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公开(公告)号：US20170188041A1
公开(公告)日：2017-06-29
申请号：US15461274
申请日：2017-03-16
Inventor： Li LI , Houqiang LI , Zhuoyi LV , Sixin LIN
IPC: H04N19/513 , H04N19/593
Abstract: A picture prediction method and a related apparatus are disclosed. The picture prediction method includes: determining motion vector predictors of K pixel samples in a current picture block, where K is an integer greater than 1, the K pixel samples include a first vertex angle pixel sample in the current picture block, a motion vector predictor of the first vertex angle pixel sample is obtained based on a motion vector of a preset first spatially adjacent picture block of the current picture block, and the first spatially adjacent picture block is spatially adjacent to the first vertex angle pixel sample; and performing, based on a non-translational motion model and the motion vector predictors of the K pixel samples, pixel value prediction on the current picture block. Solutions in the embodiments of the present application are helpful in reducing calculation complexity of picture prediction based on a non-translational motion model.
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142.发明授权公开(公告)号：US09540418B2
公开(公告)日：2017-01-10
申请号：US14405762
申请日：2013-02-06
Inventor： Longping Wen , Yunjiao Zhang
Abstract: The present invention provides a polypeptide able to specifically bind to rare-earth nanoparticles and the use thereof. The polypeptide comprises an amino acid sequence shown by SEQ ID NO: 1 or analogs thereof. The present invention further provides a method for screening a polypeptide having the capacity of specifically binding to rare-earth nanoparticles. The present invention further provides a method for regulating and controlling the in vivo and in vitro autophagy and toxicity of the rare-earth upconversionnanophosphor material, comprising mixing and incubating the polypeptide specifically binding to rare-earth nanoparticles with rare-earth upconversion nanophosphor material, such that the polypeptide specifically binds to the nanophosphor material, wherein the rare-earth upconversion nanophosphor material comprises the rare earth, and the polypeptide specifically binding to rare-earth nanoparticles comprises the amino acid sequence shown by CTARSPWIC (RE-0, SEQ ID NO: 1) or analogs thereof.
Abstract translation: 本发明提供能够特异性结合稀土纳米粒子的多肽及其用途。 多肽包含SEQ ID NO：1所示的氨基酸序列或其类似物。 本发明还提供了筛选具有特异性结合稀土纳米粒子的能力的多肽的方法。 本发明还提供了一种用于调节和控制稀土上转换纳米荧光体材料的体内和体外自噬和毒性的方法，包括将与稀土纳米颗粒特异性结合的多肽与稀土上转换纳米荧光体材料混合并孵育， 所述多肽特异性结合纳米荧光体材料，其中所述稀土上转换纳米荧光体材料包含稀土，并且与稀土纳米颗粒特异性结合的多肽包含CTARSPWIC（RE-0，SEQ ID NO： 1）或其类似物。
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143.发明申请公开(公告)号：US20160145217A1
公开(公告)日：2016-05-26
申请号：US15009499
申请日：2016-01-28
Inventor： Ying Zhang , Lujiang Xu , Qian Yao
IPC: C07D241/12 , C07C209/00 , C07D209/08 , C07D213/16 , C07D207/323
CPC classification number: C07D241/12 , B01J29/76 , C07C209/00 , C07D207/32 , C07D207/323 , C07D209/08 , C07D213/16 , C07D471/04 , C10B53/02 , C10B57/06 , Y02E50/14 , Y02P20/145 , C07C211/46 , C07C211/47
Abstract: Provided is a method for preparing a nitrogen-containing aromatic compound through catalytic pyrolysis from organic materials. The method comprises: feeding organic materials and a catalyst into a reactor, to enable the organic material to undergo reactions in the presence of nitrogen and under heating conditions, so as to generate a reaction system flow containing one or more nitrogen-containing aromatic compounds.
Abstract translation: 提供了通过有机材料的催化热解制备含氮芳族化合物的方法。 该方法包括：将有机材料和催化剂进料到反应器中，使有机材料在氮气和加热条件下进行反应，以产生含有一种或多种含氮芳族化合物的反应体系流。
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144.发明申请公开(公告)号：US20150361135A1
公开(公告)日：2015-12-17
申请号：US14405762
申请日：2013-02-06
Inventor： Longping Wen , Yunjiao Zhang
Abstract: The present invention provides a polypeptide able to specifically bind to rare-earth nanoparticles and the use thereof. The polypeptide comprises an amino acid sequence shown by SEQ ID NO: 1 or analogues thereof. The present invention further provides a method for screening a polypeptide having the capacity of specifically binding to rare-earth nanoparticles. The present invention further provides a method for regulating and controlling the in vivo and in vitro autophagy and toxicity of the rare-earth upconversionnanophosphor material, comprising mixing and incubating the polypeptide specifically binding to rare-earth nanoparticles with rare-earth upconversion nanophosphor material, such that the polypeptide specifically binds to the nanophosphor material, wherein the rare-earth upconversion nanophosphor material comprises the rare earth, and the polypeptide specifically binding to rare-earth nanoparticles comprises the amino acid sequence shown by CTARSPWIC (RE-0, SEQ ID NO: 1) or analogues thereof.
Abstract translation: 本发明提供能够特异性结合稀土纳米粒子的多肽及其用途。 多肽包含SEQ ID NO：1所示的氨基酸序列或其类似物。 本发明还提供了筛选具有特异性结合稀土纳米粒子的能力的多肽的方法。 本发明还提供了一种用于调节和控制稀土上转换纳米荧光体材料的体内和体外自噬和毒性的方法，包括将与稀土纳米颗粒特异性结合的多肽与稀土上转换纳米荧光体材料混合并孵育， 所述多肽特异性结合纳米荧光体材料，其中所述稀土上转换纳米荧光体材料包含稀土，并且与稀土纳米颗粒特异性结合的多肽包含CTARSPWIC（RE-0，SEQ ID NO： 1）或其类似物。
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公开(公告)号：US20250069390A1
公开(公告)日：2025-02-27
申请号：US18814292
申请日：2024-08-23
Inventor： CHENG LIU , CHENGZHI XING , QIHUA LI , WEI TAN , HAORAN LIU , XIANGGUANG JI , QIHOU HU
Abstract: Disclosed in the present invention is a method for whole-time space-air-ground integrated hyperspectral stereoscopic remote sensing, tracing and prediction of greenhouse/pollution gas, comprising: performing remote sensing of multi-source heterogeneous data: utilizing a hyperspectral stereoscopic remote sensing device, a hyperspectral imaging device, a hyperspectral unmanned aerial vehicle remote sensing device, a hyperspectral greenhouse gas remote sensing device based on grating light splitting and a night hyperspectral stereoscopic remote sensing device to perform the remote sensing of the multi-source heterogeneous greenhouse/pollution gas data; performing tracing and early warning of greenhouse/pollution gas components: progressively realizing tracing of greenhouse/pollution gas components at different locations based on the multi-source heterogeneous greenhouse/pollution gas data, and performing emission early warning according to a traced result; and performing stereo fusion and prediction of the multi-source heterogeneous data: performing data feature fusion based on the multi-source heterogeneous greenhouse/pollution gas data, and performing prediction of the greenhouse/pollution gas components at a future moment based on a fusion result. The system can complement the deficiencies of existing greenhouse/pollution gas monitoring and tracing technologies.
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Patent Agency Ranking
公开(公告)号：US12224548B2
公开(公告)日：2025-02-11
申请号：US18716704
申请日：2023-04-21
Inventor： Chong Wang , Haocheng Yang , Xianghui Xue , Yudie Li , Tingdi Chen
Abstract: A single-photon Raman optical frequency comb source is provided, including: a light source assembly, a filtering mechanism, at least three electro-optical modulators, a wavelength division multiplexer and a single photon generating mechanism. The light source assembly is configured to generate a Raman scattering light. The filtering mechanism is configured to pass a light having a specific wavelength, to filter the Raman scattering light and obtain at least three Raman scattering spectral lines. Each electro-optical modulator is configured to modulate a frequency of one of the Raman scattering spectrum lines in one-to-one correspondence, so as to cause a frequency shift of the Raman scattering spectrum line. The wavelength division multiplexer is configured to multiplex all modulated Raman scattering spectral lines and output a Raman optical frequency comb. The single photon generating mechanism is configured to adjust the Raman optical frequency comb to obtain a single-photon Raman optical frequency comb.
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公开(公告)号：US20250017482A1
公开(公告)日：2025-01-16
申请号：US18713327
申请日：2022-11-23
Inventor： Yan CHEN , Jinbo CHEN , Dongheng ZHANG , Dong ZHANG , Qibin SUN , Manqing WU
IPC: A61B5/0507 , A61B5/318
Abstract: A contactless electrocardiogram monitoring method based on a millimeter wave radar is provided, including: step S1: transmitting a millimeter-wave signal to a target to be tested and receiving an echo signal using the millimeter-wave radar; step S2: performing a signal processing on the received echo signal to extract cardiac mechanical activity data hidden in the echo signal; step S3: constructing an end-to-end network architecture for the extracted cardiac mechanical activity data, so as to complete a cross-domain mapping from a cardiac mechanical activity to a cardiac electrical activity; and step S4: based on a deep learning network architecture which has learned cross-domain mapping of the cardiac mechanical activity and the cardiac electrical activity, inputting cardiac mechanical activity data extracted at a current moment, and outputting an ECG measurement result for the current moment, so as to finally complete contactless electrocardiogram monitoring.
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公开(公告)号：US12175713B2
公开(公告)日：2024-12-24
申请号：US17576575
申请日：2022-01-14
Inventor： Feng Wu , Haichuan Ma , Dong Liu , Haitao Yang
Abstract: The present disclosure provides an image decoding method based on a wavelet transform. The method includes: performing entropy decoding on the compressed bitstream to obtain a reconstructed wavelet coefficient; dequantizing the reconstructed wavelet coefficient to obtain a dequantized wavelet coefficient; and performing N inverse wavelet transforms on the dequantized wavelet coefficient based on the wavelet transform model to obtain a reconstructed image, where the wavelet transform model is implemented based on a convolutional neural network (CNN).
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公开(公告)号：US20240272316A1
公开(公告)日：2024-08-15
申请号：US18569599
申请日：2021-07-12
Inventor： Zhiyong ZHANG , Changqing FENG , Sicheng WEN , Jianbei LIU , Ming SHAO , Yi ZHOU
CPC classification number: G01T1/2935 , G01T1/185 , G01T1/241 , H05K1/0353 , H05K1/095
Abstract: A gas detector fabrication method is provided. The method includes: fabricating a signal readout plate: fabricating metal readout electrodes on an upper end surface of a lower insulating layer, and covering upper end surfaces of the metal readout electrodes with an upper insulating layer; pressing the signal readout plate and performing surface processing: pressing the signal readout plate on a substrate, and making a side, distant from the substrate, of the upper insulating layer to be a plane; fabricating a resistive anode electrode: fabricating a resistive layer on an upper end surface of the signal readout plate, and fixing a low-resistance electrode ring to a periphery of an upper end surface of the resistive layer; and fabricating a detector amplification assembly: fixing a support frame to an upper end of the low-resistance electrode ring, and fixing a micro-grid electrode to an upper end of the support frame.
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150.发明授权公开(公告)号：US12061597B2
公开(公告)日：2024-08-13
申请号：US18543440
申请日：2023-12-18
Inventor： Wenshuai Zhang , Jing Li
CPC classification number: G06F16/2365 , G06F16/2255
Abstract: The present disclosure provides a method for hierarchically pruning data in a blockchain transaction, which comprises: acquiring a transaction data set; performing N rounds of pruning on the transaction data set based on a data pruning model to obtain a target data set; and performing processing on the target data set to obtain a target value, wherein the target value is configured as the transaction identification number used when the target data set is on-chain. Based on the customized data pruning model, part of the data in the transaction (e.g., Unlocking-Scripts and Locking-Scripts) can be easily pruned in the process of network transmission, internal storage, or construction of a new transaction (especially the Unlocking-Scripts therein) without affecting the process of verifying the data of other parts of the transaction data, which significantly improves the efficiency of UTXO-based blockchains.
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