Abl IP Holding LLC

Mark Norton

Richard Lee Westrick, Jr

Christopher Trickler

John T Hickok

Richard L Westrick

Ryan A Zaveruha

Dalibor Zulim

Audwin W Cash

Troy Thomas Miller

Frank Pelliccio

Erik Allen Holmen

Alexander Ali Hussain

Stephen Haight Lydecker

Justin Bierschbach

Dean Naib

Shoumin Liu

Rich L Westrick, Jr

Tiberiu Almasi

Richard Lee Westrick

Ryan Zaveruha

Philip Gross

A photocontrol, such as for an outdoor intelligent lighting fixture, may detect levels of ambient light at multiple sections of the photocontrol. The ambient light may be detected via multiple photosensors located at the photocontrol sections. In addition, the ambient light may be detected via multiple color filters (or sections of a color filter) located at the photocontrol sections. The photocontrol may determine an ambient light differential, such as an instant differential between light received at the multiple photocontrol sections at a particular time, or a temporal differential between light received at the multiple photocontrol sections across multiple times. Based on the ambient light differential, the photocontrol may identify triggering photosensor or triggering section that substantially align with a geographical orientation. The photocontrol may identify a lighting output profile. An output level of a lighting element may be modified based on the lighting output profile.

Automatic orientation techniques for photocontrols of intelligent lighting fixtures

A lighting relay panel may include lower-cost features or components related to improved safety and reliability. In some cases, the relay panel includes a power supply capable of protecting the panel from high-voltage and high-current transients. A microcontroller may determine a power interruption based on a zero-cross signal received from the power supply, and may also configure latching relays during the interruption. In some implementations, the relay panel includes a relay sense circuit that is capable of receiving actuation signals from multiple relays connected to different phases of a power signal, and the microcontroller may synchronize or repeat the actuations based on a signal from the relay sense circuit. The microcontroller may generate relay addresses based on the relay positions within the relay panel. In some cases, the relay panel may include isolation circuits that are capable of providing an isolated control signal having an improved voltage range.

Lighting relay panel features for improved safety and reliability

A lighting control system includes a plurality of lighting system elements that are connected together over at least one lighting control network. The lighting system elements include a network controller, a luminaire, or a lighting control device. Some of the lighting system elements are designated as client lighting devices. At least one of the lighting system elements is designated as a lighting control data synchronization master. The lighting control system allows for changes in lighting control setting data, without sacrificing performance and maintaining stability with network failures, by generation and utilization of lighting control data keys. For example, data synchronization replicates or transfers lighting control setting data when a state change in a lighting control setting is detected based on a comparison of a current lighting control data key with an original lighting control data key.

Lighting controls data synchronization

A method includes retrieving a current lighting state of at least one luminaire. The lighting state includes light intensity of the at least one luminaire. The method also includes retrieving a sensor state of at least one sensor and determining a next selectable lighting state available for the at least one luminaire and an illumination adjustment for a user interface element of a lighting control device configured to control the luminaire. The determining of the next selectable lighting state available includes comparing the current lighting state and the sensor state to a set of intelligent backlighting rules, and based on the comparison, determining an indicator state corresponding to the illumination adjustment to the user interface element of the lighting control device. The illumination adjustment produces visible output to the user via the user interface element as a visible cue to guide the user to select the next lighting state.

Intelligent control of backlighting or other pilot lights on wall switch or the like

A lighting control system of networks and devices designed to allow scheduled events to continue to operate in the case of partial or full network operation and failure. The lighting control system can rely on any network controller to act as a schedule master that evaluates a schedule of time-based lighting control events. When failure of the acting schedule master occurs or network communication therewith, the lighting control system changes the scheduling master to a different network controller based on a fail over protocol. The failover protocol includes detecting when an acting schedule master controller stops working by, for example, failing to receive a keep-alive message at a different network controller within a predetermined amount of time. Upon detecting failure of the schedule master controller, a network controller with a different controller identifier takes over as the schedule master in accordance with a controller identifier evaluation or protocol.

Scheduling failover for lighting controls

Electronic display

Electronic display mounted to a wall

Systems and methods for creating and previewing a lighting effect, such as displaying an array of colors across a number of lighting fixtures are provided. A user may specify some of the colors for the array, as well as relative positions of the colors. A lighting management system determines transitional or intermediary colors and assigns the colors specified by the user, as well as the intermediary colors to the lighting fixtures. The resulting lighting effect may be displayed in a preview bar. The colors and the order of the colors may be edited to obtain a desired lighting effect.

Systems and methods for providing a lighting effect

A distributed intelligence lighting system is comprised of a global controller, one or more local controllers, wall stations, sensors and lighting fixtures. In one aspect, the lighting system provides schedule-based, occupancy-based, and/or daylight-responsive automated control and multi-level or ON/OFF manual control of lighting loads. System components communicate over a topology-free and polarity-free modular low voltage digital network that combines power and control wiring in an easily installed labeled and keyed cable. Embodiments according to the system do not require any components to be addressed, manually configured, or programmed (beyond setting the project location and current time and date) for energy code compliance. Manual and after-hours override control is accomplished via local low voltage wall stations or occupancy sensors. Global controllers generally each incorporate an onboard modem and user interface with LCD display, both permitting programming of advanced features, override, system monitoring, and diagnostics.

Distributed intelligence automated lighting systems and methods

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Oxford, GA, United States of America

Mark Norton