Abstract: A data processing method for detection of deterioration of semiconductor process kits includes the following steps: acquiring a plurality of Raman spectra data of a semiconductor process kit and performing a plurality calculating processes on the Raman spectra data to obtain a first deterioration state determining parameter indicating the aging degree of the entire semiconductor process kit and a second deterioration state determining parameter indicating the degree of variation of the internal molecular structure of the semiconductor process kit.

Abstract: A deterioration detecting system for semiconductor process kits has a Raman spectrometer, an optical detecting unit, a Raman spectra database unit, and a controlling-computing unit. The optical detecting unit and the controlling-computing unit are both coupled to the Raman spectrometer. The Raman spectrometer detects a semiconductor process kit under detection through the optical detecting unit to obtain a scatter light having an excited Raman spectrum signal. The Raman spectra database unit stores a plurality of Raman spectrum signals corresponding to multiple known use hours, multiple known materials, multiple known material compounds, or multiple known material deterioration state, of the semiconductor process kit under detection.

Abstract: A deterioration detecting system for semiconductor process kits has a Raman spectrometer, an optical detecting unit, a Raman spectra database unit, and a controlling-computing unit. The optical detecting unit and the controlling-computing unit are both coupled to the Raman spectrometer. The Raman spectrometer detects a semiconductor process kit under detection through the optical detecting unit to obtain a scatter light having an excited Raman spectrum signal. The Raman spectra database unit stores a plurality of Raman spectrum signals corresponding to multiple known use hours, multiple known materials, multiple known material compounds, or multiple known material deterioration state, of the semiconductor process kit under detection.

Abstract: A dimmer circuit applicable for LED device and control method thereof is disclosed in the embodiments of the present invention. The dimmer circuit is applicable for controlling at least a LED device. The dimmer circuit includes a rectifier, a bleeder, a phase angle detect circuit, a constant current circuit and a programmable micro controller. The phase angle detect circuit couples to the programmable micro controller. The constant current circuit couples to the LED device The programmable micro controller generates a PWM signal according to the output signal of the phase angle detect circuit to adjust current of the constant current circuit.

Abstract: A dimmer circuit applicable for LED device and control method thereof is disclosed in the embodiments of the present invention. The dimmer circuit is applicable for controlling at least a LED device. The dimmer circuit includes a rectifier, a bleeder, a phase angle detect circuit, a constant current circuit and a programmable micro controller. The phase angle detect circuit couples to the programmable micro controller. The constant current circuit couples to the LED device The programmable micro controller generates a PWM signal according to the output signal of the phase angle detect circuit to adjust current of the constant current circuit.

Abstract: A dynamic distribution device for a battery power loop is provided. The dynamic distribution device comprises a voltage sensing module, a power management logic, a power switch circuit, a buck loop and a boost loop. The voltage-sensing module is electrically connected to a battery and is adopted for sensing a battery voltage of the battery. The power managing logic is electrically connected to the voltage-sensing module and is adopted for receiving a sensing result from the voltage-sensing module. The power switch circuit is electrically connected to the power managing logic and is adopted for operating correspondingly to a control command from the power managing logic. The buck loop is electrically connected to the power switch circuit and is adopted for lowering inputted voltage. The boost loop is electrically connected to the power switch circuit and is adopted for raising inputted voltage.

Abstract: The invention presents a battery-powered apparatus with an internal battery device and an external battery device for a portable system.

Abstract: A dynamic distribution device for a battery power loop is provided. The dynamic distribution device comprises a voltage sensing module, a power management logic, a power switch circuit, a buck loop and a boost loop. The voltage-sensing module is electrically connected to a battery and is adopted for sensing a battery voltage of the battery. The power managing logic is electrically connected to the voltage-sensing module and is adopted for receiving a sensing result from the voltage-sensing module. The power switch circuit is electrically connected to the power managing logic and is adopted for operating correspondingly to a control command from the power managing logic. The buck loop is electrically connected to the power switch circuit and is adopted for lowering inputted voltage. The boost loop is electrically connected to the power switch circuit and is adopted for raising inputted voltage.

Abstract: Disclosed is a system and method for processing data retrieval/storage, which includes a memory data BUS and a logic converter circuit adopted for switching a non-IDE electrical level into an IDE electrical level, and also for switching a address line to an IDE address line, a data line to an IDE data line, a chip select line to nIDE channel chip select line, a control line to IDE control line, and through the nIDE channel chip select line to process channel locating to a IDE device of a IDE channel. Thus, it is possible that the memory data BUS can process data retrieval/storage to the IDE devices in many IDE channels.

Abstract: A multimedia card reader is disclosed. The card reader has a USB connector; a slot, for receiving a memory card; a data storage device, for saving/retrieving/transmitting data into/from/to the memory card; and a digital signal processor; a USB controller, connected to the digital signal processor and the USB connector, the date storage device and the slot; a signal amplifier, connected to an audio signal output terminal, wherein the digital signal processor is connected to the signal amplifier and an video signal output terminal, wherein an audio or a video data is converted into an audio signal or a video signal by the digital signal processor, and wherein the audio signal is transmitted to the signal amplifier and output via audio signal output terminal or the video signal is output via video signal output terminal.