Patent classifications
H05B47/17
PORTABLE IPL STERILIZER AND IPL TOILET BOWL STERILIZER
Provided is a portable IPL sterilizer comprising: a body partitioned into a central region and a peripheral region surrounding at least a portion of the central region; a xenon lamp light source for sterilization provided in the central region of the body; and a light-shielding comb part provided in the peripheral region of the body.
LOAD CONTROL DEVICE HAVING AN ILLUMINATED ROTARY KNOB
A wall-mountable load control device may include an illuminated rotary knob for providing a nightlight feature. The load control device may be configured to control an intensity of a lighting load. The load control device may include a yoke adapted to be mounted to an electrical wall box, an enclosure attached to the yoke, a faceplate attached to the yoke and having an opening, a mounting member attached to the yoke, and/or a potentiometer located within the enclosure and having a shaft extending through an opening in the yoke and the opening of the faceplate. The load control device may include a collar attached to the boss of the mounting member and surrounding the shaft of the potentiometer. The mounting member may be configured to conduct light from at least one light source housed within the enclosure to illuminate the faceplate.
SYSTEM AND METHOD FOR ACHIEVING SYNCHRONIZED AUDIO AND IMAGE CONTROL OF LIGHTING
A system and method for achieving synchronized audio and image control of lighting is provided. The system includes: audio-image information acquisition and processing software of an audio-image playback device for achieving acquisition, analysis, and processing of audio and screen image information, and encapsulating the audio and screen image information into a synchronization control instruction according to a predetermined control strategy; a cloud server; and a lighting device for receiving the synchronization control instruction transmitted from the audio-image information acquisition and processing software to separate out audio and screen image color control instructions, and controlling colors and rhythm changes of a lamp according to a predetermined control strategy.
SYSTEM AND METHOD FOR ACHIEVING SYNCHRONIZED AUDIO AND IMAGE CONTROL OF LIGHTING
A system and method for achieving synchronized audio and image control of lighting is provided. The system includes: audio-image information acquisition and processing software of an audio-image playback device for achieving acquisition, analysis, and processing of audio and screen image information, and encapsulating the audio and screen image information into a synchronization control instruction according to a predetermined control strategy; a cloud server; and a lighting device for receiving the synchronization control instruction transmitted from the audio-image information acquisition and processing software to separate out audio and screen image color control instructions, and controlling colors and rhythm changes of a lamp according to a predetermined control strategy.
MANAGING A LIGHT SOURCE OF A POWER ADAPTER OF AN INFORMATION HANDLING SYSTEM
In one embodiment, a method for managing a light source of a power adapter includes: determining that the power adapter is coupled to a power supply; causing the light source to be in a first illuminated state indicating that the power adapter is receiving the power from the power supply; determining that a first instance of a threshold period of inactivity has occurred; causing the light source to be in an unilluminated state; determining that the power adapter is communicably coupled to an information handling system; causing the light source to be in a second illuminated state indicating that the power adapter is providing the power to the information handling system; determining that a second instance of the threshold period of inactivity has occurred; and causing the light source to be in the unilluminated state.
MANAGING A LIGHT SOURCE OF A POWER ADAPTER OF AN INFORMATION HANDLING SYSTEM
In one embodiment, a method for managing a light source of a power adapter includes: determining that the power adapter is coupled to a power supply; causing the light source to be in a first illuminated state indicating that the power adapter is receiving the power from the power supply; determining that a first instance of a threshold period of inactivity has occurred; causing the light source to be in an unilluminated state; determining that the power adapter is communicably coupled to an information handling system; causing the light source to be in a second illuminated state indicating that the power adapter is providing the power to the information handling system; determining that a second instance of the threshold period of inactivity has occurred; and causing the light source to be in the unilluminated state.
Illumination control system and method, and illumination device
An illumination control system and method and an illumination device are provided. The illumination control system includes a plurality of illumination nodes which are capable of communicating with each other. The illumination node is provided therein with a wireless master control apparatus, a drive apparatus connected with the wireless master control apparatus, and at least one illumination unit controlled by the drive apparatus. The wireless master control apparatus is configured to detect a brightness of a current environment; define an illumination scenario for the illumination node; adjust an output parameter of the drive apparatus in the illumination node according to the brightness and the illumination scenario; and send a lighting instruction to a remaining illumination node of the illumination control system. The wireless master control apparatus is further configured to receive the lighting instruction.
Illumination control system and method, and illumination device
An illumination control system and method and an illumination device are provided. The illumination control system includes a plurality of illumination nodes which are capable of communicating with each other. The illumination node is provided therein with a wireless master control apparatus, a drive apparatus connected with the wireless master control apparatus, and at least one illumination unit controlled by the drive apparatus. The wireless master control apparatus is configured to detect a brightness of a current environment; define an illumination scenario for the illumination node; adjust an output parameter of the drive apparatus in the illumination node according to the brightness and the illumination scenario; and send a lighting instruction to a remaining illumination node of the illumination control system. The wireless master control apparatus is further configured to receive the lighting instruction.
Networking diagnostics using color output of lamps
Devices of a load control system may communicate with each other via a network. The load control system may include different control devices, such as load control devices, input devices, or other devices capable of communicating with each other to perform load control. These control devices may be capable of providing feedback to a user that indicates different network information that may be used for network diagnostics and/or configuration. For example, a lighting control device may be capable of providing feedback via a corresponding lighting load that indicates network information that may be used in network diagnostics and/or configuration.
Solid-State Lighting With Data Communication Controls
A light-emitting diode (LED) luminaire comprising a battery-backup portion is used to replace a luminaire operated only with alternate-current (AC) mains. The battery-backup portion comprises a rechargeable battery, a self-diagnostic circuit, and a front-end communication circuit. The self-diagnostic circuit comprises timers and is configured to provide test schedules and to auto-evaluate battery performance according to the test schedules with test results stored. The LED luminaire further comprises a remote user interface and a concentrator communication circuit configured to communicate with the front-end communication circuit configured to send the test results to the concentrator communication circuit as soon as a rechargeable battery test is performed. When the remote control signals are initiated by the remote user interface with spread-spectrum modulated signals transmitted, the front-end communication circuit can demodulate such signals and subsequently send commands to the self-diagnostic circuit to respond accordingly.