Abstract: The present disclosure belongs to the technical field of nanomaterial synthesis, and in particular, to a preparation method for a narrow-linewidth alloy quantum dot. The preparation method provided by the present disclosure includes the following steps: in a protective gas atmosphere, mixing a cadmium source, an organic ligand, and an organic solvent with a first selenium source for a nucleation reaction to obtain an organic solution of a CdSe quantum dot core; and mixing the organic solution of the CdSe quantum dot core, a zinc source and an inorganic anion source for shell coating to obtain the narrow-linewidth alloy quantum dot, where the inorganic anion source includes a second selenium source.

Abstract: Methods and systems are provided for improving user authentication and access control by a network file system service in a multi-tenant public cloud environment by receiving a request for a connection to a file system from a file system client (client), sending an identification request for identification authentication of the client to a control system, receiving a response from the control system, establishing the connection to the file system upon determining that the connection to the file system is allowed based on cloud tenant information associated with the client, receiving an attempt to access the file system from the client by a sub-user, authenticating the sub-user based on the cloud tenant information, issuing a security token including a globally unique sub-user identifier of the sub-user, and using the security token to determine access rights of the sub-user to the file system for a subsequent request.

Abstract: Disclosed are a set of genes for bladder cancer detection and their use. The set of genes includes the following 32 genes: CA9 gene, CDK1 gene, CTSE gene, DMBT1 gene, ERBB2 gene, HOXA13 gene, IGF2 gene, CXCR2 gene, MAGEA3 gene, MDK gene, MMP1 gene, MMP12 gene, RBP2 gene, CCL18 gene, SNAI2 gene, VEGFA gene, MFAP5 gene, SGK2 gene, WFDC2 gene, POSTN gene, NPFFR2 gene, ANXA10 gene, CTAG2 gene, ZDHHC2 gene, KRT20 gene, PPP1R14D gene, FGD3 gene, AHNAK2 gene, SEMA3D gene, ZNF707 gene, LOC100652931 gene, and LINC00565 gene. After clinical validation, the kit provided by the present invention is used to detect bladder cancer with a high accuracy rate and objective interpretation of results. Meanwhile, as a non-invasive detection, the compliance of patients is greatly improved comparing with the existing cystoscopy, which has an important clinical significance for the early detection and postoperative monitoring of bladder cancer.

Abstract: A set of genes for the molecular classifying of medulloblastoma is disclosed, including the following 24 genes: EPHA7 gene, OTX2 gene, ROBO1 gene, TTR gene, LGR5 gene, IGF2BP3 gene, TBR1 gene, ZFPM2 gene, TRDC gene, TRAC gene, PEX5L gene, NKD1 gene, RALYL gene, GABRA5 gene, GAD1 gene, TNC gene, KCNA1 gene, EOMES gene, MAB21L2 gene, WIF1 gene, DKK2 gene, PDLIM3 gene, IMPG2 gene, and KHDRBS2 gene. In addition, the present invention also discloses the use of the genome in the preparation of a kit and a gene chip for the molecular classifying of medulloblastoma. After validation, the present invention can accurately differentiate medulloblastoma WNT subgroup, SHE subgroup, Group3 subgroup, and Group4 subgroup, and has important clinical significance for the precise treatment of patients due to the objective results, high accuracy, and short experimental period.

Abstract: A set of genes for the molecular classifying of medulloblastoma is disclosed, including the following 24 genes: EPHA7 gene, OTX2 gene, ROBO1 gene, TTR gene, LGR5 gene, IGF2BP3 gene, TBR1 gene, ZFPM2 gene, TRDC gene, TRAC gene, PEX5L gene, NKD1 gene, RALYL gene, GABRA5 gene, GAD1 gene, TNC gene, KCNA1 gene, EOMES gene, MAB21L2 gene, WIF1 gene, DKK2 gene, PDLIM3 gene, IMPG2 gene, and KHDRBS2 gene. In addition, the present invention also discloses the use of the genome in the preparation of a kit and a gene chip for the molecular classifying of medulloblastoma. After validation, the present invention can accurately differentiate medulloblastoma WNT subgroup, SHH subgroup, Group3 subgroup, and Group4 subgroup, and has important clinical significance for the precise treatment of patients due to the objective results, high accuracy, and short experimental period.

Abstract: Disclosed are a set of genes for bladder cancer detection and their use. The set of genes includes the following 32 genes: CA9 gene, CDK1 gene, CTSE gene. DMBT1 gene, ERBB2 gene, HOXA13 gene, IGF2 gene, CXCR2 gene, MAGEA3 gene, MDK gene, MMP1 gene, MMP12 gene, RBP2 gene, CCL18 gene, SNAI2 gene, VEGFA gene, MFAP5 gene, SGK2 gene, WFDC2 gene, POSTN gene, NPFFR2 gene, ANXA10 gene, CTAG2 gene, ZDHHC2 gene, KRT20 gene, PPP1R14D gene, FGD3 gene, AHNAK2 gene, SEMA3D gene, ZNF707 gene, LOC100652931 gene, and LINC00565 gene. After clinical validation, the kit provided by the present invention is used to detect bladder cancer with a high accuracy rate and objective interpretation of results. Meanwhile, as a non-invasive detection, the compliance of patients is greatly improved comparing with the existing cystoscopy, which has an important clinical significance for the early detection and postoperative monitoring of bladder cancer.

Abstract: A system and machine-implemented method of generating panoramic photographs and videos. Panoramic image data in a YUV data format is received in a YUV data format by an integrated circuit. A format of the panoramic image data is detected by the integrated circuit. The format includes resolution, pixel clock, line frequency information, and field frequency information. The panoramic image data is output, by the integrated circuit, to a memory unit. The panoramic image data is processed by the integrated circuit. The integrated circuit retrieves the panoramic image data from the memory unit. The processed panoramic image data is output, by the integrated circuit, to a processing unit. The processing includes at least one of projecting, stitching or distortion correcting.

Abstract: A kit for the prognosis of colorectal cancer, which includes reagents related in detecting the expression level of any one or more genes of the following five genes: BST1, as shown in SEQ ID NO:1; MGST1, as shown in SEQ ID NO:2, 3, 4, 5, 6, 7, 8, 9 or 10; HP, as shown in SEQ ID NO:11 or 12; RCAN3, as shown in SEQ ID NO:13, 14, 15, 16, 17, 18, 19, 20, 21 or 22; and SRA1, as shown in SEQ ID NO:23 or 24. The reagents are used to detect the expression level of any one or more of the above five genes in the preparation of a kit for the prognosis of colorectal cancer. The kit can be used to perform precise prognosis for a patient suffering from colorectal cancer, and has good clinical application prospects.

Abstract: The present invention relates to method and kit for performing a colorectal cancer assay. Especially a method including extracting total RNA from a peripheral blood sample obtained from a patient suspected of having or having colorectal cancer; contacting the total RNA, or cDNA or cRNA obtained from the total RNA, with one or more reagents specific for at least one target gene and no more than 100 target genes; and measuring the expression level of the at least one target gene and no more than 100 target genes. The at least one target gene and no more than 100 target genes includes one or more members selected from the group consisting of the KLRB1, KLRC2, KLRC3, KLRD1, KLRK1, CD247, RRAS2, SH2D1B, LCK, MRPS6, SPRY4, CYBB, DUSP2, PDE4D, SH2D2A, GZMB, INSR, ITGAM, VCAN, CD163, P2RY10, CD226, MRPL10, ITPRIPL2, CD2, and NUDT16 genes.

Abstract: The present invention provides a method for determining in vitro, in a peripheral blood sample, the probability for an individual to suffer from a colorectal cancer, using the comparison of the amount of expression products of nucleic acids of genes of the individual to be tested with the amount of expression products of nucleic acids of the same genes obtained from a CRC group of patients constituting the positive control and with the amount of expression products of nucleic acids of the same genes obtained from a CNC group of individuals constituting the negative control; and a kit comprising specific binding partners for said expression products.

Abstract: The present invention relates to method and kit for performing a colorectal cancer assay. Especially a method including extracting total RNA from a peripheral blood sample obtained from a patient suspected of having or having colorectal cancer; contacting the total RNA, or cDNA or cRNA obtained from the total RNA, with one or more reagents specific for at least one target gene and no more than 100 target genes; and measuring the expression level of the at least one target gene and no more than 100 target genes. The at least one target gene and no more than 100 target genes includes one or more members selected from the group consisting of the KLRB1, KLRC2, KLRC3, KLRD1, KLRK1, CD247, RRAS2, SH2D1B, LCK, MRPS6, SPRY4, CYBB, DUSP2, PDE4D, SH2D2A, GZMB, INSR, ITGAM, VCAN, CD163, P2RY10, CD226, MRPL10, ITPRIPL2, CD2, and NUDT16 genes.

Abstract: A method and kit for discriminating between breast cancer and benign breast disease by the determination of the expression level of at least one target gene having a nucleic acid sequence selected from the nucleic acid sequences set forth in SEQ ID NOs: 1, 2 or 3, 4 and 5 or 6 to obtain an expression profile for the patient, and the comparison of the expression profile of the patient with expression profiles of target genes from patients previously clinically classified as breast cancer and expression profiles of target genes from patients previously clinically classified as benign breast disease.

Abstract: A method and kit for the prognosis of colorectal cancer where the method includes the steps of: a) obtaining a peripheral blood sample and extracting total RNA from the sample, b) contacting the total RNA with at least one reagent specific for at least one NK cell gene and no more than 25 specific reagents for 25 NK cell genes, c) determining the expression level of at least one and at most 25 NK cell genes to obtain an expression profile for the patient, d) analyzing the expression profile with expression profiles previously clinically classified as a good prognosis and as a poor prognosis, wherein if the expression profile is clustered with the poor prognosis profiles, then the patient is determined to have a poor prognosis, and if the expression profile is clustered with the good prognosis profiles, then the patient is determined to have a good prognosis.

Abstract: A method and kit are related to discriminating between breast cancer and benign breast disease by the determination of the expression level of at least one target gene including a nucleic acid sequence selected from the nucleic acid sequences set forth in SEQ ID NOs: 1, 2 or 3, 4 and 5 or 6 to obtain an expression profile for the patient, and the comparison of the expression profile of the patient with expression profiles of target genes from patients previously clinically classified as breast cancer and expression profiles of target genes from patients previously clinically classified as benign breast disease.

Abstract: A kit for the prognosis of colorectal cancer, which includes reagents related in detecting the expression level of any one or more genes of the following five genes: BST1, as shown in SEQ ID NO:1; MGST1, as shown in SEQ ID NO:2, 3, 4, 5, 6, 7, 8, 9 or 10; HP, as shown in SEQ ID NO:11 or 12; RCAN3, as shown in SEQ ID NO:13, 14, 15, 16, 17, 18, 19, 20, 21 or 22; and SRA1, as shown in SEQ ID NO:23 or 24. The reagents are used to detect the expression level of any one or more of the above five genes in the preparation of a kit for the prognosis of colorectal cancer. The kit can be used to perform precise prognosis for a patient suffering from colorectal cancer, and has good clinical application prospects.

Abstract: The present invention provides a method for determining in vitro, in a peripheral blood sample, the probability for an individual to suffer from a colorectal cancer, using the comparison of the amount of expression products of nucleic acids of genes of the individual to be tested with the amount of expression products of nucleic acids of the same genes obtained from a CRC group of patients constituting the positive control and with the amount of expression products of nucleic acids of the same genes obtained from a CNC group of individuals constituting the negative control; and a kit comprising specific binding partners for said expression products.

Abstract: A method and kit for the prognosis of colorectal cancer where the method includes the steps of: a) obtaining a peripheral blood sample and extracting total RNA from the sample, b) contacting the total RNA with at least one reagent specific for at least one NK cell gene and no more than 25 specific reagents for 25 NK cell genes, c) determining the expression level of at least one and at most 25 NK cell genes to obtain an expression profile for the patient, d) analyzing the expression profile with expression profiles previously clinically classified as a good prognosis and as a poor prognosis, wherein if the expression profile is clustered with the poor prognosis profiles, then the patient is determined to have a poor prognosis, and if the expression profile is clustered with the good prognosis profiles, then the patient is determined to have a good prognosis.

Abstract: A method and kit are related to discriminating between breast cancer and benign breast disease by the determination of the expression level of at least one target gene including a nucleic acid sequence selected from the nucleic acid sequences set forth in SEQ ID NOs: 1, 2 or 3, 4 and 5 or 6 to obtain an expression profile for the patient, and the comparison of the expression profile of the patient with expression profiles of target genes from patients previously clinically classified as breast cancer and expression profiles of target genes from patients previously clinically classified as benign breast disease.