Abstract: A lighting assembly includes a lighting apparatus that includes a component housing that receives a light source and first and compartments for housing electronic components, the second compartment spaced from the first compartment by a channel. The lighting apparatus includes a mounting assembly that includes a first joint received within the channel, coupled to the component housing, and translatable along the channel between a use position and a stowage position. The mounting assembly also includes a mount arm coupled to the component housing by the first joint and rotatable relative to the joint about a pivot axis. When the first joint is in the use position the pivot axis extends through a center of gravity of the lighting apparatus.

Abstract: A controller configured to modify an operation of a LED assembly is provided. The controller includes at least one processor, at least one LED driver, and a fan driver. The LED driver(s) are configured to electrically couple to at least one LED of the LED assembly, where at least one reflector disposed at a front portion of the LED assembly surrounds the LED(s). The fan driver is configured to electrically couple with a fan of the LED assembly, where a shroud surrounds the fan and extends from a rear portion of the LED assembly towards the front portion, and where at least one vent of the LED assembly is in fluid communication with the shroud. The processor(s) are configured to receive external commands to modify, utilizing the LED driver(s), an optical output of the LED(s), and modify, utilizing the fan driver, a speed of the fan.

Abstract: A lighting assembly includes a lighting apparatus that includes a component housing that receives a light source and first and compartments for housing electronic components, the second compartment spaced from the first compartment by a channel. The lighting apparatus includes a mounting assembly that includes a first joint received within the channel, coupled to the component housing, and translatable along the channel between a use position and a stowage position. The mounting assembly also includes a mount arm coupled to the component housing by the first joint and rotatable relative to the joint about a pivot axis. When the first joint is in the use position the pivot axis extends through a center of gravity of the lighting apparatus.

Abstract: A lighting assembly includes a lighting apparatus that includes a component housing that receives a light source and first and compartments for housing electronic components, the second compartment spaced from the first compartment by a channel. The lighting apparatus includes a mounting assembly that includes a first joint received within the channel, coupled to the component housing, and translatable along the channel between a use position and a stowage position. The mounting assembly also includes a mount arm coupled to the component housing by the first joint and rotatable relative to the joint about a pivot axis. When the first joint is in the use position the pivot axis extends through a center of gravity of the lighting apparatus.

Abstract: The present disclosure describes a portable light panel that comprises a housing having a rear portion, a front portion and peripheral portions between the front and rear portions, the peripheral portions include air intake openings, and the housing defines an air intake chamber. The portable light panel also comprises a light emitting panel and electronic components to control the light emitted by the light-emitting panel. The electronic components are located proximate the air intake chamber between the housing and the light emitting panel. Ambient air is drawn into the air intake chamber and directed onto the electronic components to maintain the electronic components at a desired operating temperature.

Abstract: A clamp includes a frame, a first jaw coupled to the frame and fixed in position relative thereto, and a second jaw coupled to the frame opposite the first jaw and slidable relative to the frame. A stem extends at least partially through a stem aperture in the frame and engages with the second jaw. The stem is translatable relative to the frame along a stem axis and rotatable about the stem axis. A stem head is coupled to the stem, and the stem aperture is sized to prevent the stem head from passing entirely therethrough. A biasing element biases the second jaw towards the first jaw, and the second jaw is capable of translating relative to the frame along the stem axis in response to translation of the stem without rotating about the stem axis.

Abstract: In one embodiment, a controller for dynamically adjusting a color temperature of a light is provided. The controller includes at least one driver, at least one communication interface, and at least one processor. The driver(s) are configured to modify an operation of at least one LED of the light. The processor(s) are configured to receive, via the communication interface(s), a plurality of RGB pixel values for output at the light, identify a target color temperature for the light, generate one or more matrix transforms based on the target color temperature, process the plurality of RGB pixel values using the matrix transforms to generate a plurality linear light values, and modify, utilizing the driver(s), an operation of the LED based on the plurality of linear light values to implement the target color temperature at the light.

Abstract: An audio/visual environment includes a battery assembly. The battery assembly includes a cell array, a battery connector, an interface, protection circuitry, at least one sensor, and at least one processor. The battery connector is configured to electrically connect the cell array with external devices. The protection circuitry electrically couples the battery connector to the cell array and is configured to electrically decouple the cell array from the battery connector in response to an electrical fault. The at least one sensor is configured to measure status information of the cell array and/or the battery assembly. The at least one processor is configured to identify, utilizing the at least one sensor, the status information, and transmit, utilizing the interface, the status information to an external device.

Abstract: A battery power station including a top panel, a base, and side panels which define a structure, and a first removable end panel and a second removable end panel. The battery power station includes an electronics compartment within the structure including at least one printed circuit board, and a battery compartment within the structure configured to receive a battery pack module. The base includes lateral protrusions having a hook structure configured to interdigitate with corresponding hook structure of the side panels forming a seal between the base and the side panels. The first and second removable end panels include a shell having protrusions extending from an inner surface of the shell and around a periphery of the shell, the protrusions configured to create a seal with the structure forming a seal between the structure and the first and second removable end panels.

Abstract: In one aspect, a controller for dynamically adjusting an optical output of a light is provided. The controller is configured to modify an operation of a at least one light emitting diode (LED) of the light. The controller is further configured to store a plurality of diffuser models that specify a pre-defined optical output of the light, each diffuser model corresponding to a different one of a plurality of diffusers installable at the light. The controller is further configured to identify, from the plurality of diffusers, which diffuser of the plurality of diffusers is installed at the light, select a corresponding diffuser model of the plurality of diffuser models based on which diffuser is installed, and modify the operation of at least one driver of the at least one LED based on the corresponding diffuser model to generate the pre-defined optical output of the light.

Abstract: In one embodiment, a power storage system includes a movable cart, an external frame, a rechargeable battery, and an electronic system. The movable cart includes a support frame. The support frame includes a base, a plurality of sidewalls mounted vertically with respect to the base, a lid mounted with respect to the plurality of sidewalls, and a set of wheels mounted with respect to the base. The external frame is mounted with respect to the base and is configured to extend around the plurality of sidewalls, where the plurality of sidewalls are accessible from a position outside of the external frame. The electronic system includes at least one output electrical receptacle and at least one input electrical receptacle. The electronic system is configured to electrically connect with the rechargeable battery, and the rechargeable battery and the electronic system are mounted with respect to the movable cart.

Abstract: An audio/visual environment includes a sodium-based battery assembly. The battery assembly includes a sodium-based cell array, a battery connector, an interface, protection circuitry, at least one sensor, and at least one processor. The cell array includes at least one sodium-based cell that is configured to utilize sodium ions as charge carriers during charge and discharge. The battery connector is configured to electrically connect the cell array with external devices. The protection circuitry electrically couples the battery connector to the cell array and is configured to electrically decouple the cell array from the battery connector in response to an electrical fault. The at least one sensor is configured to measure status information of the cell array and/or the battery assembly. The at least one processor is configured to identify, utilizing the at least one sensor, the status information, and transmit, utilizing the interface, the status information to an external device.

Abstract: The present disclosure describes a power storage system and, more particularly, a portable power storage system. The portable power storage system may include a movable cart, a power storage module, and an electrical system electrically connected to the power storage module and configured to output electrical power. In some instances, the power storage system may further include a power generation module.

Abstract: A battery power station including a top panel, a base, and side panels which define a structure, and a first removable end panel and a second removable end panel. The battery power station includes an electronics compartment within the structure including at least one printed circuit board, and a battery compartment within the structure configured to receive a battery pack module. The base includes lateral protrusions having a hook structure configured to interdigitate with corresponding hook structure of the side panels forming a seal between the base and the side panels. The first and second removable end panels include a shell having protrusions extending from an inner surface of the shell and around a periphery of the shell, the protrusions configured to create a seal with the structure forming a seal between the structure and the first and second removable end panels.