Abstract: Provided is a liquid collecting device, which comprises a collecting container, wherein the collecting container is provided with a diversion cavity for diverting a body fluid collected; on a wall of the collecting container, at least one jacket cavity configured to store a storage liquid is provided, the jacket cavity is provided around the diversion cavity, and the jacket cavity extends along an axial direction of the diversion cavity, and a cross section of the jacket cavity is annular; and the diversion cavity has an inflow port and an outflow port, and an aperture of the inflow port is larger than that of the outflow port.

Abstract: The present disclosure provides an electrolyte additive, an electrolyte and a lithium ion secondary battery containing the same. The electrolyte additive has a structure of Formula (1), wherein R1 is hydrogen, a phenyl, a cyano group, an alkyl cyano group or a C1 to C6 alkyls, and each of R2 to R5 is independently selected from hydrogen or a C1 to C6 alkyl. By means of the electrolyte additive, the electrolyte and the lithium ion secondary battery containing the same of the present disclosure, a technical effect of improving electric performance of the lithium ion secondary battery at high voltage and high temperature is achieved.

Abstract: A variable capacity compressor is provided, including: two cylinders and a middle plate; at least one flow channel provided in the middle plate, wherein one end of the flow channel is connected to an exhaust chamber of any one of the two cylinders, the other end is connected to a suction chamber of the other one of the two cylinders. In present disclosure, by setting a flow channel in the middle plate of the variable capacity compressor, the exhaust chamber of one cylinder is connected to the suction chamber of the other cylinder. When the flow channel is completely closed, the two cylinders operate independently; when the flow channel is opened, the refrigerant in the exhaust chamber flows into the suction chamber through the flow channel, that is, the upper cylinders and the lower cylinder are connected to each other, which can adjust the capacity of the compressor.

Abstract: A dual-cylinder two-stage variable capacity compressor is provided, including: a first cylinder, having an exhaust port connected to a first exhaust channel: a second cylinder, wherein the second cylinder is provided with a ventilating slider, and the ventilating slider is provided with a first gas transit channel and a second gas transit channel; wherein, when the ventilating slider is at a first connecting position, the first exhaust channel is connected to a suction channel in a second cylinder when the ventilating slider is at a second connecting position, the first exhaust channel is connected to a second exhaust channel. The compressor of the present disclosure can vary its own capacity, that is, the variation of the compressor's capacity can be realized by arranging a ventilating slider, which will meet the requirements of variation loads of the compressor in different seasons.

Abstract: A dual-cylinder two-stage variable capacity compressor is provided, including: a first cylinder, having an exhaust port connected to a first exhaust channel: a second cylinder, wherein the second cylinder is provided with a ventilating slider, and the ventilating slider is provided with a first gas transit channel and a second gas transit channel; wherein, when the ventilating slider is at a first connecting position, the first exhaust channel is connected to a suction channel in a second cylinder when the ventilating slider is at a second connecting position, the first exhaust channel is connected to a second exhaust channel. The compressor of the present disclosure can vary its own capacity, that is, the variation of the compressor's capacity can be realized by arranging a ventilating slider, which will meet the requirements of variation loads of the compressor in different seasons.

Abstract: A variable capacity compressor is provided, including: two cylinders and a middle plate; at least one flow channel provided in the middle plate, wherein one end of the flow channel is connected to an exhaust chamber of any one of the two cylinders, the other end is connected to a suction chamber of the other one of the two cylinders. In present disclosure, by setting a flow channel in the middle plate of the variable capacity compressor, the exhaust chamber of one cylinder is connected to the suction chamber of the other cylinder. When the flow channel is completely closed, the two cylinders operate independently; when the flow channel is opened, the refrigerant in the exhaust chamber flows into the suction chamber through the flow channel, that is, the upper cylinders and the lower cylinder are connected to each other, which can adjust the capacity of the compressor.

Abstract: Provided is a liquid collecting device, which comprises a collecting container, wherein the collecting container is provided with a diversion cavity for diverting a body fluid collected; on a wall of the collecting container, at least one jacket cavity configured to store a storage liquid is provided, the jacket cavity is provided around the diversion cavity, and the jacket cavity extends along an axial direction of the diversion cavity, and a cross section of the jacket cavity is annular; and the diversion cavity has an inflow port and an outflow port, and an aperture of the inflow port is larger than that of the outflow port.

Abstract: The present disclosure provides an electrolyte additive, an electrolyte and a lithium ion secondary battery containing the same. The electrolyte additive has a structure of Formula (1), wherein R1 is hydrogen, a phenyl, a cyano group, an alkyl cyano group or a C1 to C6 alkyls, and each of R2 to R5 is independently selected from hydrogen or a C1 to C6 alkyl. By means of the electrolyte additive, the electrolyte and the lithium ion secondary battery containing the same of the present disclosure, a technical effect of improving electric performance of the lithium ion secondary battery at high voltage and high temperature is achieved.

Abstract: The present disclosure provides an electrolyte additive, an electrolyte and a lithium ion secondary battery containing the same. The electrolyte additive has a structure of Formula (1), wherein R1 is hydrogen, a phenyl, a nitrile group, a cyano group substituted by one or more C1 to C6 alkyls, or a C1 to C6 alkyl optionally substituted by one or more C1 to C6 alkyls or C2 to C6 alkenyls, and each of R2 to R5 is independently selected from hydrogen or a C1 to C6 alkyl optionally substituted by one or more C1 to C6 alkyls. By means of the electrolyte additive, the electrolyte and the lithium ion secondary battery containing the same of the present disclosure, a technical effect of improving and enhancing high-temperature storage performance and high-temperature cycle performance of the lithium ion secondary battery is achieved.

Abstract: A testing system and process comprises a converged test platform for structural testing and system testing of an integrated circuit device. The testing system comprises a converged test platform supported by a baseboard of an automated test assembly. The converged test platform comprises a DUT socket for testing an integrated circuit device, at least one testing electronic component selectively electrically coupled to the DUT socket by at least one switch operable to electrically switch at least some testing signals between the automated testing assembly and the DUT socket to the at least one testing electronic component for both structural testing and system testing of the integrated circuit device within the same test flow. The switch(es) and testing electronic component(s) (e.g., an FPGA) can be reprogrammable for testing flexibility and faster through put. Associated processes and methods are provided for both class and system testing using the converged test platform for back-end and front-end testing.

Abstract: A test apparatus and method of testing a DUT are described. The apparatus includes a receiver and transmitter path each having a pair of switches that switch between a bypass position and a direct position. The bypass position is used for low frequency signals communicated through the apparatus. The direct position allows higher frequency signals to be double converted by upconversion to an IF signal and bandpass filtered before being downconverted to a predetermined frequency. Both variable and fixed LO signals are used to convert the double converted signals so that the same IF may be used independent of the higher frequency signal received or transmitted. Bandpass filtering is applied before and after amplification of the IF signal. Lowpass filtering before and after the double conversion use LPFs of different cutoff frequencies.

Abstract: In one embodiment, a device to test one or more electronic components comprises a first card comprising a first test device communicatively coupled to at least a first connector assembly positioned on the first card and a second card comprising a second test device communicatively coupled to at least a second connector assembly positioned on the second card. The at least a first connector assembly is directly communicatively coupled to the at least a second connector assembly to provide a direct communication interface between the first test device and the second test device that is not routed via a backplane. Other embodiments may be described.

Abstract: A test apparatus and method of testing a DUT are described. The apparatus includes a receiver and transmitter path each having a pair of switches that switch between a bypass position and a direct position. The bypass position is used for low frequency signals communicated through the apparatus. The direct position allows higher frequency signals to be double converted by upconversion to an IF signal and bandpass filtered before being downconverted to a predetermined frequency. Both variable and fixed LO signals are used to convert the double converted signals so that the same IF may be used independent of the higher frequency signal received or transmitted. Bandpass filtering is applied before and after amplification of the IF signal. Lowpass filtering before and after the double conversion use LPFs of different cutoff frequencies.

Abstract: A microelectronic test device comprising an organic substrate, a probe holder, and an interposer disposed between the organic substrate and the probe holder, wherein the interposer has a coefficient of thermal expansion that is less than a coefficient of thermal expansion of the organic substrate. The interposer may effectively decouple the organic substrate from probes in the probe holder, which may substantially reduce or eliminate probe misalignment due to the coefficient of thermal expansion mismatch between the organic substrate and other components of the microelectronic test device and to provide require stiffness to the organic substrate.

Abstract: A testing system and process comprises a converged test platform for structural testing and system testing of an integrated circuit device. The testing system comprises a converged test platform supported by a baseboard of an automated test assembly. The converged test platform comprises a DUT socket for testing an integrated circuit device, at least one testing electronic component selectively electrically coupled to the DUT socket by at least one switch operable to electrically switch at least some testing signals between the automated testing assembly and the DUT socket to the at least one testing electronic component for both structural testing and system testing of the integrated circuit device within the same test flow. The switch(es) and testing electronic component(s) (e.g., an FPGA) can be reprogrammable for testing flexibility and faster through put. Associated processes and methods are provided for both class and system testing using the converged test platform for back-end and front-end testing.

Abstract: In one embodiment, a device to test one or more electronic components comprises a first card comprising a first test device communicatively coupled to at least a first connector assembly positioned on the first card and a second card comprising a second test device communicatively coupled to at least a second connector assembly positioned on the second card. The at least a first connector assembly is directly communicatively coupled to the at least a second connector assembly to provide a direct communication interface between the first test device and the second test device that is not routed via a backplane. Other embodiments may be described.

Abstract: A transformer internal composite defect fuzzy diagnosis method based on gas dissolved in oil, comprising: a step of acquiring monitoring data of volume concentrations of five types of monitored feature gas; a step of determining ratio codes; a step of modifying a three-ratio method; a step of fuzzifying a boundary range; a step of calculating probabilities of the ratio codes; a step of calculating a probability of occurrence of each defect fault; and finally obtaining a fault type of a transformer.

Abstract: In accordance with one aspect of the present description, an interface between an integrated circuit device and a test controller for testing the integrated circuit device includes a plurality of boards coupled together. In one embodiment, the test interface includes a plurality of interchangeable auxiliary boards, each having test circuitry, which may be coupled to a primary board and reused as appropriate to test various integrated circuits. Other aspects are described.

Abstract: The present invention discloses a system and a method for controlling PCS voltage and frequency, wherein the system comprises a reference voltage converter, a phase-locked loop, a grid-side voltage converter, a voltage transformer, a first proportional integral controller, a second proportional integral controller, a coordinate converter and a SVPWM generator; a reference voltage converter is connected to an output terminal of a the phase-locked loop, and the output terminal of the phase-locked loop is further connected to a grid-side voltage converter; the grid-side voltage converter is connected to a high-voltage side of an isolating transformer of the electric grid via the voltage transformer; two output terminals of the grid-side voltage converter are respectively connected to the coordinate converter via two proportional integral controllers; an output terminal of the coordinate converter is connected to the SVPWM generator; an output terminal of the SVPWM generator is connected to a power switch of the

Abstract: A microelectronic test device comprising an organic substrate, a probe holder, and an interposer disposed between the organic substrate and the probe holder, wherein the interposer has a coefficient of thermal expansion that is less than a coefficient of thermal expansion of the organic substrate. The interposer may effectively decouple the organic substrate from probes in the probe holder, which may substantially reduce or eliminate probe misalignment due to the coefficient of thermal expansion mismatch between the organic substrate and other components of the microelectronic test device and to provide require stiffness to the organic substrate.