Abstract: A system for synchronizing lighting effect patterns of interactive lighting effect devices at a remote location with respect to those at local location is disclosed herein. Synchronized lighting effects produced at the remote location while watching a lighting effect show using other interactive lighting effect devices illuminated according to a script at event venue, can be achieved. Such synchronized lighting effects obtained at remote location generate a corresponding virtual simulated perception of attending same concert venue live when watching a live streaming video thereof. Low latency between lighting effect changes are produced at remote location with respect to those observed in concert venue live streaming video due to method of color control signal generation along with usage of color control pattern blending module that creates a blended video frame comprising of a color control pattern, which allows for efficient lighting effect pattern generation at remote location.

Abstract: Interactive lighting effect devices configured by an interactive lighting effect control system in an automated wireless manner on a mass scale are provided. RF data bursts are captured to illuminate interactive lighting effect devices selectively in accordance with a matched data. The matched data is formed by combining a pattern-related data of lighting effect extracted from a QR code of the event ticket with an identification address extracted from a QR code of the interactive lighting effect device, the pattern-related data of lighting effect includes a zone code. Improvisational illuminating color control change for any zone assignment for color control signal can be generated and converted to set of RGB color codes to be transmitted by the interactive lighting effect control system for broadcasting as data bursts to the interactive lighting effect devices. Different types of data acquisition interfaces are provided for obtaining the matched data.

Abstract: A system for synchronizing lighting effect patterns of interactive lighting effect devices at a remote location with respect to those at local location is disclosed herein. Synchronized lighting effects produced at the remote location while watching a lighting effect show using other interactive lighting effect devices illuminated according to a script at event venue, can be achieved. Such synchronized lighting effects obtained at remote location generate a corresponding virtual simulated perception of attending same concert venue live when watching a live streaming video thereof. Low latency between lighting effect changes are produced at remote location with respect to those observed in concert venue live streaming video due to method of color control signal generation along with usage of color control pattern blending module that creates a blended video frame comprising of a color control pattern, which allows for efficient lighting effect pattern generation at remote location.

Abstract: Interactive lighting effect devices configured by an interactive lighting effect control system in an automated wireless manner on a mass scale are provided. RF data bursts are captured to illuminate interactive lighting effect devices selectively in accordance with a matched data. The matched data is formed by combining a pattern-related data of lighting effect extracted from a QR code of the event ticket with an identification address extracted from a QR code of the interactive lighting effect device, the pattern-related data of lighting effect includes a zone code. Improvisational illuminating color control change for any zone assignment for color control signal can be generated and converted to set of RGB color codes to be transmitted by the interactive lighting effect control system for broadcasting as data bursts to the interactive lighting effect devices. Different types of data acquisition interfaces are provided for obtaining the matched data.

Abstract: A load cell touch control device includes a touch panel, a plurality of load cells and a control unit. The touch panel receives a stress applied thereon. The load cells are implemented in the touch panel to detect respective components of the stress received by the touch panel. The control unit is connected to the load cells in order to receive magnitudes of the respective components to thereby calculate a magnitude, position and motion trace of the stress on the touch panel based on the respective components detected by the load cells in the touch panel.

Abstract: A multi-dimension detector with half bridge load cells, which includes an analog to digital converter (ADC), a plurality of half bridge load cells, an analog multiplexer and a central processing unit (CPU). The CPU controls the analog multiplexer to form a plurality of full bridge load cells by selecting either two of the half bridge load cells and detect a plurality of measures corresponding to an object. The ADC converts analog signals corresponding to the plurality of measures into digital signals. The CPU determines all dimension values of the object according to the plurality of measures corresponding to the digital signals.

Abstract: A load cell touch control device includes a touch panel, a plurality of load cells and a control unit. The touch panel receives a stress applied thereon. The load cells are implemented in the touch panel to detect respective components of the stress received by the touch panel. The control unit is connected to the load cells in order to receive magnitudes of the respective components to thereby calculate a magnitude, position and motion trace of the stress on the touch panel based on the respective components detected by the load cells in the touch panel.

Abstract: A multi-dimension detector with half bridge load cells, which includes an analog to digital converter (ADC), a plurality of half bridge load cells, a multiplexer and a central processing unit (CPU). The CPU controls the multiplexer to form a plurality of full bridge load cells by selecting either-two of the half bridge load cells and detect a plurality of measures corresponding to an object. The ADC converts analog signals corresponding to the plurality of measures into digital signals. The CPU determines all dimension values of the object according to the plurality of measures corresponding to the digital signals.