Abstract:
A lighting system for dim ambience has at least one light source module, implemented in an ambience. The light source module has multiple light emitting units. Each unit is respectively controlled to produce a luminance. A luminance detecting unit detects a photonic luminance and a luminance ratio. A processing and operation module calculates a mesopic luminance according to the photonic luminance and the luminance ratio. When the photonic luminance is less than a dim-light setting value, a power control information is obtained by a fitness operation with a given condition set. The power control information is corresponding to an optimized mesopic luminance after fitness. A control unit receives the power control information to modulate the luminance of the light emitting units.
Abstract:
A light system includes a lamp, a user operation interface, a control unit and a communication unit. The user operation interface is adapted to be used by a user to select a brightness value or a color temperature value, wherein the user operation interface includes a display unit and a touch control unit. The display unit is used to output a graphical interface. The touch control unit is used to detect a touch action upon the graphical interface of the display unit. The control unit is electrically connected to the user operation interface for receiving and processing a selection of the brightness value or the color temperature value from the user operation interface. The communication unit is electrically connected to the control unit for transmitting the selection of the brightness value or the color temperature value to the lamp via a wireless protocol.
Abstract:
A lighting system for dim ambience has at least one light source module, implemented in an ambience. The light source module has multiple light emitting units. Each unit is respectively controlled to produce a luminance. A luminance detecting unit detects a photonic luminance and a luminance ratio. A processing and operation module calculates a mesopic luminance according to the photonic luminance and the luminance ratio. When the photonic luminance is less than a dim-light setting value, a power control information is obtained by a fitness operation with a given condition set. The power control information is corresponding to an optimized mesopic luminance after fitness. A control unit receives the power control information to modulate the luminance of the light emitting units.
Abstract:
The present invention relates to an improved structure for a chip cooling fan, in which the cooling fan assembly comprises a fan, magnets, bearing housing, bearing, printed circuit board, spindle and silicon steel-sheet winding and is characterized in: The said printed circuit board is laid outside the fan body assembly and connected to the fan by a lead. Thus, the innovative design of the present invention is capable to prevent from erosion and damage resulted from the said PCB which is caused by heat, magnetism shock as well as from both the bearing oil and dust absorbed by the fan assembly itself accordingly.
Abstract:
An optical interactive panel includes a cladding layer, a first waveguide array, a second waveguide array, a first set of image sensor, and a second set of image sensor. The cladding layer has a first index of refraction. The first waveguide array has first waveguide channels formed on the cladding layer, wherein the first waveguide channels have a second index of refraction less than the first index of refraction, and extending at a first direction. The second waveguide array has second waveguide channels, formed on the cladding layer and extending at a second direction. The first set of image sensor detects a first set of light signals from the first waveguide channels to determine a first-direction location. The second set of image sensor detects a second set of light signals from the second waveguide channels to determine a second-direction location.
Abstract:
A system, a server, and a method for administrating a remote device are provided. The system includes a target device and a server. The server is coupled to the target device. The server includes a database and an event notice interface. A command content of a remote device administration command to be transmitted to the target device is recorded into the database, and a command number of the remote device administration command is recorded into the event notice interface. The server checks the event notice interface and sends the command content from the database to the target device according to the event notice interface.
Abstract:
An optical interactive panel includes a cladding layer, a first waveguide array, a second waveguide array, a first set of image sensor, and a second set of image sensor. The cladding layer has a first index of refraction. The first waveguide array has first waveguide channels formed on the cladding layer, wherein the first waveguide channels have a second index of refraction less than the first index of refraction, and extending at a first direction. The second waveguide array has second waveguide channels, formed on the cladding layer and extending at a second direction. The first set of image sensor detects a first set of light signals from the first waveguide channels to determine a first-direction location. The second set of image sensor detects a second set of light signals from the second waveguide channels to determine a second-direction location.