Abstract: An electronic button applied to a touch panel is disclosed in the present invention. The electronic button includes a switch and a transparent conductive structure. The switch is electrically connected to the touch panel for switching functions of the touch panel. The transparent conductive structure is electrically connected to the switch and disposed on a surface of the touch panel. The transparent conductive structure transmits a current, and a reference value of the current is varied when an external object contacts the transparent conductive structure, so as to drive the switch to power on and to power off the touch panel.

Abstract: A wireless transformer system comprises a primary side of AC/DC converter with power factor correction and a secondary side of a half bridge resonant DC/DC converter to power a device wirelessly.

Abstract: A non-contact transformer assembly comprises an iron core having a pole with a length longer than the total height of the transmitting coil and the receiving coil to improve the induced voltage and magnetic field of the receiving coil and achieve the high effect of flux conversion.

Abstract: An electronic device includes a plug and a main body. The plug includes a casing and a base. The casing has an opening. An extension part is formed on an inner surface of the casing. The base includes at least two conducting pieces. The main body includes a coupling member. The coupling member has a fixing structure and two pins. After the fixing structure is penetrated through the opening, the fixing structure is rotated to be moved along the extension part to a fixed location, so that plug and the main body are combined together and the two pins are respectively contacted with the conducting pieces.

Abstract: The present invention relates to a power supply circuit for driving at least one light emitting diode (LED). The power supply circuit comprises: an input unit, an active power factor corrector, a converter, an output unit and a feedback unit. The input unit is utilized to receive power signal from a power source, and the output unit is utilized to receive power transferred from the converter for driving at least one LED. The feedback unit couples to a node between the converter and the output unit, and delivers the power signal, from the converter to the output unit, back to the active power factor corrector. The active power factor corrector monitors the power signal based on the power signal from the feedback unit for stabilizing the outputting power from the output unit and thereby driving the LED.

Abstract: There is disclosed a power adapter which comprises an adapter body and a modular connector. The adapter body has a cavity forming a first opening and a second opening respectively disposed on two adjacent lateral walls of the adapter body, a first connecting member disposed on one of the lateral walls and adjacent to the first opening, and a sliding plate member having a sliding plate embedded in a slide and protrusible in said second opening. The connector is interchangeably coupled to the cavity and blocked by the sliding plate to form an electrical connection with the adapter body, and comprises a second connecting member engaged with the first connecting member.

Abstract: A computer-implemented method to perform context-sensitive incremental design rule checking (DRC) for an integrated circuit (IC). An incremental DRC engine checks design rule violations between a set of environment shapes and a set of active shapes. If no design rule violations are found, the set of active shapes will be added into the set of environment shapes. Furthermore, the incremental DRC engine can be embedded into placement tools, routing tools, or interactive layout editing tools to check design rule violations and help generate DRC error free layouts.

Abstract: There is disclosed a power adapter which comprises an adapter body and a modular connector. The adapter body has a cavity forming a first opening and a second opening respectively disposed on two adjacent lateral walls of the adapter body, a first connecting member disposed on one of the lateral walls and adjacent to the first opening, and a sliding plate member having a sliding plate embedded in a slide and protrusible in said second opening. The connector is interchangeably coupled to the cavity and blocked by the sliding plate to form an electrical connection with the adapter body, and comprises a second connecting member engaged with the first connecting member.

Abstract: An electronic device includes a plug and a main body. The plug includes a casing and a base. The casing has an opening. An extension part is formed on an inner surface of the casing. The base includes at least two conducting pieces. The main body includes a coupling member. The coupling member has a fixing structure and two pins. After the fixing structure is penetrated through the opening, the fixing structure is rotated to be moved along the extension part to a fixed location, so that plug and the main body are combined together and the two pins are respectively contacted with the conducting pieces.

Abstract: The present invention provides a click detection method for an optical system including the steps of: acquiring an image frame and calculating a quality parameter thereof; in an initial state, maintaining the initial state when the quality parameter is smaller than or equal to a first threshold while transferring to a first touch state and counting a count value when the quality parameter is larger than the first threshold; and in the first touch state, maintaining the first touch state when the quality parameter is larger than or equal to a second threshold while identifying the count value when the quality parameter is smaller than the second threshold and identifying a single click and transferring to the initial state if the count value is within a first predetermined range. The present invention further provides an optical system.

Abstract: An active heat-dissipating mechanism includes a fan module, an airflow-guiding part and an airflow shunt part. The fan module includes an airflow inlet and an airflow outlet. The airflow-guiding part is disposed at the same side of the airflow outlet of the fan module and in communication with the fan module. An airflow channel is defined by the airflow-guiding part. An airflow inhaled by the fan module is guided to a hotspot region of the electronic device through the airflow channel so as to remove the heat generated from the hotspot region. The airflow shunt part is formed on the airflow-guiding part. The airflow shunt part defines a stopping block in the airflow channel. A portion of the airflow is hindered by the stopping block and guided into a sub-hotspot region of the electronic device so as to remove the heat generated from the sub-hotspot region.

Abstract: The present invention relates to a case assembly structure. The case assembly structure includes a first case and a second case. The first case has a first connection portion including a first protrusion, a first trench and a second protrusion from an external side to an internal side thereof. The second case has a second connection portion including a third protrusion and a second trench from an external side to an internal side thereof. The first trench and the second protrusion of the first connection portion of the first case are corresponding to the third protrusion and the second trench of the second connection portion of the second case, and an inner wall of the first protrusion of the first connection portion of the first case is in contact with the external side of the second connection portion of the second case such that the first case and the second case are combined together.

Abstract: A symbol rate testing method based on signal waveform analysis is provided. A signal with a plurality of quasi bits 1 and a plurality of quasi bits 0 is received and sampled within an acquiring time. Maximum values of the quasi bits 1 are obtained by calculating sampling values of the signal at various sampling points. A minimum value among the maximum values is determined as a critical value. Whether a quasi bit 1 is a bit 1 or not is determined according to the critical value, and a total number of the bits 1 within the acquiring time is counted. Similarly, a number of the bits 0 within the acquiring time are also obtained. Thus, the symbol rate is obtained according to the above information.

Abstract: A test system and a test method thereof. The test system includes an electronic device and a test device. The electronic device includes a plurality of output interfaces and provides a corresponding test signal via the output interfaces according to a group of operation commands. The test device includes a transforming unit, a multiplexer unit, a processor unit and a plurality of test interfaces which are respectively coupled to the output interfaces. The transforming unit transforms the test signals received via the test interfaces. The multiplexer unit selects the transformed test signals. The processor unit controls the multiplexer unit to select one of the transformed test signals, and determines whether the transformed test signal being selected conforms a predetermine condition for generating a test result signal. The processor unit controls the communication unit to transmit the test result signal to the electronic device according to the test result signal.

Abstract: An active heat-dissipating mechanism includes a fan module, an airflow-guiding part and an airflow shunt part. The fan module includes an airflow inlet and an airflow outlet. The airflow-guiding part is disposed at the same side of the airflow outlet of the fan module and in communication with the fan module. An airflow channel is defined by the airflow-guiding part. An airflow inhaled by the fan module is guided to a hotspot region of the electronic device through the airflow channel so as to remove the heat generated from the hotspot region. The airflow shunt part is formed on the airflow-guiding part. The airflow shunt part defines a stopping block in the airflow channel. A portion of the airflow is hindered by the stopping block and guided into a sub-hotspot region of the electronic device so as to remove the heat generated from the sub-hotspot region.

Abstract: An electronic device includes a main body, a plug and a fixing member. The main body includes a plug-receiving portion and a plurality of conductive portions. The plug-receiving portion is defined by a first sidewall, a second sidewall and a bottom surface. The first sidewall is opposed to the second sidewall. The bottom surface is connected to the first sidewall and the second sidewall. An inclined angle between the bottom surface and at least one of the first sidewall and the second sidewall is smaller than 90 degrees. The plug includes a plurality of conductive terminals, a first slant corresponding to the first sidewall, and a second slant corresponding to the second sidewall. The fixing member is used for facilitating fixing the plug in the plug-receiving portion of the main body such that the conductive terminals of the plug are electrically connected to the conductive portions of the main body.

Abstract: An electronic device includes a main body, a plug and a fixing member. The main body includes a plug-receiving portion and a plurality of conductive portions. The plug-receiving portion is defined by a first sidewall, a second sidewall and a bottom surface. The first sidewall is opposed to the second sidewall. The bottom surface is connected to the first sidewall and the second sidewall. An inclined angle between the bottom surface and at least one of the first sidewall and the second sidewall is smaller than 90 degrees. The plug includes a plurality of conductive terminals, a first slant corresponding to the first sidewall, and a second slant corresponding to the second sidewall. The fixing member is used for facilitating fixing the plug in the plug-receiving portion of the main body such that the conductive terminals of the plug are electrically connected to the conductive portions of the main body.