38 results about "PRAME" patented technology

The invention relates to the cancer antigen PRAME (PReferentially expressed Antigen in MElanoma) and its use in a method of treatment of a tumour which comprises administering to a subject in need of treatment an effective amount of an inhibitor of PRAME, in combination with a second agent selected from the group of an inhibitor of HDAC (an HDACi) and a retinoid.

The invention provides a T cell receptor (TCR) capable of specifically combining short-peptide PYLGQMINL derived from a PRAME antigen, and the antigenic short-peptide PYLGQMINL and HLA A2402 can form a compound and are together delivered to the cell surface. The invention further provides nucleic acid molecules encoding the TCR and a carrier comprising the nucleic acid molecules. The invention further provides a cell transducing the TCR.

The invention provides a T cell receptor (TCR) capable of being specifically bound to short chain polypeptide VLDGLDVLL derived from a PRAME antigen. The antigen short chain polypeptide VLDGLDVLL andHLA A0201 can form a compound and are together presented to the cell surface. The invention further provides nucleic acid molecules encoding the TCR and a carrier containing the nucleic acid molecules. In addition, the invention provides cells transducing the TCR.

The present invention relates to a method for treating breast cancer in a subject having a breast cancer of the triple-negative type, which method comprises the step of administering to said subject a therapeutically effective amount of a modulator of the protein tyrosine phosphatase, non-receptor type 11 (PTPN11) gene or of its gene product (Shp2). The present invention also relates to a method for treating breast cancer in a subject having a breast cancer over-expressing the “SHP2 signature” genes, as compared to normal breast tissue samples, which method comprises the step of administering to said subject a therapeutically effective amount of a modulator of the protein tyrosine phosphatase, non-receptor type 11 (PTPN11) gene or of its gene product (Shp2), wherein said “SHP2 signature” genes consist of the genes SGCB, ZSCAN12, ID4, ZIC3, CPVL, HLA-A, MCOLN3, SPATA18, TMEM45A, GNAL, CYBRD1, TSPAN7, ZEB1, CNTLN, NEFL, CENPV, ARL6, HPRT1, LRRC34, PDPN, BEND7, SLC16A10, FAM27E1, PLEKHA1, HERC5, CHIC1, PHF6, ELOVL4, ANTXR1, PRAME, SCML1, CLIP4, CECR2, CNOT10, IGF2BP3, NAP1L3, GPC3, KIAA1804, DGKE, FAS, EPHA6, KDELC1, CRISPLD1, DOCK3, ACSL4, CNTNAP3, PLEKHM3, RDX, TBX18, RRAGD, HOXB5, SNCA, FUNDC2, ITGA8, HFM1, IGF2BP2, CCND2, SGTB, MKX, CRYBG3, WBP5, LPHN3, BEX4, CPNE8, GLDC, SLC35F1, HOXA13, SERPINF1, NEFM, SYCP2L, FHL1, APOBEC3C, CALD1, FKBP10, HOXD11, DENND2C, LRRC49, FAM55C, KIAA0408, HOXB9, C160RF62, ACN9, TUSC3, ELOVL2, SPOCK3, HOXB6, WDR35, MPP1, FBX038, PRKAA2, SLAIN1, NPHP3, KIAA1524, PRPS1, GJC1, AMOT, SLC9A6, KCTD12, NUP62CL, DZIP3, JAM3, HOXA9, ANKRD19, CDKN2A, BCAT1, OAT, LPHN2, CCDC82, HSD17B11, SAMHD1, WDR17, STK33, GSTP1, TRPC1, CKB, LIN28B, ALDH1L2, SACS, CLGN, MY03A, EPB41L3, SLC25A27, VCAN, GPX8, GALNT13, PVRL3, MOXD1, HEY1, MAP7D3, ESD, MPP6, EYA4, SPG20, ZDBF2, ZNF204, IFT57, AKR1B1, ADAT2, ZNF717, CCDC88A, ZNF215, MIDI, FBN2, LOC100130876, TCEAL8, IGF2BP1, ANKRD18B, PLAGL1, PM20D2, LDHB, C150RF51, PTPN11, EPB41L2, TLE4, GOLM1, C60RF192, HOXD13, SLIT2, UCHL1, DYNC2H1, CPS1, GPR180, PYGL, NRN1, PRTFDC1, SLC16A1, DSC3, TMC01, LRCH2, SLC6A15, DZIP1, HOXA5, HSPA4L, CDR1, PLS3, ECHDC1, SMARCA1, CXORF57, HOXD10, and IRS4.

The invention provides a TCR (T Cell Receptor) which is specifically combined with oligopeptide AVLDGLDVLL which derives PRAME (Preferentially Expressed Antigen of Melanoma) antigen, and the antigen oligopeptide AVLDGLDVLL and HLA A0201 form a compound and are represented to the surfaces of cells together. The invention further provides a nucleic acid molecule for encoding the TCR and a vector with the nucleic acid molecule. In addition, the invention further provides a cell for transducing the TCR provided by the invention.

The method for implementing high-grade link control protocol frame treatment includes framing and deframing processes. The described framing process includes the following steps: receiving a piece ofdata transferred from exterior and identification number of said user; temporarily storing the data into data buffer memory; fetching a byte of data from data buffer memory by data processing machine; escaping said byte data and resolving frame correction sequence (FCS); judging that the processed data byte number can meet some set threshold value y or not, if it can meet said threshold value, feeding the data byte number into the next data buffer memory, if it can not meet, judging that the piece of data is processed completely or not, if it is not, returning to third step, if it is processed, executing next step, the data in the second data buffer memory can be outputted by means of channel dispatcher.

The invention provides a T cell receptor (TCR) capable of specifically combining short chain polypeptide VLDGLDVLL derived from preferentially expressed antigen of melanoma (PRAME), the antigen shortchain polypeptide VLDGLDVLL and HLA A0201 can form a compound and be presented to the cell surface together. The invention further provides a nucleic acid molecule encoding the TCR and a carrier containing the nucleic acid molecule. In addition, the invention further provides cells transducing the TCR.

The invention relates to a short peptide derived from self tumor antigen PRAME, a compound formed from the short peptide and MHC molecule, and applications of the short peptide and the compound, and also relates to molecules capable of combining the short peptide and the compound, and applications of the molecules.

The invention relates to a newly discovered short peptide derived from a tumor antigen PRAME, a complex formed by the short-chain peptide and aMHC molecules, and application of the short-chain peptide and complex. At the same time, the invention also relates to molecules combined with the short-chain peptide or the complex above, and application of the molecules.

Methods and processes for the purification of PRAME are provided. In particular, methods for reducing the aggregation of PRAME during a diluent exchange from diluent A to diluent B comprising: (i) adding a polyanionic compound to diluent A prior to or contemporaneously with the exchange; and (ii) exchanging protein from diluent A to diluent B are provided. Compositions produced by the method are also provided.