Abstract: A wireless electronic label comprises a display module, a rectenna module and a control drive module. The display module has a display surface. The rectenna module is disposed on the display surface of the display module. The rectenna module is used to receive an electromagnetic wave signal and convert it into an electrical energy signal. The rectenna module is made of light-transmitting electronically conductive material. The control drive module is used to convert the electrical energy signal into electrical energy to power the wireless electronic label and to send a command signal to the display module. The display module is further used to display a label signal on the display surface according to the command signal.

Abstract: A wireless energy transmission device and system. The wireless energy transmission device comprises a substrate, a feed layer and dielectric resonant component. The feed layer is formed on the substrate and has a signal feed-in part and an antenna part formed on the feed layer. Wherein an signal feed-in part is used to introduce the energy transmission signal and the energy transmission signal is emitted by the antenna part. The dielectric resonant component is disposed on the feed layer, and the dielectric resonant component covers the antenna part.

Abstract: A semiconductor includes a semiconductor substrate and pillar type capacitors. The semiconductor substrate includes first connecting pads and second connecting pads. The second connecting pads are disposed on the first connecting pads respectively, and the pillar type capacitors are disposed on the second connecting pads respectively. A first ends of the pillar type capacitors are connected to the second connecting pads respectively, and a second ends of the pillar type capacitors area at the opposite side of the first ends. The distance between the first end and the second end of each of the pillar type capacitors is from 1 micrometer to 1.8 micrometer. A manufacturing method is also provided.

Abstract: An echo cancellation circuit is coupled to a receiving circuit and a transmitting circuit of an electronic device, and the transmitting circuit includes an output transistor. The echo cancellation circuit includes first and second transistors, first and second resistor-capacitor networks (RC networks), and first and second resistors. The first transistor has a first gate, a first drain and a first source. The second transistor has a second gate, a second drain and a second source. The first drain and the second drain are coupled to the receiving circuit. The first RC network is coupled between the gate of the output transistor and the first gate. The second RC network is coupled between the first gate and the second gate. The first resistor is coupled between the first source and a reference voltage. The second resistor is coupled between the second source and the reference voltage.

Abstract: An electromagnetic wave shielding film having a wireless energy conversion function is disclosed, which is attached to an exterior surface of the door of a microwave oven and used to absorb electromagnetic waves released by the microwave oven during operation. The electromagnetic wave shielding film comprises: a substrate carrier; a first substrate layer, provided on one side of the substrate carrier, where a wireless energy conversion unit is provided in the first substrate layer and is used to receive the electromagnetic waves and covert the electromagnetic waves to DC electrical energy; and an optically variable assembly, provided on the other side of the substrate carrier, where the optically variable assembly comprises an electrochromic layer and an electrode layer; the electrode layer is used to receive the DC electrical energy from the wireless energy conversion unit and drive the electrochromic layer to change its light transmission property.

Abstract: A semiconductor includes a semiconductor substrate and pillar type capacitors. The semiconductor substrate includes first connecting pads and second connecting pads. The second connecting pads are disposed on the first connecting pads respectively, and the pillar type capacitors are disposed on the second connecting pads respectively. A first ends of the pillar type capacitors are connected to the second connecting pads respectively, and a second ends of the pillar type capacitors area at the opposite side of the first ends. The distance between the first end and the second end of each of the pillar type capacitors is from 1 micrometer to 1.8 micrometer. A manufacturing method is also provided.

Abstract: The present invention provides a transceiver. The transistor is coupled to a transmission line. The transceiver includes a variable resistor set, a transmitter module, a receiver module, and a digital signal processor. The transmitter module has an output terminal coupled to the variable resistor set and the transmission line. The transmitter module includes a first digital-to-analog converter configured to output an emission current. The receiver module has an input terminal coupled to the transmitter module and the transmission line. When the emission current is fed into the transmission line, a far-end echo is fed into the receiver module. An amplitude of the far-end echo is associated with a resistance value of the transmission line. The digital signal processor adjusts a current value of the emission current from a first default current value to a second default current value based on the amplitude of the far-end echo.

Abstract: A semiconductor includes a semiconductor substrate and pillar type capacitors. The semiconductor substrate includes first connecting pads and second connecting pads. The second connecting pads are disposed on the first connecting pads respectively, and the pillar type capacitors are disposed on the second connecting pads respectively. A first ends of the pillar type capacitors are connected to the second connecting pads respectively, and a second ends of the pillar type capacitors area at the opposite side of the first ends. The distance between the first end and the second end of each of the pillar type capacitors is from 1 micrometer to 1.8 micrometer. A manufacturing method is also provided.

Abstract: A method for making a soft carbon includes providing a coke, and subjecting the coke to a carbonization process. The carbonization process includes a preliminary calcination treatment conducted by calcining the coke at a first temperature ranging from 800° C. to 1000° C. to obtain a pre-calcinated coke, followed by a main calcination treatment conducted by calcining the pre-calcinated coke at a second temperature ranging from 1000° C. to 1200° C., and/or a surface-modifying calcination treatment conducted by calcining the pre-calcinated coke in the presence of a carbonaceous material for modifying surfaces thereof at a third temperature ranging from 1000° C. to 1200° C. A soft carbon made by the method is also disclosed.

Abstract: The present invention provides a transceiver. The transistor is coupled to a transmission line. The transceiver includes a variable resistor set, a transmitter module, a receiver module, and a digital signal processor. The transmitter module has an output terminal coupled to the variable resistor set and the transmission line. The transmitter module includes a first digital-to-analog converter configured to output an emission current. The receiver module has an input terminal coupled to the transmitter module and the transmission line. When the emission current is fed into the transmission line, a far-end echo is fed into the receiver module. An amplitude of the far-end echo is associated with a resistance value of the transmission line. The digital signal processor adjusts a current value of the emission current from a first default current value to a second default current value based on the amplitude of the far-end echo.

Abstract: An echo cancellation circuit is coupled to a receiving circuit and a transmitting circuit of an electronic device, and the transmitting circuit includes an output transistor. The echo cancellation circuit includes first and second transistors, first and second resistor-capacitor networks (RC networks), and first and second resistors. The first transistor has a first gate, a first drain and a first source. The second transistor has a second gate, a second drain and a second source. The first drain and the second drain are coupled to the receiving circuit. The first RC network is coupled between the gate of the output transistor and the first gate. The second RC network is coupled between the first gate and the second gate. The first resistor is coupled between the first source and a reference voltage. The second resistor is coupled between the second source and the reference voltage.

Abstract: Long-acting agonistic analogs for CLR/RAMP receptors are provided that have an extended half-live in vivo.

Abstract: Long-acting agonistic analogs for CLR/RAMP receptors are provided that have an extended half-live in vivo.

Abstract: The present invention provides a densifying agent adopted a total weight of a refined pitch which is 100 as a basis, the composition of the refined pitch includes 19-30 toluene insolubles (TI) by weight, 0.1˜0.3 quinoline insolubles (QI) by weight, 0˜0.001 ash by weight and 18˜30 quinoline solubles (QS) by weight, in which the temperature of the softening point of the refined pitch is in the range of about 120° C. to 140° C. Accordingly, the amount of the toluene insolubles (TI) and the small amount of the quinoline insolubles (QI) can be mixed with the carbon-based material to increase the density of the carbon-based material, and the content of the quinoline solubles (QS) is used for adjusting the binding effect of the densifying agent with the binder.

Abstract: The disclosure provides a method, mobile electronic device, and computer readable medium for operating the mobile electronic device having a motion sensor, touch sensor, microcontroller, and processor. The method includes the following steps. The motion sensor detects a motion and generates motion data in response to the detected motion. The touch sensor detects a fingerprint and generates fingerprint data in response to the detected fingerprint. The microcontroller compares the generated motion data with enrolled motion data, and one of the microcontroller and the processor compares the generated fingerprint data with enrolled fingerprint data, where the enrolled fingerprint data and the enrolled motion data including the first motion data are prestored in the mobile electronic device. When the generated motion data matches the first motion data and the generated fingerprint data matches the enrolled fingerprint data, the processor performs a first action in associated with the first motion data.

Abstract: Long-acting agonistic analogs for CLR/RAMP receptors are provided that have an extended half-live in vivo.

Abstract: Long-acting agonistic analogs for CLR/RAMP receptors are provided that have an extended half-live in vivo.

Abstract: An electrical connector having a circuit board and elastic pieces is provided. The elastic pieces are disposed on the circuit board. Each elastic piece includes contact portions, fixing portions and insulating portions. The fixing portions are fixed on the circuit board and electrically connected to the circuit board. The contact portions are connected to corresponding fixing portions and are protruded from the fixing portions along a direction away from the circuit board. Each insulating portion is connected to two adjacent fixing portions, so as to connect and electrically insulate the fixing portions. Moreover, an electronic device including the above-mentioned connector is also provided.

Abstract: The disclosure provides a method, mobile electronic device, and computer readable medium for operating the mobile electronic device having a motion sensor, touch sensor, microcontroller, and processor. The method includes the following steps. The motion sensor detects a motion and generates motion data in response to the detected motion. The touch sensor detects a fingerprint and generates fingerprint data in response to the detected fingerprint. The microcontroller compares the generated motion data with enrolled motion data, and one of the microcontroller and the processor compares the generated fingerprint data with enrolled fingerprint data, where the enrolled fingerprint data and the enrolled motion data including the first motion data are prestored in the mobile electronic device. When the generated motion data matches the first motion data and the generated fingerprint data matches the enrolled fingerprint data, the processor performs a first action in associated with the first motion data.

Abstract: A location display method, a portable communication apparatus using the method, and a recording medium using the method are provided. The method is adapted for the portable communication apparatus having a positioning unit and a touch screen. In the method, the portable communication apparatus is positioned to obtain first location information by using the positioning unit. Next, a communication interface is displayed on the touch screen to proceed a call, in which the communication interface displays the first location information. Furthermore, a location sharing key may also be displayed in the communication interface, and a selecting operation performed on the location sharing key is received by using the touch screen, and according to contact information of an opposite party of the call, the first location information is sent to the opposite party and/or second location information sent by the opposite party is received.