Abstract: An apparatus for use with an auxiliary device for commanding a movable barrier operator, the apparatus having a first communication interface, a processor device, and a second communication interface. The first communication interface being configured to receive a status change request from the auxiliary device. The processor device runs a movable barrier controller application and is configured to generate a control signal for the movable barrier operator in response to receiving the status change request. The second communication interface is configured to send the control signal to the movable barrier operator through a network.

Abstract: A movable barrier operator mounts to a ceiling or a wall of a garage. The movable barrier operator includes an operator housing with a motor configured to open and close a movable barrier. The movable barrier operator also includes an LED light source mounted to the housing, a light cover, and a light distributing element. The light cover has several side surfaces that surround or covers the light source. The light distributing element mounts relative to the light source and is configured to scatter light projected by the LED light source so that some of the scattered light is directed toward one or more of the side surfaces of the light cover.

Abstract: A remotely configurable sensor and method for remotely configuring detection of a vehicle in a secured area for housing the vehicle are provided. The method includes providing a sensor in the secured area to detect the vehicle; wirelessly coupling a computing device to the sensor; displaying a configurable sensor setting on a display coupled to the computing device, the configurable sensor setting including at least one of the group consisting of a detection sensitivity, a detection duration, a threshold distance, a rate of approach, a detection rate when idle, a detection rate when active, a threshold distance for an active state, and a detection area; and saving a change to the configurable sensor setting at the sensor.

Abstract: Controlling movable barrier movement with respect to selectively overriding a safety system includes determining whether a safety system is in an operation failure or misalignment state, the safety system being configured to detect obstruction in a path of movement of a movable barrier, receiving a state change request for the movable barrier while the safety system is in the operation failure or misalignment state, determining whether a safety override condition exists, and overriding the safety system and actuating the movable barrier if the safety system is in the operation failure or misalignment state and the safety override condition exists.

Abstract: A barrier operator feature enhancement device is designed to provide one or more features found in modern barrier operator devices and to incorporate those features into a previously installed barrier operator system. To facilitate ease of use, the barrier operator feature enhancement device can communicate with a large variety of barrier operators. Such communication may be wireless or wired, depending on the communication protocol implemented by a particular previously installed barrier operator. To facilitate the ease of installation, the device is designed to configure itself to operate with the communication protocol of the previously installed barrier operator. Once configured to be able to communicate with the previously installed barrier operator, the feature enhancement device works with the barrier operator to provide one or more additional features to enhance the capabilities of the previously installed barrier operator.

Abstract: A secure communication link is provided between a movable barrier operator and a peripheral system. Information conveyed via this link is used by one, the other, or both such elements to further inform or direct their respective actions.

Abstract: A barrier operator that controls operation of a camera includes a controller, a communication module, and control circuitry. The controller moves a barrier between open and closed positions. The communication module receives open/close commands from a peripheral device. The control circuitry is in communication with the controller, the communication module, and a camera. The control circuitry of the barrier operator automatically activates the camera to capture at least one visual image in response to receiving an open/close command and/or a determination to move the barrier.

Abstract: A security system permits limited access into a building for authorized visitors. The security system includes an access interface pad installable at a building entryway and a camera device releasably secured to the access interface pad with an anchor. The anchor allows the camera device to detach from the access interface pad in response building access being authorized by the security system so that an authorized visitor can wear the camera device while in the secured building. The security system can both communicate with a remote device so that data captured by the camera can be transmitted to a user in real time and automatically analyze information from the camera with respect to certain security parameters.

Abstract: A movable barrier operator transmits a message to a remote peripheral platform and, upon determining that the remote peripheral platform is presently able to carry out a given functionality, responsively permits a particular function to be carried out by the movable barrier operator. Conversely, upon determining that it cannot be ascertained whether the remote peripheral platform is presently able to carry out the given functionality, the movable barrier operator responsively prevents the movable barrier operator from carrying out the particular function. Also, upon detecting that a targeted remote platform does not acknowledge a previously re-transmitted message and further upon detecting that this same remote platform has also not acknowledged a subsequent wirelessly-transmitted second message, the system can switch to automatically retransmitting that second message a lesser number of times than would otherwise be required.

Abstract: An at least partially secure communication environment is provided in which accessory devices can be communicated with and controlled in the context of a movable barrier operator system. In one example approach, a gateway device can be configured to coordinate and control such communications in a secure manner. Three example approaches to such a communication environment include: a gateway device's receiving an accessory device control signal and sending a rolling code based accessory command signal to a target accessory device; receiving a rolling code based accessory device control signal and sending a command signal to an accessory device; and receiving a rolling code based accessory device control signal and sending a rolling code based accessory command signal to a target accessory device. Combinations are possible. An integrated system provides for automatic functioning of one device in response to status changes of one or more other devices.

Abstract: An end-user device can aggregate information as pertains to a variety of appliances that otherwise utilize incompatible communication protocols to present a shared opportunity to accommodate current information regarding those appliances. This information can include status information regarding such appliances as well as, or in lieu of, instructions to be acted upon by those appliances. Gateways can serve to provide a communications interface between such appliances and, for example, an internet. By one approach one or more middleware platform intermediaries can interface between one or more of those gateways and the end-user device.

Abstract: A movable barrier system allows for varying the linear actuator speed to account for speed variances caused by the physical configuration of the system. An example system includes a processor configured to variably control operation speed of the linear actuator when it moves a movable barrier between a first position of the movable barrier and a second position of the movable barrier as a function of location of the movable barrier pivot connection relative to the linear actuator pivot connection. The function may be a function of a ratio of a distance from the linear actuator pivot connection to a fixed point and a distance from the movable barrier pivot connection to the fixed point. The function may be calculated by the processor or accessed by the processor according to information about the physical configuration of the system.

Abstract: A self-retracting air compressor assembly includes a motorized pump device that drives in opposing directions. A reservoir tank is in fluid communication with the pump device and stores air pumped by the pump device. The air compressor includes a cord assembly that supplies air and electrical power from the pump device. The air compressor assembly pumps air when the motor is driving in a pumping direction, and self-retracts the cord assembly when the motor is driving in a winding direction.

Abstract: A barrier operator feature enhancement device is designed to provide one or more features found in modern barrier operator devices and to incorporate those features into a previously installed barrier operator system. To facilitate ease of use, the barrier operator feature enhancement device can communicate with a large variety of barrier operators. Such communication may be wireless or wired, depending on the communication protocol implemented by a particular previously installed barrier operator. To facilitate the ease of installation, the device is designed to configure itself to operate with the communication protocol of the previously installed barrier operator. Once configured to be able to communicate with the previously installed barrier operator, the feature enhancement device works with the barrier operator to provide one or more additional features to enhance the capabilities of the previously installed barrier operator.

Abstract: A device newly introduced to a network is automatically credentialed to be able to communicate over a network before the device first communicates with the network. For example, at a point of purchase, a user can provide network identification information to a merchant computing device that effects transfer of that information to the new device such that the new device can communicate directly with the network without initial credentialing directly between the unique device and the local network. In another example, the merchant computing device communicates with the local network to register a newly purchased device with the local network before the newly purchased device is introduced to the network. Accordingly, the network is configured to begin communications with the unique device without initial credentialing directly between the unique device and the local network.

Abstract: A wireless obstacle detection system includes a wireless photosensitive sensor and a communication module designed to provide a retrofit solution for easily adding obstacle detection capabilities to a previously installed barrier operator system. In one form, the wireless obstacle detector can be provided with a gateway device for adding additional functionality, including enabling long range remote operation of a barrier operator. To facilitate ease of installation, the communication module can communicate with a large variety of barrier operators including using at least two different protocols for communication with obstacle detectors. Such communication may be wireless or wired, depending on the barrier operator and communication protocol implemented by a particular previously installed barrier operator. The communication module may be designed to configure itself to operate with the communication protocol of the previously installed barrier operator.

Abstract: An apparatus having a controller will initiate an obstacle detector alignment mode. An annunciation system of the apparatus effects a first annunciation mode in response to a receiving component of an obstacle detection system receiving a signal transmitted from a transmitting component of the obstacle detection system. The annunciation system effects a second annunciation mode in response to the receiving component of the obstacle detection system not receiving the signal transmitted from the transmitting component of the obstacle detection system.

Abstract: A loop detection apparatus and corresponding methods are provided that includes an inductive loop and a processing device. The processing device includes circuitry to connect to the inductive loop and control and sense from the inductive loop a change in a characteristic thereof. The inductive loop is disposed at least partially above a surface on which a vehicle travels. The processing device detects a change in a characteristic of the inductive loop beyond a first threshold value, and in response, transmits a first signal configured to effect a first action. The processing device further detects a change in the characteristic of the inductive loop beyond a second threshold value, and in response, transmits a second signal configured to effect a second action different than the first action.