Abstract: There is described a motion detection system of a building automation system comprising a motion sensing component and a processor. The motion sensing component is configured to generate a raw signal. The processor is configured to establish first-order difference signals based on the raw signal. The processor is also configured to identify in-band energy in a motion portion of a sensor frequency range based on the first-order difference signals and identify total energy in the sensor frequency range based on the first-order difference signals. In addition, the processor is configured to determine a ratio of the in-band energy and the total energy and generate a motion status update in response to determining that the ratio meets or exceeds a predetermined ratio threshold.

Abstract: There is described a device for managing communications comprising a sensor, first and second antennas, and first and second shields. The sensor has a field of view and includes a first side and a second side, in which the second side is substantially opposite the first side. The first antenna is positioned offset from the first side of the sensor, and the second antenna is positioned offset from the second side of the sensor. The first shield is positioned adjacent to the first side of the sensor and a first distance from the first antenna, and the second shield is positioned adjacent to the second side of the sensor and a second distance from the second antenna. The first shield focuses the first antenna toward the field of view, and the second shield focuses the second antenna toward the field of view.

Abstract: System and method for determining a location of a tag are disclosed. The system comprises a mobile tag, sensors, and a controller. The mobile tag determines a first location within a structure that includes multiple second locations. The sensors are positioned at different locations of the structure and sense a structure condition. The controller determines possible paths of the mobile tag within the structure. Next, the controller generates a first set of weighted likelihoods of the mobile tag being located at each second location based on the possible paths and distances between the first location and the multiple second locations. The controller also generates a second set of weighted likelihoods of the mobile tag being located at each second location based on the structure condition. The controller then determines a location of the mobile tag within the structure based on the first and second sets of weighted likelihoods.

Abstract: Apparatuses, methods, and systems for estimating a location of a tag are disclosed. One method includes identifying a physical shape of a structure or characteristics of the structure, sensing a condition of the structure, generating a first set of weighted likelihoods based on the physical shape of the structure or characteristics of the structure, wherein the first set of weighted likelihoods includes a weighted likelihood of the tag being at each one of a plurality of grid points within the structure, generating a second set of weighted likelihoods based on the sensed condition of the structure, wherein the second set of weighted likelihoods includes a weighted likelihood of the tag being at each one of the plurality of grid points, generating a combined set of likelihoods based on the first set of weighted likelihoods and the second set of weighted likelihoods, and estimating a location of the tag based on the combined set of likelihoods.

Abstract: Apparatuses, methods, and systems for estimating a location of a tag are disclosed. One method includes sensing a first condition of a structure, sensing a second condition of the structure, generating a first set of weighted likelihoods based on the first sensed condition of the structure, wherein the first set of weighted likelihoods includes a weighted likelihood of the tag being at each one of a plurality of grid points within the structure, generating a second set of weighted likelihoods based on the second sensed condition of the structure, wherein the second set of weighted likelihoods includes a weighted likelihood of the tag being at each one of the plurality of grid points, generating a combined set of likelihoods based on the first set of weighted likelihoods and the second set of weighted likelihoods, and estimating a location of the tag based on the combined set of likelihoods.

Abstract: There is described a location determining system comprising multiple mobile devices and multiple sensors at a facility as well as a sensor hub communicating directly or indirectly with the sensors. The sensors receive from the mobile devices broadcast beacons and identify measured times associated with receipt of the broadcast beacons from the mobile devices. The sensor hub stores the locations of sensors receives the measured times from the sensors. The sensor hub also determines sensor time errors based on the measured times, the locations of the sensors, and a transmission velocity associated with the broadcast beacons. The location determining system determines locations of the mobile devices based at least in part on the sensor time errors.

Abstract: There is described a building automation system for controlling illumination uniformly based on ambient light. Light sensors are distributed within an environment and detect ambient light levels of the environment. An energy manager receives the ambient light levels from the light sensors and determines a group light level based on the ambient light levels. Light sources are distributed within the environment and provide illumination uniformly based on the group light level.

Abstract: Apparatuses, methods and systems of a building control system are disclosed. One building control system includes a plurality of building sensor fixtures, wherein at least one of the plurality of building sensor fixtures includes a sensor, a controller and a communication port. The building control system further includes a system controller. At least one of the system controller and one or more controllers of the plurality of building sensor fixtures is operative to determine a plurality of selected groups of the plurality of building sensor fixtures, compare a first characteristic between the plurality of the selected groups, and identify deviations of the compared first characteristic between the plurality of the selected groups.

Abstract: Apparatuses, methods and systems for predicting a future state of a built environment with a sensor network are disclosed. One sensor network includes a plurality of sensors of a built environment and a controller. Each sensor is operative to generate a sense signal. The controller is operative to collect sense values that represent sense signals of the plurality of sensors, wherein the sense values are collected over time, classify each of the collected sense values based on a type of space of the built environment associated with a corresponding one of the plurality of sensors that generated the sense value, based on a timing of the sense value, and based on other available information of the built environment, predict a future state of each of the plurality of sensors based at least in part on the classifications of each of the sense values, and communicate the future state.

Abstract: A sensor mounting assembly for installing an environment sensor in a drop-down ceiling or light fixture of a building. The sensor mounting assembly includes a cylindrically-shaped carrier and a locking nut adapted to removably engage the carrier, and to clamp onto the mounting substrate. The carrier further is configured to receive the environment sensor from the front. The carrier and sensor include interlocking features to removably lock the sensor. Both installation and removal of the sensor may be performed from the front of the mounting substrate. Method and kits for mounting the sensor are described.

Abstract: Apparatuses, methods, apparatuses and systems for tracking motion are disclosed. One method includes identifying a group of sensors that includes a plurality of neighboring sensors sensing motion greater than a threshold during a time interval, and tracking motion, comprising linking the group to at least one past group of at least one past time interval.

Abstract: Apparatuses, methods, apparatuses and systems for occupancy interaction detection, are disclosed. One occupancy interaction detection system includes a plurality of sensors located within an area, the plurality of sensors operative to sense at least motion of a first occupant and a second occupant of the area, and communication links between each of the sensors and a controller. For an embodiment, the controller operative to receive sense data from the plurality of sensors, track locations of the first occupant of the area based on the sensed motion of the first occupant, track locations of the second occupant of the area based on the sensed motion of the second occupant, and identify an interaction between the first occupant and the second occupant, comprising detecting the first occupant to be within a threshold distance of the second occupant.

Abstract: There is described a lighting control system of a building environment comprising a control device and a lighting device. The control device is capable of detecting an activation of a configuration mode of the lighting control system and controlling illumination for the building environment in response to command inputs received at a user interface. The lighting device is capable of receiving a message indicating that the activation of the configuration mode has been detected by the control device and receiving a directional signal from a directional device subsequent to receiving the message. A membership status of the lighting device in a device group is changed in response to receiving the directional signal.

Abstract: An apparatuses, methods, and systems of determining a configuration of a lighting fixture are disclosed. One embodiment method includes setting a lighting control level of a first channel control line of the lighting fixture to a plurality of levels, setting a lighting control level of a second channel control line of the lighting fixture to a plurality of levels, sensing an amount of power dissipated by the lighting fixture, comparing the sensed amount of power dissipated for each of the plurality of levels, and determining a configuration of the lighting fixture based upon the comparing of the sensed amount of power for each of the plurality of lighting control levels for the first channel and the second channel.

Abstract: Apparatuses, methods, apparatuses and systems for adaptively adjusting motion sensitivity of a motion are disclosed. One apparatus includes a motion sensor, wherein the motion sensor generates an output that indicates whether or not motion has been sensed by the motion sensor, wherein the motion sensor receives a motion sensitivity input, wherein the motion sensitivity input controls a level of motion sensitivity of the motion sensor. Further, the motion sensing apparatus includes a controller, wherein the controller generates the motion sensitivity input based at least in part on the output of the motion sensor.

Abstract: An apparatuses, methods, and systems for a distributed network of a structure that provides location-based human interaction and intelligent use of the structure are disclosed. The distributed network includes wireless transceivers, sensors, asset tags, and a controller electronically connected to the wireless transceivers, the sensors and the asset tags. At least one wireless transceiver is operative to transmit time-based tokens through a low-power first network, wherein the low-power first network includes the plurality of wireless transceivers. The controller is operative to receive modified time-based tokens from a mobile device or at least one of the plurality of asset tags through a second network, wherein the modified time-based tokens include identification information of the mobile device or the at least one asset tag that has been appended to the time-base tokens, and perform location-based intelligence based on the identification information and the time-based tokens.

Abstract: Apparatuses, methods, and systems for estimating a location of a tag are disclosed. One method includes sensing a first condition of a structure, sensing a second condition of the structure, generating a first set of weighted likelihoods based on the first sensed condition of the structure, wherein the first set of weighted likelihoods includes a weighted likelihood of the tag being at each one of a plurality of grid points within the structure, generating a second set of weighted likelihoods based on the second sensed condition of the structure, wherein the second set of weighted likelihoods includes a weighted likelihood of the tag being at each one of the plurality of grid points, generating a combined set of likelihoods based on the first set of weighted likelihoods and the second set of weighted likelihoods, and estimating a location of the tag based on the combined set of likelihoods.

Abstract: Apparatuses, methods, apparatuses and systems for a light fixture are disclosed. One apparatus of the light fixture includes a sensor unit and a light intensity controller. The sensor unit includes a sensor operative to generate a sense signal based on at least one of sensed motion or light, wireless communication circuitry operative to maintain a link with a network, and a controller. The controller is operative to manage communication with the network, manage reception of beacons through the wireless communication circuitry, wherein the beacons are received from an object, and the beacons include information associated with the object, and generate dimming control base on at least one of the sensed signal and communication from the network. The light intensity controller is configured to receive the dimming control and operative to adjust an emitted light intensity of a luminaire of the light fixture.

Abstract: An apparatuses, methods and systems for a desktop occupancy sensing device are disclosed. One desktop apparatus includes an occupancy sensor, a mobile device charging interface, a controller, and a structure. The occupancy sensor operates to sense occupancy proximate to the desktop apparatus. The controller operates to determine occupancy of a desktop based on the sensed occupation, and the controller operates to communicate the determined occupancy to an upstream network. The occupancy sensor, the mobile device charging interface, and an interface to the upstream network are disposed within the structure as a single unit, and the structure is adapted to be placed on or affixed to the desktop.

Abstract: Apparatuses, methods, apparatuses and systems for operating a control fixture are disclosed. One method includes generating a sense signal, maintaining a communications link between the control fixture and a network, tracking a location of a first mobile device, identifying the first mobile device being within a threshold distance of a second mobile device or a place, and allowing the first mobile device or a user of the first mobile device to receive information associated with the second mobile device or the physical place, or to provide information to be associated with the second mobile device or the physical place upon identifying the first mobile device to be within the threshold distance of the second mobile device or the place.