A flexible operating room lighting system may be coupled to a wall, ceiling, or fixture of a facility. The lighting system can modularly accommodate multiple illumination arms and incorporate one or more microphone thereon, permitting the vocal control using a processor for hands free operations. The lighting system may include a speaker and a camera to facilitate two-way communications with a user to facilitate demonstrations for individuals undergoing tutelage in the particular facility's profession. The lighting system may employ a stand with wheels to facilitate modularity. Further, a cover with a transparent front end may be provided to be slipped over the lighting system and securing through a cover fastener. By providing each illumination arm with a jack, the illumination arm may be modularly assigned, replaced, sanitized. Thus, the present invention provides reliable sanitary measures while further facilitating a flexible operable device through the illumination arms.

A flexible operating room lighting system may be coupled to a wall, ceiling, or fixture of a facility. The lighting system can modularly accommodate multiple illumination arms and incorporate one or more microphone thereon, permitting the vocal control using a processor for hands free operations. The lighting system may include a speaker and a camera to facilitate two-way communications with a user to facilitate demonstrations for individuals undergoing tutelage in the particular facility's profession. The lighting system may employ a stand with wheels to facilitate modularity. Further, a cover with a transparent front end may be provided to be slipped over the lighting system and securing through a cover fastener. By providing each illumination arm with a jack, the illumination arm may be modularly assigned, replaced, sanitized. Thus, the present invention provides reliable sanitary measures while further facilitating a flexible operable device through the illumination arms.

One embodiment of the invention relates to a portable inverter. The portable inverter includes an electrical inverter, a closed battery receiver, an open battery receiver, and an electrical outlet. The electrical inverter is configured to convert direct current (DC) power to alternating current (AC) power. The closed battery receiver is configured to receive a battery and is electrically coupled to the electrical inverter to supply DC power from the battery to the electrical inverter. The open battery receive is configured to receive a battery and is electrically coupled to the electrical inverter to supply DC power from the battery to the electrical inverter. The electrical outlet is electrically coupled to the electrical inverter and configured to supply AC power from the electrical inverter.

One embodiment of the invention relates to a portable inverter. The portable inverter includes an electrical inverter, a closed battery receiver, an open battery receiver, and an electrical outlet. The electrical inverter is configured to convert direct current (DC) power to alternating current (AC) power. The closed battery receiver is configured to receive a battery and is electrically coupled to the electrical inverter to supply DC power from the battery to the electrical inverter. The open battery receive is configured to receive a battery and is electrically coupled to the electrical inverter to supply DC power from the battery to the electrical inverter. The electrical outlet is electrically coupled to the electrical inverter and configured to supply AC power from the electrical inverter.

A light tower assembly configured to rotate a light section from a first to a second position. In various embodiments, the light tower assembly comprises (a) a primary boom extending vertically from a base, (b) a light array boom supporting a light section on a frame rotatively mounted to the primary boom wherein the light array boom rotates around an axis of rotation, (c) a mounting assembly rotatively mounting the light array boom to the primary boom, and (d) a linear actuator assembly connected to the primary boom and the light array boom being configured to rotate the light array boom in one direction when the linear actuator extends and configured to rotate the light array boom in an opposite direction when the linear actuator assembly retracts.

A portable lamp includes an illumination module, a shaft supporting the illumination module, a base module configured to support the shaft and the illumination module; and a power module, including an electrical power source and a cable configured to connect to the power source, the power module electrically coupled to the illumination module.

An air exhausting mechanism for a mobile illuminating light tower includes a cooler, an air discharge hood, and a fan. The cooler and the air discharge hood are respectively disposed on two sides of a rear canopy panel. The cooler is mounted on a bottom plate, and is located on the inner side of the rear canopy panel. The air discharge hood is fixedly mounted on the outer side of the rear canopy panel. The cooler is provided with an air inlet and an air outlet. An air exhausting groove is formed in the rear canopy panel. The fan is disposed at the air inlet of the cooler. The air exhausting groove is opposite to the air outlet. The air discharge hood covers the air exhausting groove, and the bottom of the air discharge hood is open. The mobile illuminating light tower is safe and environmentally friendly.

A site light including a body, a power system with an AC input and battery terminal, and a telescopic arm assembly supported by the body, where the telescopic arm includes a first end fixed relative to the body and a second end opposite and movable with respect to the first end. The site light also includes a light assembly in operable communication with the power system and coupled to and movable together with the second end of the telescopic arm, where the light assembly is operable in a first light mode in which the light assembly outputs approximately 13,000 lumens of light, and a second light mode in which the light assembly outputs approximately 20,000 lumens of light.

Improvements a portable elevated lighting system that uses LED lighting elements for illumination. The LED lights are selected based upon the light transmission angle so the fewest number of lighting elements are needed to provide an even flood or focus of light from the system. A reflector works as a heat sink to remove heat from the LED lights and extend the operation life of the LED's. Thermal paste and or a thermal pad is used between the LED lighting element and the frame to conduct sufficient heat away from the LED element. Two versions are shown as a stadium light and as a circular flood light that provides lighting without shadows or bright areas. The system can be operated from a generator or solar for charging batteries so the lighting can operate self-contained without producing noise.

A lighting tower system is provided. The lighting tower system includes a tower positioned in an upright orientation within a bed of a vehicle. The tower includes a base tube section and an upper tube section. The base and upper tube sections include a common longitudinal axis and are arranged to slide relative to one another in a telescoping relationship to move each tower between a retracted position and a fully extended position. The lighting tower system includes a light assembly coupled to and extending from the upper tube section of the tower. The light assembly is configured to rotate with respect to the common longitudinal axis and to tilt with respect to an axis perpendicular to the common longitudinal axis. The lighting tower system includes a mounting configuration configured to attach and detach the tower to the bed of the vehicle in the upright orientation.