An air treatment appliance is shown situated in a container, wherein the air treatment appliance includes an electrical power absorber; and includes an electrical interface configured to interface the container with an electrical lighting fixture normally configured for lighting a room with a lamp, the interface connected directly or indirectly to the power absorber for providing electrical current to the electrical power absorber for performing an air treatment action that treats air in or around the appliance or treats air in and around the appliance, wherein the electrical interface is a standarized interface that interfaces with a mating interface of the electrical lighting fixture.

A spray system for spraying a fluid, the spray system including a tank for holding the fluid; and a sprayer including a fluid conductor, a fluid mover, at least one first nozzle and a second nozzle, the fluid conductor including an inner diameter, a first end configured to be connected to the tank, a second end configured to be selectively connected to one of the at least one first nozzle and a second nozzle, wherein the second nozzle including a through opening at least about the same size as the inner diameter, wherein the fluid mover is configured to draw the fluid from the tank through one of the at least one first nozzle to create a spray of the fluid and the second nozzle to return at least a portion of the fluid to a storage tank.

A light fixture includes a housing forming a cavity to permit airflow therethrough. A filter is disposed within the airflow of the cavity. An ultraviolet light emitting diode is disposed within the cavity and is directed to concurrently treat the airflow and the filter to destroy biomaterial therein.

A ceiling, wall- or surface-mounted light fixture with a housing containing one or more external visible light sources to illuminate the space where the light fixture is mounted, one or more emitters inside or outside the housing to destroy bacteria, viruses, and pathogens in area inside or outside the housing, and one or more fans inside the housing that recirculate the air in a space and subject the air to bacteria, viruses, and pathogen-destroying influence inside the housing, destroying bacteria, viruses, and pathogens in the air passing though the housing.

The present disclosure provides a novel massage gun atmosphere lamp. The massage gun atmosphere lamp includes a switch control unit, a PCB lamp control board, a sensing device, and a battery. The switch control unit is embedded onto a PCB main control board. The PCB main control board is assembled in a massage gun cavity. The PCB lamp control board is in cooperation with a lamp source, a motor, and a light-transmissive plate respectively. The sensing device is arranged in a massage gun cavity. The battery and the motor are mounted in the massage gun cavity. The PCB main control board is configured to send a level signal to the motor for rotation speed adjustment and to the PCB lamp control board for color adjustment. The lamp is convenient to use, and features high technology and smart sensing.

Provided is a disinfecting fixture comprising: a) a body; b) a fan; c) a first irradiation source placed inside of the body, the irradiation source inside of the body configured to disinfect air forced into the body by the fan; d) a conduit for movement of air from outside of the body to inside of the body for irradiation with the first irradiation source, and movement of air outside of the body after irradiation with the first irradiation source; and e) a second irradiation configured to irradiate air and/or surfaces outside of the body; wherein air moves with a force generated by the fan from outside of the fixture to inside of the fixture for irradiation with the first irradiation source, and exits the fixture, and wherein air outside of the fixture and/or surfaces below the fixture are irradiated with the second irradiation source or sources. Provided is a method for disinfecting light comprising: a) creating air flow from outside to inside and then outside of a fixture with a fan or fans; b) irradiating the air moved inside of body; c) moving the irradiated air outside with the flow of the air; and d) irradiating air and/or surfaces outside of the fixture with a second irradiation source or sources placed outside of the body.

A fixture system includes a housing configured to be mounted in an upper region of a room or area. A light source is supported by the housing for providing visible light to illuminate at least a portion of the room or area. An ultraviolet radiation (UVR) system is supported by the housing for emitting UVC radiation in an upper region of the room or area. The UVR system includes at least one UVC emitting source and an optic member configured to direct UVC radiation in a pattern having a vertical width dimension that is above a threshold height from a floor or ground in the room or area.

A light emitting apparatus includes a light emitting element for emitting light specified by a spectrum having a peak wavelength in a wavelength range from 360 nm to 430 nm, and a wavelength conversion member for converting at least a portion of light emitted by the light emitting element into light specified by a spectrum having a peak wavelength in a wavelength range from 360 nm to 780 nm. The light emitting apparatus emits illumination light formed by a combination of light that is not converted by the wavelength conversion member, from among light emitted by the light emitting element, and light that is converted by the wavelength conversion member. A total energy of light having a wavelength in a range from 360 to 430 nm is between 3% and 18% of a total energy of light having a wavelength included in a range from 360 nm to 780 nm.

The present disclosure provides a novel massage gun atmosphere lamp. The massage gun atmosphere lamp includes a switch control unit, a PCB lamp control board, a sensing device, and a battery. The switch control unit is embedded onto a PCB main control board. The PCB main control board is assembled in a massage gun cavity. The PCB lamp control board is in cooperation with a lamp source, a motor, and a light-transmissive plate respectively. The sensing device is arranged in a massage gun cavity. The battery and the motor are mounted in the massage gun cavity. The PCB main control board is configured to send a level signal to the motor for rotation speed adjustment and to the PCB lamp control board for color adjustment. The lamp is convenient to use, and features high technology and smart sensing.

A sanitizing replacement LED light bulb provides visible light when powered and also provides ultraviolet light for sanitizing an area around the sanitizing LED replacement light bulb. In some embodiments, the ultraviolet light is emitted only when no motion is detected in the vicinity of the sanitizing LED replacement light bulb to prevent people and animals from being exposed to the ultraviolet light.