Abstract: The present invention discloses a triazolone compound of formula (I) and pharmaceutical use thereof. Such compounds have a strong agonistic effect on PPAR? and PPAR?, so the compounds or the pharmaceutically acceptable salts, the tautomers, the mesomers, the racemates, the stereoisomers, the metabolites, the metabolic precursors, the prodrugs or the solvates thereof can be applied to the preparation of a PPAR?/? dual agonist for preventing or treating diseases mediated by PPAR? and/or PPAR?.

Abstract: Provided are a hydantoin compound as represented by formula (I) or a pharmaceutically acceptable salt thereof and the medical use thereof. The compound has a strong agonistic action on PPAR? and PPAR?, has a good selectivity to PPAR?, and has good pharmacokinetic properties. The compound or a pharmaceutically acceptable salt, prodrug, deuterated compound or solvate thereof can be used for preparing a PPAR?/? dual agonist, and is used for preparing a drug for preventing or treating diseases mediated by PPAR? and/or PPAR?.

Abstract: The present utility model provides an optical element, comprising: a light entry surface; a first reflective surface and a second reflective surface; a light exit surface; and at least one connecting surface, located between the first reflective surface and/or the second reflective surface on the one hand and the light exit surface on the other, wherein the connecting surface at least partly comprises an enhanced reflection part for expanding a maximum exit angle of emergent light exiting via the light exit surface. Advantages: there is no need to process a surface at the light exit surface, so the range of applicability of the optical element is increased; moreover, the optical element according to the present utility model has a greater distance between the light exit surface and light entry surface thereof, i.e. can be thicker, so the optical element can adapt to a greater variety of shapes.

Abstract: A subthreshold-based MOSFET temperature sensor is provided for generating a subthreshold leakage current that is proportional to a difference between a gate-to-source voltage of a first transistor and a gate-to-source voltage of a second transistor. The subthreshold leakage current is mirrored to a detector for a temperature determination.

Abstract: In one aspect, an example methodology implementing the disclosed techniques may include, by a first computing device hosting an application that is being executed on a second computing device, detecting a start of a password input to the application, wherein the password input occurs during a session for sharing a screen of the second computing device. The method may also include, responsive to the detection, sending, by the first computing device to the second computing device, a notification to suspend the sharing of the screen of the second computing device. The application may be a virtual application. The second computing device may be a mobile device.

Abstract: A device includes a first plurality of MEOL interconnects coupled to a second node that extends in a first direction. The first plurality of MEOL interconnects includes first and second subsets of MEOL second-terminal interconnects. The device includes a second plurality of MEOL interconnects coupled to a first node that extends in the first direction. The second plurality of MEOL interconnects includes first and second subsets of MEOL first-terminal interconnects. The first subsets of MEOL first-terminal and second-terminal interconnects are interleaved and are a first subset of interleaved MEOL interconnects. The second subsets of MEOL first-terminal and second-terminal interconnects are interleaved and are a second subset of interleaved MEOL interconnects. The device includes at least one of a first plurality of gate interconnects or a first plurality of OD regions extending in a second direction orthogonal to the first direction between the first and second subsets of interleaved MEOL interconnects.

Abstract: The present utility model provides an optical element, comprising: a light entry surface; a first reflective surface and a second reflective surface; a light exit surface; and at least one connecting surface, located between the first reflective surface and/or the second reflective surface on the one hand and the light exit surface on the other, wherein the connecting surface at least partly comprises an enhanced reflection part for expanding a maximum exit angle of emergent light exiting via the light exit surface. Advantages: there is no need to process a surface at the light exit surface, so the range of applicability of the optical element is increased; moreover, the optical element according to the present utility model has a greater distance between the light exit surface and light entry surface thereof, i.e. can be thicker, so the optical element can adapt to a greater variety of shapes.

Abstract: A D-type flip-flop (DFF) includes an input circuit having a plurality of transistors configured to receive a clock signal and a data signal, a first inverter (INV1) having a pair of transistors, the first inverter configured to receive an input voltage (x) from the input circuit at a first inverter input, the first inverter configured to provide an output voltage (y) to a first inverter output, a second inverter (INV2) coupled to the first inverter (INV1), the second inverter having a second inverter input and a second inverter output, the second inverter input coupled to the first inverter output, a third inverter (INV3) coupled to the second inverter (INV2), the third inverter having a third inverter input and a third inverter output, and a current device coupled to the first inverter output, the current device configured to provide a current at the first inverter output.

Abstract: Disclosed are the preparing method of a pentacyclic triterpenoid saponin compound and a drug composition, and in particular the method of the pentacyclic triterpenoid saponin compounds as shown in formulae (I) to (XVI) in the preparation of a drug for preventing or treating a disease mediated by AMPK and/or ERR?, comprising the preparation of a drug for preventing or treating diseases such as a liver disease, respiratory system disease, metabolic disease, autoimmune disease, cardiovascular and cerebrovascular disease, kidney disease, central nervous system disease or muscular dystrophy. The definition of formulae (I) to (XVI) is the same as the definition in the specification.

Abstract: A D-type flip-flop (DFF) includes an input circuit having a plurality of transistors configured to receive a clock signal and a data signal, a first inverter (INV1) having a pair of transistors, the first inverter configured to receive an input voltage (x) from the input circuit at a first inverter input, the first inverter configured to provide an output voltage (y) to a first inverter output, a second inverter (INV2) coupled to the first inverter (INV1), the second inverter having a second inverter input and a second inverter output, the second inverter input coupled to the first inverter output, a third inverter (INV3) coupled to the second inverter (INV2), the third inverter having a third inverter input and a third inverter output, and a current device coupled to the first inverter output, the current device configured to provide a current at the first inverter output.

Abstract: A D-type flip-flop (DFF) includes an input circuit having a plurality of transistors configured to receive a clock signal and a data signal, a first inverter (INV1) having a pair of transistors, the first inverter configured to receive an input voltage (x) from the input circuit at a first inverter input, the first inverter configured to provide an output voltage (y) to a first inverter output, a second inverter (INV2) coupled to the first inverter (INV1), the second inverter having a second inverter input and a second inverter output, the second inverter input coupled to the first inverter output, a third inverter (INV3) coupled to the second inverter (INV2), the third inverter having a third inverter input and a third inverter output, and a current device coupled to the first inverter output, the current device configured to provide a current at the first inverter output.

Abstract: Methods, systems, and computer program products for enhancing a plurality of electronic communication systems for a plurality of users include, for example, providing data regarding at least one project, and linking the data regarding the at least one project with the plurality of electronic communication systems regarding the plurality of electronic communications for the plurality of users.

Abstract: Methods, systems, and computer program products for enhancing a plurality of electronic communication systems for a plurality of users include, for example, providing data regarding at least one project, and linking the data regarding the at least one project with the plurality of electronic communication systems regarding the plurality of electronic communications for the plurality of users.

Abstract: Methods, systems, and computer program products for enhancing a plurality of electronic communication systems for a plurality of users include, for example, providing data regarding at least one project, and linking the data regarding the at least one project with the plurality of electronic communication systems regarding the plurality of electronic communications for the plurality of users.

Abstract: An apparatus includes a first plurality of low noise amplifiers (LNAs) and a cascaded switch configured to route outputs of the first plurality of LNAs to a second plurality of LNAs.

Abstract: Certain aspects of the present disclosure provide apparatus and techniques for analog-to-digital conversion using a time-to-digital converter (TDC). For example, certain aspects provide a quantizer using a TDC. The quantizer may include at least one first capacitive element and a set of switches configured to selectively couple a first terminal and a second terminal of the at least one first capacitive element to at least one input voltage source. The TDC may also include a reference voltage source, at least one switch coupled between the second terminal of the at least one first capacitive element and an output of the reference voltage source, a current source selectively coupled to the first terminal of the at least one first capacitive element, and a voltage sense circuit coupled to the first terminal of the at least one first capacitive element.

Abstract: An apparatus includes a first plurality of low noise amplifiers (LNAs) and a cascaded switch configured to route outputs of the first plurality of LNAs to a second plurality of LNAs.

Abstract: Certain aspects of the present disclosure generally relate to a low voltage, accurate current mirror, which may be used for distributed sensing of a remote current in an integrated circuit (IC). One example current mirror typically includes a first pair of transistors, a second pair of transistors in cascode with the first pair of transistors, a switching network coupled to the second pair of transistors, and a third pair of transistors coupled to the switching network. An input node between the first and second pairs of transistors may be configured to receive an input current for the current mirror, and an output node at the first pair of transistors may be configured to sink an output current for the current mirror, proportional to the input current. This current mirror architecture offers a hybrid low-voltage/high-voltage solution, tolerates low input voltages, provides high output impedance, and offers low area and power consumption.

Abstract: An apparatus includes a first plurality of low noise amplifiers (LNAs) and a cascaded switch configured to route outputs of the first plurality of LNAs to a second plurality of LNAs.

Abstract: An electronic device includes an electronic component and a heat dissipating casing configured to dissipate heat from the electronic component. The casing includes top and bottom sides of the heat dissipating casing forming a sealed chamber, and a pore structure formed within the sealed chamber. The sealed chamber is configured to receive a working medium and the pore structure is configured to absorb at least a portion of the working medium, whereby the heat generated from the electronic component is dissipated by a phase change of the working medium.