Abstract: A flexible two-phase conversion heat transfer device includes a main body enclosing a chamber. A working liquid is received in the chamber. A capillary structure body is disposed in the chamber. The main body has at least one bellows section. The bellows section has multiple waved stripes. The waved stripes at least have a waved stripe feature including a waved stripe height or a waved stripe width or a waved stripe pitch between each two adjacent waved stripes. By means of the different waved stripe features, the main body is bendable by an angle ranging from 0-180 degrees without interference between the waved stripes.

Abstract: An example operation may include one or more of storing an index that comprises identifiers of role-based access privileges for a plurality of users with respect to a database, receiving a database query associated with a user from a software program, identifying data records within the database that the user has permission to access based on database accessibility rights of the user stored within the index, prior to execution of the database query, loading the identified data records into the memory and filtering out other data records from the database which the user does not have permission to access, and executing the database query on the identified data records loaded from the database and returning query results from the execution to the software program.

Abstract: Various aspects of the present disclosure generally relate to wireless communication. In some aspects, a user equipment may determine at least one of a downlink path loss value or an uplink path loss value associated with a base station; receive system information, a semi-persistently configured grant via RRC or a dynamic uplink grant via DCI from the base station, wherein the RRC signaling or the dynamic uplink grant identifies a power control value associated with one user or a plurality of users associated with the base station; and determine a transmit power for a data or control transmission based at least in part on at least one of the downlink path loss value or the uplink path loss value and the power control value. Numerous other aspects are provided.

Abstract: An LED driving device with an adjustable dimming depth is provided. The LED driving device includes an LED driver and a dimming depth control circuit. The LED driver includes a dimming control circuit and a driving circuit. The dimming control circuit generates a first pulse-width modulation (PWM) signal according to a first brightness indication signal. The driving circuit drives a first light source and adjusts a brightness of the first light source. A duty ratio of the first PWM signal and the first driving current have a first relationship therebetween. The dimming depth control circuit includes a first variable resistance circuit, and the first variable resistance circuit controls a magnitude of a first variable resistance between a first current sampling terminal and a ground terminal according to a first dimming depth control signal. The first relationship defines a first dimming depth that varies with the first variable resistance.

Abstract: The present disclosure provides a quantum dot diffuser plate and manufacturing method thereof, including a quantum dot layer, and the upper surface and the lower surface of the quantum dot layer are covered with protective layers. The mass percentage of each raw material of the quantum dot layer is plastic raw material 90-99%, stabilizer 0.01-1%, organosilicon 0.1-3%, inorganic diffusing agent 0.1-3%, diffusing oil 0.1-3%, styrene-butadiene copolymer 0.1-2%, magnesium silicate minerals 0.1-6%, quantum dots 0.01-1%, and titanium dioxide 0.2-5%. The mass percentage of each raw material of the protective layer is plastic raw material 90-99%, stabilizer 0.01-1%, organosilicon 0.1-3%, inorganic diffusing agent 0.1-3%, diffusing oil 0.1-3%, styrene-butadiene copolymer 0.1-2%, and magnesium silicate minerals 0.1-6%. The quantum dot diffuser plate of above provides high brightness effect, thereby reducing the overall cost of the backlight module.

Abstract: The present invention provides a foam diffuser plate, including a foam core layer, the upper surface and the lower surface of the foam core layer are covered with a protective layer, and the thickness ratio of the foam core layer to the upper and lower surfaces of the protective layer is 1:7-9:1. The mass percentage of each raw material of the protective layer is PS raw material 90-99%, stabilizer 0.01-1%, organosilicon 0.1-3%, inorganic diffusing agent 0.1-3%, diffusing oil 0.1-3%, styrene-butadiene copolymer 0.1-2%, and magnesium silicate mineral 0.1-6%. The mass percentage of each raw material of the foam core layer is GPPS raw material 95-99%, antioxidant 0.3-0.6%, silicone diffusing agent 0.6-1%, foaming agent 0.5-2%, anti-UV agent 0.3-0.6%, toughening agent 0.5-2%, stabilizer 0.3-0.6%, and nucleating agent 1-5%. A manufacturing method of the foam diffuser plate is provided in the present invention as well.

Abstract: A feature extraction deep neural network (DNN) may be trained based on the minimization of a loss function. A similarity function may be specified to calculate a similarity score for two representations of verbal utterances. A training data set comprising pairs of representations of utterances is received, wherein each one of the pairs of representations of utterances is associated with a corresponding a ground-truth label confirming whether the pair of represented utterances come from a same speaker or not. A respective similarity score may then be calculated for each one of the pairs of representations of utterances. Parameters associated with the DNN may then be updated based on minimizing a loss function associated with an area under a section of a receiver-operating-characteristic (ROC) curve for the similarity scores, wherein the ROC curve section is delimited between a low false positive rate (FPR) value and a high FPR value.

Abstract: A semiconductor assembly manufacturing method includes: providing a substrate including a first conductive circuit; disposing a first electronic component on a side of the substrate; forming a first plastic seal layer covering the substrate and the first electronic component; setting up a plurality of grooves in the first plastic seal layer, the groove exposes at least a portion of the first conductive circuit of the substrate; and filling a conductive material in each of the grooves by vacuum printing so as to form a second conductive circuit electrically connected to the first conductive circuit of the substrate, and a second electronic component pad position thereof in the first plastic seal layer.

Abstract: This disclosure provides a solution for improving performance in a virtual machine. In this method, a platform independent intermediate representation of a code segment in an application is obtained from a first virtual machine which is operating on a first platform. The platform independent intermediate representation is generated through a run-time compilation by the first virtual machine. Native code is generated based on the platform independent intermediate representation, in which at least one piece of the native code corresponds to a second platform which is different from the first platform. The at least one piece of the native code is distributed to a second virtual machine which is operating on the second platform.

Abstract: A solder paste printing quality inspection (SPI) method includes establishing at least one data inspection model, acquiring real-time test data, preprocessing the real-time test data, and determining a type of the real-time test data and inputting the real-time test data into the data inspection model corresponding to the type of the real-time test data to obtain a judgment result of the solder paste printing quality inspection. The real-time test data includes one or both of a test image and a test value of solder paste printing quality inspection. The preprocessing includes obtaining key parameters of the test value or obtaining image data of the test image and standardizing the real-time test data.

Abstract: This disclosure provides a solution for improving performance in a virtual machine. In this method, a platform independent intermediate representation of a code segment in an application is obtained from a first virtual machine which is operating on a first platform. The platform independent intermediate representation is generated through a run-time compilation by the first virtual machine. Native code is generated based on the platform independent intermediate representation, in which at least one piece of the native code corresponds to a second platform which is different from the first platform. The at least one piece of the native code is distributed to a second virtual machine which is operating on the second platform.

Abstract: A semiconductor assembly manufacturing method includes: providing a substrate including a first conductive circuit; disposing a first electronic component on a side of the substrate; forming a first plastic seal layer covering the substrate and the first electronic component; setting up a plurality of grooves in the first plastic seal layer, the groove exposes at least a portion of the first conductive circuit of the substrate; and filling a conductive material in each of the grooves by vacuum printing so as to form a second conductive circuit electrically connected to the first conductive circuit of the substrate, and a second electronic component pad position thereof in the first plastic seal layer.

Abstract: A solder paste printing quality inspection (SPI) method includes establishing at least one data inspection model, acquiring real-time test data, preprocessing the real-time test data, and determining a type of the real-time test data and inputting the real-time test data into the data inspection model corresponding to the type of the real-time test data to obtain a judgment result of the solder paste printing quality inspection. The real-time test data includes one or both of a test image and a test value of solder paste printing quality inspection. The preprocessing includes obtaining key parameters of the test value or obtaining image data of the test image and standardizing the real-time test data.

Abstract: A turbocharger can include a housing that includes an interior cavity in fluid communication with a lubricant inlet and a lubricant outlet where, at a compressor side, the interior cavity includes an effective opening at a first axial face that spans an azimuthal angle about an axis of a through bore of the housing; a compressor side plate disposed at least in part in a compressor side recess of the housing; and a lubricant deflector plate disposed between the compressor side plate and the first axial face of the housing where the lubricant deflector plate includes an effective opening that substantially spans the azimuthal angle about the axis and where the lubricant deflector plate defines a seal cavity with respect to a compressor side seal recess of the housing.

Abstract: An SRAM includes a substrate containing a plurality of first substrate regions and a plurality of second substrate regions, a plurality of pull-down transistors formed in the first substrate regions with each pull-down transistor including a first gate structure, and a plurality of pass-gate transistors formed in the second substrate regions with each pass-gate transistor including a second gate structure. A portion of the first substrate region under each first gate structure is doped with first doping ions and a portion of the second substrate region under each second gate structure is doped with second doping ions. Moreover, the concentration of the first doping ions is less than the concentration of the second doping ions, and the work function of the first work function layer in the first gate structures is greater than the work function of the second work function layer in the second gate structures.

Abstract: An SRAM includes a substrate containing a plurality of first substrate regions and a plurality of second substrate regions, a plurality of pull-down transistors formed in the first substrate regions with each pull-down transistor including a first gate structure, and a plurality of pass-gate transistors formed in the second substrate regions with each pass-gate transistor including a second gate structure. A portion of the first substrate region under each first gate structure is doped with first doping ions and a portion of the second substrate region under each second gate structure is doped with second doping ions. Moreover, the concentration of the first doping ions is less than the concentration of the second doping ions, and the work function of the first work function layer in the first gate structures is greater than the work function of the second work function layer in the second gate structures.

Abstract: A turbocharger can include a housing that includes an interior cavity in fluid communication with a lubricant inlet and a lubricant outlet where, at a compressor side, the interior cavity includes an effective opening at a first axial face that spans an azimuthal angle about an axis of a through bore of the housing; a compressor side plate disposed at least in part in a compressor side recess of the housing; and a lubricant deflector plate disposed between the compressor side plate and the first axial face of the housing where the lubricant deflector plate includes an effective opening that substantially spans the azimuthal angle about the axis and where the lubricant deflector plate defines a seal cavity with respect to a compressor side seal recess of the housing.

Abstract: A switching assembly for changing relative states of a first object and a second object is provided. The switching assembly includes a fixing member fixed on the first object, a first guiding rod, a second guiding rod, and a moving member movably disposed on the first object. The fixing member has a guiding rib with an extension direction parallel to a first axis, and the first guiding rod is slidably coupled to the guiding rib to move along the first axis. The second object is movably coupled to and driven by the moving member. The second guiding rod is pivoted between the first guiding rod and the moving member in the first axis. The first guiding rod is suited for being forced to move the second guiding rod and the moving member, so as to rotate the second guiding rod relative to the first guiding rod and the moving member.

Abstract: An SRAM includes a substrate containing a plurality of first substrate regions and a plurality of second substrate regions, a plurality of pull-down transistors formed in the first substrate regions with each pull-down transistor including a first gate structure, and a plurality of pass-gate transistors formed in the second substrate regions with each pass-gate transistor including a second gate structure. A portion of the first substrate region under each first gate structure is doped with first doping ions and a portion of the second substrate region under each second gate structure is doped with second doping ions. Moreover, the concentration of the first doping ions is less than the concentration of the second doping ions, and the work function of the first work function layer in the first gate structures is greater than the work function of the second work function layer in the second gate structures.