first and second magnetic materials can be magnets or ferromagnetic materials, such as steel.

Abstract: A security apparatus includes a mount and a sensor body with a socket recessed into the sensor body at a first angle from a functionality plane. The mount includes a stem and a base adapted to be affixed to a wall. The stem extends from the base at a second angle from horizontal. The functionality plane is set at an angle from horizontal equal to the first angle plus the second angle if the stem is inserted into the socket with the first side of the stem in close proximity to the first wall of the socket, and the functionality plane of the sensor body is set at an angle from horizontal equal to the first angle minus the second angle if the stem is inserted into the socket with the first side of the stem in close proximity to the second wall of the socket.

Abstract: A security apparatus includes a mount and a sensor body with a socket recessed into the sensor body at a first angle from a functionality plane. The mount includes a stem and a base adapted to be affixed to a wall. The stem extends from the base at a second angle from horizontal. The functionality plane is set at an angle from horizontal equal to the first angle plus the second angle if the stem is inserted into the socket with the first side of the stem in close proximity to the first wall of the socket, and the functionality plane of the sensor body is set at an angle from horizontal equal to the first angle minus the second angle if the stem is inserted into the socket with the first side of the stem in close proximity to the second wall of the socket.

Abstract: A security apparatus includes a body with a socket that includes a first magnetic material, and a mount with a stem that is formed to fit into the socket and includes a second magnetic material. If the stem is inserted into the socket, the body is held in place by magnetic attraction between the first magnetic material and the second magnetic material. The position of the stem in the socket determines an azimuth angle and an elevation angle for the body with respect to the mount. The first and second magnetic materials can be magnets or ferromagnetic materials, such as steel.

Abstract: An apparatus to monitor one or more utility meters includes a communication unit with a processor, a communication interface coupled to the processor, and a probe interface coupled to the processor. A meter monitoring probe that includes a probe head is coupled by a cable to a probe connector capable to mate with the probe interface. The probe head includes an image sensor, an indicator, and a button. The probe head is capable to detect a characteristic of a utility meter that is dependent on a usage of a utility metered, and send information related to the characteristic to the processor. The processor is capable to receive the information from the probe head and send a message related to the usage of the utility over the communication interface, and the image sensor is capable to capture an image in response to a press of the button.

Abstract: A characteristic of a first utility meter is detected with a first probe head, and a characteristic of a second utility meter is detected with a second probe head. The characteristic of the first utility meter is dependent on a usage of a first utility metered by the first utility meter, and the characteristic of the second utility meter is dependent on a usage of a second utility metered by the second utility meter. Information related to the characteristic of the first utility meter is communicated from the first probe head to a communication unit, and information related to the characteristic of the second utility meter is communicated from the second probe head to the communication unit. A message is also sent from the communication unit indicating the usage of the first utility or the usage of the second utility.

Abstract: A networked display has multiple modes of operation. In the first operating mode, the display receives and shows information related to charging an electric vehicle. In a second mode of operation, the display receives and shows information related to home energy usage. Other operating modes may also be supported.

Abstract: An apparatus to monitor one or more utility meters includes a communication unit with a processor, a communication interface coupled to the processor, and a probe interface coupled to the processor. A meter monitoring probe that includes a probe head is coupled by a cable to a probe connector capable to mate with the probe interface. The probe head includes an image sensor, an indicator, and a button. The probe head is capable to detect a characteristic of a utility meter that is dependent on a usage of a utility metered, and send information related to the characteristic to the processor. The processor is capable to receive the information from the probe head and send a message related to the usage of the utility over the communication interface, and the image sensor is capable to capture an image in response to a press of the button.

Abstract: A characteristic of a first utility meter is detected with a first probe head, and a characteristic of a second utility meter is detected with a second probe head. The characteristic of the first utility meter is dependent on a usage of a first utility metered by the first utility meter, and the characteristic of the second utility meter is dependent on a usage of a second utility metered by the second utility meter. Information related to the characteristic of the first utility meter is communicated from the first probe head to a communication unit, and information related to the characteristic of the second utility meter is communicated from the second probe head to the communication unit. A message is also sent from the communication unit indicating the usage of the first utility or the usage of the second utility.