Abstract: Methods and systems for techniques for acquiring configuration information and performing interference coordination and management are disclosed. In an implementation, a method of wireless communication includes receiving, by a first network node, from a second network node, a configuration information, and performing, by the first network node, a measurement based on the configuration information.

Abstract: The present disclosure provides an instruction execution method, device, and electronic equipment. In the instruction execution method described above, after obtaining an exceptional signal generated by a neural network processor during an operation, the electronic equipment determines an exception processing instruction corresponding to the exceptional signal according to the exceptional signal, then it determines a first instruction queue needed to be executed by the neural network processor, and then it generates a second instruction queue based on the exception processing instruction and the first instruction queue, and finally it controls the neural network processor to execute the second instruction queue, so that errors encountered by the neural network processor can be timely processed, thereby shortening the error processing delay and improving the data processing efficiency of the hardware system in the electronic equipment.

Abstract: The present disclosure is directed to transmission source indication, including configuring, by a base station for a wireless communication device, a time-domain window, where the time-domain window is defined by at least one of a period of the time-domain window, an offset for the time-domain window, a length of the time-domain window, a duration of the time-domain window, a starting of the time-domain window, or a time domain pattern of the time-domain window, communicating, by the base station with the wireless communication device, using the time-domain window.

Abstract: Example implementations include receiving, by a wireless communication device from a network, first indication indicating a first First Type Frequency Resource (FTFR) and at least one Second Type Frequency Resource (STFR) mapped to the first FTFR. The wireless communication device communicates with the network using the first FTFR and the at least one STFR mapped to the first FTFR.

Abstract: In a method for preparing silicon-on-insulator, the first etching stop layer, the second etching stop layer, and the device layer are formed bottom-up on the p-type monocrystalline silicon epitaxial substrate, where the first etching stop layer is made of intrinsic silicon, the second etching stop layer is made of germanium-silicon alloy, and the device layer is made of silicon. After oxidation, bonding, reinforcement, and grinding treatment, selective etching is performed. Through a first selective etching to p+/intrinsic silicon, the thickness deviation of the first etching stop layer on the second etching layer is controlled within 100 nm, and then through the second etching and the third etching, the thickness deviation and the surface roughness of the finally prepared silicon-on-insulator film can be optimized to less than 5 nm and less than 4 ?, respectively, so as to realize the flatness of the silicon-on-insulator film.

Abstract: The present invention relates to a preparation method of a P-type high-resistance and ultra-high-resistance Czochralski monocrystalline silicon substrate. According to the present invention, an oxygen concentration in a silicon wafer is controlled to match with a resistivity, so as to realize that a conductive type of the silicon substrate does not change after a device is manufactured, and that the silicon substrate has a high resistivity. The oxygen concentration and the resistivity in silicon crystal can be adjusted separately or together; and operation is flexible, and a yield of a high-resistance silicon crystal is greatly improved.

Abstract: A main and auxiliary alloy-based neodymium-iron-boron magnet material and the preparation method thereof. The raw material composition for the main and auxiliary alloy-based neodymium-iron-boron magnet material includes a main alloy raw material and an auxiliary alloy raw material, wherein the mass percentage of the auxiliary alloy raw material in the raw material composition for the main and auxiliary alloy-based neodymium-iron-boron magnet material is 1.0-15.0 mass %. For the main and auxiliary alloy-based neodymium-iron-boron magnet material prepared by using the raw material composition, the coercivity is increased while high remanence is ensured, and the preparation method therefor can be suitable for engineering applications.

Abstract: Methods and systems for techniques for determining uplink common frequency resources are disclosed. In an implementation, a method of wireless communication includes determining, by a first device, one or multiple common resources for a transmission based on one or multiple sets of slots, and performing the transmission using the one or multiple common resources.

Abstract: The present application discloses a double-layer stacked CMOS image sensor, photo diode and transfer gate transistor of a pixel cell are formed on the first substrate sequentially along a longitudinal direction, and the other pixel transistors of the pixel cell are formed on the second substrate. The first substrate and the second substrate are packaged separately, and the second substrate is stacked on the top side of the first substrate instead of being in juxtaposition. Since the photo diode and the pixel transistors other than the transfer gate transistor of the pixel cell are located on two separate substrates respectively, the area of a photo diode region may be increased significantly, thereby greatly increasing full well capacitance of the image sensor and increasing a dynamic range, and reduce a dark current and image noise significantly, thereby improving the dark line noise and full well capacitance simultaneously.

Abstract: The present disclosure relates to determining measurement resource for measuring interference, including determining, by a first network node; measurement resource configured to receive Reference Signal (RS), receiving, by the first network node from the second network node, the RS in the measurement resource, and determining interference of operations of the second network node on operations of the first network node based on the received RS.

Abstract: Systems and methods for wireless communication systems are disclosed. In one aspect, the wireless communication method includes sending, by a network to a wireless communication device, first signaling for monitoring at least one downlink control channel, the at least one downlink control channel comprises a first downlink control channel and a second downlink control channel. The second downlink control channel comprises a retransmission of the first downlink control channel. The method includes sending, by the network to a plurality of wireless communication devices comprising the wireless communication device, the at least one downlink control channel.

Abstract: Example implementations include receiving, by a wireless communication device from a network, first signaling identifying a frequency resource set, receiving, by the wireless communication device from the network, second signaling identifying two or more frequency resources from the frequency resource set to be activated simultaneously. The two or more frequency resources comprises a first frequency resource and a second frequency resource. In response to receiving the second signaling, the wireless communication device communicates with the network using the two or more frequency resources simultaneously.

Abstract: Methods and systems for techniques for determining control information in wireless networks are disclosed. In an implementation, a method of wireless communication includes receiving, by a wireless device, a first configuration of multiple traffic channels on multiple cells scheduled by a downlink control information (DCI) and a second configuration of multiple traffic channels on one cell scheduled by the DCI, and receiving the multiple traffic channels scheduled by the DCI.

Abstract: A SOI wafer is disclosed. The SOI wafer may be characterized by surface roughness of a top silicon layer of the SOI wafer is less than 4 ?, thickness uniformity of the top silicon layer is within ±1%, and a total number of particles on a surface of the top silicon layer of the SOI wafer, measured with setting of 37 nm of SPx detection threshold, is less than 100.

Abstract: Example implementations include determining, by a network for a cell, a plurality of frequency resources and a plurality of frequency resource groups. Each of the plurality of frequency resource groups comprises one or more of the plurality of frequency resources. Each of the plurality of frequency resources is identified by at least one of a first frequency resource index and a second frequency resource index. The first frequency resource index identifies each of the plurality of frequency resources within the cell. The second frequency resource index identifies each of the plurality of frequency resources within one of the plurality of frequency resource groups. The network and the wireless communication device communicate using an active frequency resource group of the plurality of frequency resource groups.

Abstract: A system is described for redirecting multimedia in a collaborative session on a virtual desktop. The virtual desktop session can be established, and collaborator virtual desktop clients can be connected in a collaborative session where each collaborator can view the desktop GUI in their respective virtual desktop client. A request can be received to play media in a media player in the virtual desktop. The media stream can be intercepted in the virtual desktop before it is rendered in the media player and conveyed to each collaborator's client over a separate virtual channel established between the virtual desktop and each collaborator. The data stream can then be rendered in a client media player by each collaborator's client.

Abstract: A computer-implemented system, platform, programing product, and/or method for improving transformation selection in an ensemble machine learning (ML) model that includes: providing all base ML models of the ensemble ML model; identifying all of a plurality of Derived Fields in all the base ML models; performing a Derived Field run prediction analysis for all the Derived Fields; computing the Derived Field Importance Weight for Field (DFIW4F) and the Derived Field Importance Weight for Model (DFIW4M) for all the Derived Fields; clustering all the Derived Fields into a plurality of Derived Field clusters, wherein each Derived Field cluster is based upon the DFIW4M and the DFIW4F for the Derived Field; sorting all the Derived Field clusters by best cluster based upon DFIW4M and DFIW4F; and running the base ML models based upon the Derived Fields in the best Derived Field cluster until sufficient base ML models have been run.

Abstract: A group III nitride transistor structure capable of reducing a leakage current and a fabricating method thereof are provided. The group III nitride transistor structure includes: a first heterojunction and a second heterojunction which are laminated, wherein the first heterojunction is electrically isolated from the second heterojunction via a high resistance material and/or insertion layer; a first electrode, a second electrode and a first gate which are matched with the first heterojunction, wherein a third semiconductor is arranged between the first gate and the first heterojunction, and the first gate is also electrically connected with the first electrode; a source, a drain and a second gate which are matched with the second heterojunction, wherein the source and the drain are also respectively electrically connected with the first gate and the second electrode, and a sixth semiconductor is arranged between the second gate and the second heterojunction.

Abstract: A biological material is provided and prepared by performing (a) oxidation, (b) first cross-linking, (c) second cross-linking, and (d) dehydration on a biological material for preparation; wherein (b) is performed after (a), and (a), (b), and (c) are all performed prior to (d); during oxidation, an oxidizing agent able to cause hydroxy groups to be converted to aldehyde groups is utilized, the hydroxy groups coming from mucopolysaccharides in the biological material; during first cross-linking, a first cross-linking agent able to cause cross-linking between aldehyde groups of mucopolysaccharides is utilized; and during second cross-linking, a second cross-linking agent able to cause cross-linking between collagen fibers in the biological material is utilized.

Abstract: In an approach to improve video searching embodiments execute heuristic video searching based on importance of semantic features. Embodiments perform hierarchical aggregation of a parsed video into one or more clusters of video excerpts based on a plurality of video features, and display a word cloud to a user to guide feedback. Embodiments traverse the one or more clusters based on a data structure of the hierarchical aggregation and the feedback. Additionally, responsive to reaching selected leaf nodes of the data structure, embodiments generate one or more snapshots of the video excerpts associated with the leaf nodes, wherein the leaf nodes are selected based on the feedback. Further, embodiments display the one or more generated snapshots of the video excerpts to the user.