Abstract: An array of piezoelectric micromachined ultrasonic transducers is used for blood pressure monitoring.

Abstract: A solid-liquid separation system having a filter cylinder, a filter cloth laying assembly, an assembly for carrying and moving the filter cylinder, a squeezing assembly, and an assembly for laying a filter cloth, unloading materials and rolling up a filter cloth. The assembly for carrying and moving the filter cylinder is located below the filtering cylinder and includes a working position A and a working position B, and the squeezing assembly is located above the filtering cylinder at the working position B. The filter cloth laying assembly includes a laying and folding component and a dispensing component, and the dispensing component is located above the filter cylinder. The laying and folding component is used for laying a filter cloth in the filter cylinder, and the dispensing component is used for spraying downward materials to be treated onto the filter cloth.

Abstract: An RF biosensing system using an RF biosensor with glucose-responsive hydrogel-based microneedles can minimally invasively contact the epidermis/dermis/hypodermis of the skin or the skin surface/fat/muscle in vivo by using glucose-responsive hydrogel-based microneedles provided on the bottom of a flexible substrate of an RF biosensor using resonant frequencies within 400˜3,000 MHZ, detect and transmit the sensing signal to a reader antenna and a reader antenna sensing circuit through a readout coil by RF biosensing and wireless transmission through EM coupling of RF biosensors, and measure the sensing signals by a vector network analyzer (VNA), thereby providing biosensing of proteins, glucose, and fats within the skin in accordance with changes in capacitances of the sensing antenna circuit (LC resonator) of the RF biosensor, resonant frequency shift of the LC resonator, and changes in S-parameters.

Abstract: An apparatus includes a substrate of a first conductivity, a drift layer of a second conductivity formed over the substrate, a body region of the first conductivity formed in the drift layer, a source region of the second conductivity formed in the body region, a drain region of the second conductivity formed in the drift layer, a gate dielectric layer formed over the body region and the drift layer, a gate formed over the gate dielectric layer, a first dielectric layer extending from a top surface of the drift layer to a top surface of the gate, and a field plate slit structure formed over the dielectric layer, wherein the field plate slit structure comprises a plurality of slits.

Abstract: An electronic device and a power module are provided. The power module includes a power housing; a circuit board, connected to the power housing and arranged with a plurality of pads on a surface of the circuit board facing the power housing; an electronic component, arranged on the circuit board and comprising a plurality of pins; wherein the plurality of pins are soldered and connected to the plurality of pads; and a first sealant layer, arranged on the surface of the circuit board facing the power housing, and covering the plurality of pins and the plurality of pads.

Abstract: An electronic device and a power module are provided. The power module includes a power housing; a circuit board, connected to the power housing and arranged with a plurality of pads on a surface of the circuit board facing the power housing; an electronic component, arranged on the circuit board and comprising a plurality of pins; wherein the plurality of pins are soldered and connected to the plurality of pads; and a first sealant layer, arranged on the surface of the circuit board facing the power housing, and covering the plurality of pins and the plurality of pads.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: A high voltage LDMOS device having high side source voltage, an n type buried layer and a p type buried layer situated on the interface between a p type substrate and an n type epitaxial layer; a lateral surface of the n type buried layer and a lateral surface of the p type buried layer not in contact, and are distant from one another with a distance, thereby increasing the withstand voltage between the n type buried layer and the p type buried layer; the p type buried layer and the drain overlap at least partially in a vertical direction, enabling the p type buried layer to exert a reduced surface field action on the drain, to increase the withstand voltage of the drain against the source; the source and the body terminal centrally on top of the n type buried layer.

Abstract: A high voltage LDMOS device having high side source voltage, an n type buried layer and a p type buried layer situated on the interface between a p type substrate and an n type epitaxial layer; a lateral surface of the n type buried layer and a lateral surface of the p type buried layer not in contact, and are distant from one another with a distance, thereby increasing the withstand voltage between the n type buried layer and the p type buried layer; the p type buried layer and the drain overlap at least partially in a vertical direction, enabling the p type buried layer to exert a reduced surface field action on the drain, to increase the withstand voltage of the drain against the source; the source and the body terminal centrally on top of the n type buried layer.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: A network monitoring device configured to collect a new packet from one or more observation points of a network and to compare the new packet with a list of a number of received packets based on a packet arrival rate and to identify a duplicate packet. In particular, the number of received packets in the list is equivalent to a number of packets received within a time period, i.e. the packet arrival rate. Stated differently, the network monitoring device is to compare the new packets with received packets stored in a queue of a buffer and wherein the queue has a size based on a packet arrival rate collected at one or more observation points. In addition, the time period is further adjusted according to a threshold value. The threshold value is a variable parameter that can be adjusted to compensate for different network deployment. In one embodiment, the threshold value is a time value that is not more than a transmission time of a TCP retransmitted packet.

Abstract: A service distribution method includes the steps of: firstly generating, by a management system, a corresponding configuration file from service information of a user, and sending the configuration file to an Optical Network Termination (ONT) of the user through an Optical Line Terminal (OLT); and then performing, by the ONT, corresponding configuration in accordance with the configuration file. A service distribution system and a management system are provided. The invention is applied to enable service distribution with good extendibility.

Abstract: One embodiment of the present invention is directed to the use of an mTOR inhibitor, such as farnesylthiosalicylic acid (FTS), to prevent a hormonal adaptive response during hormonal deprivation treatment of a hormonal responsive cancer.