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Bump and hole

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BET proteins, giving BD-specific inhibition. The BD-ET bump-and-hole pairs were used to show that selective inhibition of BD1 in a BET protein disrupts chromatin engagement. Recently, the Ciulli group developed a new bump-and-hole pair consisting of BET mutants with a Leu to Val mutation in a BD and the bumped small-molecule inhibitor 9-ME-1. This bumped inhibitor was found to have an IC50 of 200nM and over 100-fold specificity for the L/V BET mutant BD over wild type BDs. This bump-and-hole pair allowed selective inhibition of specific BDs in specific BET proteins, elucidating their role in human cells. It was found that while BD1 is important for chromatin localization of BET proteins, BD2 regulates gene expression by binding and recruiting non-histone acetylated proteins, such as
20: 339:, is initially glycosylated. Once the glycosylated NONOate enters cells and is exposed to glycosidases, NO is released. However, non-tissue-specific systemic release of NO, which can reduce therapeutic efficiency and cause harmful side effects, from these pro-drugs was evident due to widespread distribution of endogenous glycosidases. To get around this, Hou et al. developed a bumped pro-drug via 102: 167: 397:-GalNac analogs and double hole-modified I253A/L310A mutant GalNac Ts (BH GalNac Ts). The UDP-alkyne analogs were specific to complementary BH GalNac Ts, which were shown to maintain the biochemical competence of wild type GalNac Ts, with regards to structure, localization, and substrate specificity. This bump-and-hole pair attached a bio-orthogonal label, visualizable through 293: 256: 369: 207:
While bumped ATM analogs can help deconvolute kinase substrate profiles, one drawback of this strategy is the cell impermeability of the bumped analogs. To get around this, the Shokat group demonstrated that a bumped ATP analog, kinetin ATP or KTP, could be synthesized endogenously in cells cultured
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lab has developed bump-and-hole pairs using kinase mutants with bulky "gatekeeper" residues in the ATP-binding pocket replaced by Gly or Ala, and bulky ATP analogs. In early work, v-Src kinase I338A/G mutants were shown to accept -labeled bumped N-cyclopentyl and N-benzyl ATP analogs as alternative
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of the O6 of the galactose moiety of galactosyl-NONOate. They engineered a corresponding hole-modified β-galactosidase mutant, A4-β-GalH363A with specificity for the bumped galactosyl-NONOate. The bumped pro-drug evaded cleavage by wild type β-galactosidase due to the methylated O6 of the galactose
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Recently, four members of the BET family, BRD2, 3, 4, and BRDT, each containing two bromodomains, were identified as important regulators of transcription. In order to probe bromodomain-specific functions of members of the BET family, small-molecule inhibitors JQ1 and I-BET were developed, but they
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of cyclophilin. This first bump-and-hole pair was engineered to improve the binding efficiency between wild type cyclosporin A and cyclophilin, thereby giving more efficient CID. The bumped cyclosporin A was found to interact efficiently with the hole-modified cyclophilin mutant, but not endogenous
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of glycosidases. NO was released in tissues only in the presence of both the bumped galactosyl-NONOate and the hole-modified β-galactosidase mutant, giving spatiotemporal control of delivery. Hou et al. found markedly increased therapeutic efficiency of NO delivery via the bump-and-hole engineered
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produced bump-and-hole pairs consisting of ET, a derivative of I-BET with an ethyl bump, and different members of the BET family with an L94A mutation in their BD1. ET was found to have a 160-fold greater specificity for hole-modified BD1 of BET mutants compared to compared to the BDs of wild type
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with an amino acid substitution from a larger to smaller residue, e.g. glycine or alanine, at the cofactor binding site. The designed ligand/inhibitor has specificity for the engineered protein due to steric complementarity, but not the native counterpart due to steric interference.
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Further, GalNac transferase knockout strategies are ineffective because the activity of isoforms in the family is both redundant and competitive, such that compensation occurs upon KO. Recently, Schumann et al. applied the bump-and-hole strategy to engineer bumped alkyne-containing
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As structural information about protein-ligand interfaces have become available, bump-and-hole pairs have been used to elucidate the substrates of specific proteins from various protein classes, as well as develop orthogonal neoenzyme-neosubstrate therapeutics.
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complementarity while maintaining biochemical competence and orthogonality to the wild type pair. Typically, a "bumped" ligand/inhibitor analog is designed to bind a corresponding "hole-modified" protein. Bumped ligands are commonly bulkier derivatives of a
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in a protein family without perturbing the other members of the family. The unattainability of isoform-selective inhibition due to structural homology in protein families is a major challenge of chemical genetics. With the bump-and-hole approach, a
243:-ButPhe-PP1 caused the reversal of transformation, suggesting inhibition of the kinase mutant. Later, the group developed bumped inhibitors 1-naphthyl PP1 (NA-PP1) and 1-methylnaphthyl PP1 (MN-PP1), which inhibited hole-modified yeast kinases with 186:
substrate proteins. Kinases play critical roles in complex cell signaling networks. Conserved ATP binding sites and similar catalytic mechanisms pose a challenge to selectively inhibiting a particular kinase to determine its function.
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Schumann, Benjamin; Malaker, Stacy Alyse; Wisnovsky, Simon Peter; Debets, Marjoke Froukje; Agbay, Anthony John; Fernandez, Daniel; Wagner, Lauren Jan Sarbo; Lin, Liang; Li, Zhen; Choi, Junwon; Fox, Douglas Michael (April 2020).
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Bishop, Anthony C.; Ubersax, Jeffrey A.; Petsch, Dejah T.; Matheos, Dina P.; Gray, Nathanael S.; Blethrow, Justin; Shimizu, Eiji; Tsien, Joe Z.; Schultz, Peter G.; Rose, Mark D.; Wood, John L. (September 2000).
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Filippakopoulos, Panagis; Qi, Jun; Picaud, Sarah; Shen, Yao; Smith, William B.; Fedorov, Oleg; Morse, Elizabeth M.; Keates, Tracey; Hickman, Tyler T.; Felletar, Ildiko; Philpott, Martin (December 2010).
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Filippakopoulos, Panagis; Qi, Jun; Picaud, Sarah; Shen, Yao; Smith, William B.; Fedorov, Oleg; Morse, Elizabeth M.; Keates, Tracey; Hickman, Tyler T.; Felletar, Ildiko; Philpott, Martin (December 2010).
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cofactors to radiolabel its substrates. Only the mutant kinase was able to bind the bumped ATP analogs, allowing labeling of substrates specific to the engineered v-Src kinase. Purification and
235:-ButPhe-PP1 was developed for selective inhibition; steric bulk precluded binding to the wild type v-Src kinase. In mammalian cell lines, active v-Src kinase is required for transformation by 105:
The first reported bump-and-hole pair. Hole-modified S99T/F113A mutant cyclophilin has an expanded hydrophobic pocket to accept a methyl bump in cyclosporin A analog MeIle11CsA.
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Belshaw, Peter J.; Schoepfer, Joseph G.; Liu, Karen-Qianye; Morrison, Kim L.; Schreiber, Stuart L. (1995-10-16). "Rational Design of Orthogonal Receptor–Ligand Combinations".
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Baud, M. G. J.; Lin-Shiao, E.; Cardote, T.; Tallant, C.; Pschibul, A.; Chan, K.-H.; Zengerle, M.; Garcia, J. R.; Kwan, T. T.- L.; Ferguson, F. M.; Ciulli, A. (2014-10-31).
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The Shokat group also applied the bump-and-hole approach to develop selective, cell-permeable bumped inhibitors of mutant kinases. For the I338G v-Src kinase, a 4-amino-l-
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Runcie, A. C.; Zengerle, M.; Chan, K.-H.; Testa, A.; van Beurden, L.; Baud, M. G. J.; Epemolu, O.; Ellis, L. C. J.; Read, K. D.; Coulthard, V.; Brien, A. (2018).
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Kast, Peter; Hennecke, Hauke (November 1991). "Amino acid substrate specificity of Escherichia coli phenylalanyl-tRNA synthetase altered by distinct mutations".
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Ubersax, Jeffrey A.; Woodbury, Erika L.; Quang, Phuong N.; Paraz, Maria; Blethrow, Justin D.; Shah, Kavita; Shokat, Kevan M.; Morgan, David O. (October 2003).
401:, on the substrates of distinct GalNac T isoforms, deconvolving substrate profiles while displaying complexity of glycan elaboration in the secretory pathway. 98:-FluoroPhe in translation, demonstrating that steric manipulation can successfully broaden substrate scope, even for the highly specific aminoacyl synthetase. 1292:
Hou, Jingli; Pan, Yiwa; Zhu, Dashuai; Fan, Yueyuan; Feng, Guowei; Wei, Yongzhen; Wang, He; Qin, Kang; Zhao, Tiechan; Yang, Qiang; Zhu, Yan (February 2019).
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Shi, Jian; Wang, Yifan; Zeng, Lei; Wu, Yadi; Deng, Jiong; Zhang, Qiang; Lin, Yiwei; Li, Junlin; Kang, Tiebang; Tao, Min; Rusinova, Elena (February 2014).
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yielded the substrates of v-Src kinase. Hole-modified kinase and bumped ATP analog pairs enabled substrate profiling of several other kinases, including
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Lee, Minjung; Li, Jia; Liang, Yi; Ma, Guolin; Zhang, Jixiang; He, Lian; Liu, Yuliang; Li, Qian; Li, Minyong; Sun, Deqiang; Zhou, Yubin (2017-04-05).
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The bumped ET inhibitor has selectivity for L94A BET BD due to steric complementarity. The un-bumped I-BET inhibitor would promiscuously bind BDs.
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Hertz, Nicholas T.; Berthet, Amandine; Sos, Martin L.; Thorn, Kurt S.; Burlingame, Al L.; Nakamura, Ken; Shokat, Kevan M. (August 2013).
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The bumped ATP analog N6-cyclopentyl ATP cannot bind wild type v-Src kinase, but can bind its bump-and-hole pair, I338G v-Src kinase.
267:(Bromodomains and Extra Terminal) family of proteins contain conserved motifs known as bromodomains (BDs) responsible for recognizing 312: 122: 372:
Hole-modified BH GalNac-Ts paired with UDP-GalNac analogs to tag GalNac T substrates to be visualized with click chemistry.
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Belshaw, Peter J.; Schreiber, Stuart L. (February 1997). "Cell-Specific Calcineurin Inhibition by a Modified Cyclosporin".
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Schematic of bumped pro-drug and hole-modified enzyme, releasing the drug only in the presence of the bump-and-hole pair.
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in a cell- and tissue-specific manner. More recently, this first bump-and-hole pair was used to induce the assembly of
41: 220:(PD). In the context of PD, the mutant PINK1-KTP pair represents an orthogonal neoenzyme-neosubstrate therapeutic. 139: 1119:"Disrupting the Interaction of BRD4 with Diacetylated Twist Suppresses Tumorigenesis in Basal-like Breast Cancer" 197: 193: 71: 216:
kinase mutant, which is otherwise inactive in the absence of the bumped analog. Inactive PINK1 is implicated in
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Bishop, Anthony C.; Shah, Kavita; Liu, Yi; Witucki, Laurie; Kung, Chi-yun; Shokat, Kevan M. (February 1998).
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showed that a hole-modified A294G phenylalanine tRNA synthetase mutant was able to incorporate the bumped
381: 79: 1180: 1065: 999: 933: 779: 584: 282: 394: 354: 1353:"Bump-and-Hole Engineering Identifies Specific Substrates of Glycosyltransferases in Living Cells" 1329: 965: 811: 236: 54: 988:"A bump-and-hole approach to engineer controlled selectivity of BET bromodomain chemical probes" 831:"A Neo-Substrate that Amplifies Catalytic Activity of Parkinson's-Disease-Related Kinase PINK1" 86:-FluoroPhe due to steric crowding from the hydroxymethylene of S294. Later work in the labs of 1408: 1384: 1321: 1313: 1271: 1253: 1214: 1196: 1148: 1099: 1081: 1033: 1015: 957: 949: 901: 860: 803: 795: 748: 704: 686: 647: 612: 604: 565: 530: 522: 487: 452: 143: 131: 32: 505:
Liu, Chang C.; Schultz, Peter G. (2010-06-07). "Adding New Chemistries to the Genetic Code".
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was paired with a bumped galactosyl-pro-drug. Jingli Hou and colleagues sought to deliver
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small-molecule with an Ile replacing Val at position 11, and a hole-modified (S99T/F113A)
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Liu, Yi; Shah, Kavita; Yang, Feng; Witucki, Laurie; Shokat, Kevan M. (February 1998).
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lacked inter- and intra-BET (between BDs on the same protein) selectivity. The lab of
1402: 483: 308: 1333: 1294:"Targeted delivery of nitric oxide via a 'bump-and-hole'-based enzyme–prodrug pair" 1293: 969: 815: 438: 389: 324: 320: 315:. In a recent therapeutic application of the bump-and-hole method, a hole-modified 188: 1369: 340: 300: 268: 264: 127: 118: 114: 846: 101: 1309: 1134: 727:"Engineering Src family protein kinases with unnatural nucleotide specificity" 166: 1317: 1257: 1200: 1085: 1019: 953: 799: 767: 690: 651: 608: 569: 526: 1011: 585:"Chemical genetics resulting from a passion for synthetic organic chemistry" 1388: 1325: 1275: 1218: 1152: 1103: 1037: 961: 864: 807: 708: 561: 534: 456: 921: 905: 752: 616: 491: 82:. The A294S mutant strain was able to incorporate Phe, but not the bumped 922:"A chemical switch for inhibitor-sensitive alleles of any protein kinase" 682: 350: 1192: 1077: 880:"Design of allele-specific inhibitors to probe protein kinase signaling" 791: 1249: 336: 332: 272: 209: 643: 945: 175: 135: 423:"The Bump-and-Hole Tactic: Expanding the Scope of Chemical Genetics" 368: 323:, an important messenger for promoting tissue growth processes like 292: 255: 667:"Engineered Split-TET2 Enzyme for Inducible Epigenetic Remodeling" 367: 291: 254: 213: 201: 165: 100: 18: 244: 70:
strains which carried an A294S mutant version of phenylalanine
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Inspiration for the bump-and-hole method was drawn from mutant
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Acetylgalactosaminyl transferase (GalNac Ts) family transfers
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system, compared to the unmodified pro-drug, in rat hindlimb
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are a family of enzymes that catalyzes the hydrolysis of
231:-methylphenyl)pyrazolopyrimidine (PP1) derivative called 126:
cyclophilin. The orthogonal CID pair was used to inhibit
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interface is engineered to achieve selectivity through
550:Angewandte Chemie International Edition in English 53:of the target protein. Hole-modified proteins are 142:dioxygenase in cells for temporally controlled 768:"Targets of the cyclin-dependent kinase Cdk1" 8: 109:The first bump-and-hole pair, developed by 1169:"Selective inhibition of BET bromodomains" 1054:"Selective inhibition of BET bromodomains" 311:proteins, one of the most common forms of 1378: 1368: 1265: 1208: 1142: 1093: 1027: 895: 854: 742: 698: 446: 671:Journal of the American Chemical Society 632:Journal of the American Chemical Society 307:. These enzymes can cleave glycans from 247:values in low nanomolar concentrations. 410: 335:system, wherein the NO-releasing drug, 212:. Once synthesized, it can activate a 123:chemical inducer of dimerization (CID) 1345: 1343: 1287: 1285: 981: 979: 519:10.1146/annurev.biochem.052308.105824 7: 720: 718: 589:Bioorganic & Medicinal Chemistry 416: 414: 583:Schreiber, Stuart L. (1998-08-01). 364:-Acetylgalactosaminyl transferases 23:Schematic of bump-and-hole method. 14: 421:Islam, Kabirul (October 2018). 313:post-translational modification 134:of nuclear factor of activated 439:10.1016/j.chembiol.2018.07.001 1: 897:10.1016/S0960-9822(98)70198-8 744:10.1016/S1074-5521(98)90143-0 601:10.1016/S0968-0896(98)00126-6 507:Annual Review of Biochemistry 113:and colleagues, was a bumped 1370:10.1016/j.molcel.2020.03.030 484:10.1016/0022-2836(91)90740-W 472:Journal of Molecular Biology 384:to the Ser/Thr side chains ( 121:mutant. Cyclosporin A is a 1435: 847:10.1016/j.cell.2013.07.030 140:ten-eleven translocation 2 1310:10.1038/s41589-018-0190-5 1135:10.1016/j.ccr.2014.01.028 74:and survived exposure to 16:Tool in chemical genetics 35:for studying a specific 1298:Nature Chemical Biology 1012:10.1126/science.1249830 731:Chemistry & Biology 55:recombinantly expressed 562:10.1002/anie.199521291 386:O-linked glycosylation 373: 297: 283:transcription factors. 271:lysine on nucleosomal 260: 171: 106: 24: 427:Cell Chemical Biology 382:N-Acetylgalactosamine 371: 295: 258: 169: 104: 22: 683:10.1021/jacs.7b01459 29:bump-and-hole method 1193:10.1038/nature09504 1185:2010Natur.468.1067F 1179:(7327): 1067–1073. 1078:10.1038/nature09504 1070:2010Natur.468.1067F 1064:(7327): 1067–1073. 1004:2014Sci...346..638B 938:2000Natur.407..395B 792:10.1038/nature02062 784:2003Natur.425..859U 355:acute kidney injury 218:Parkinson's disease 194:MS-based proteomics 1363:(5): 824–834.e15. 1250:10.1039/C7SC02536J 374: 344:moiety and strict 298: 261: 237:Rous sarcoma virus 172: 107: 25: 998:(6209): 638–641. 932:(6802): 395–401. 778:(6960): 859–864. 677:(13): 4659–4662. 644:10.1021/ja9636146 556:(19): 2129–2132. 433:(10): 1171–1184. 182:as a cofactor to 144:DNA demethylation 132:dephosphorylation 33:chemical genetics 1426: 1393: 1392: 1382: 1372: 1347: 1338: 1337: 1289: 1280: 1279: 1269: 1244:(9): 2452–2468. 1238:Chemical Science 1229: 1223: 1222: 1212: 1163: 1157: 1156: 1146: 1114: 1108: 1107: 1097: 1048: 1042: 1041: 1031: 983: 974: 973: 946:10.1038/35030148 916: 910: 909: 899: 875: 869: 868: 858: 826: 820: 819: 763: 757: 756: 746: 722: 713: 712: 702: 662: 656: 655: 638:(7): 1805–1806. 627: 621: 620: 595:(8): 1127–1152. 580: 574: 573: 545: 539: 538: 502: 496: 495: 467: 461: 460: 450: 418: 346:regioselectivity 305:glycosidic bonds 111:Stuart Schreiber 92:David A. Tirrell 88:Peter G. Schultz 1434: 1433: 1429: 1428: 1427: 1425: 1424: 1423: 1414:Homology theory 1399: 1398: 1397: 1396: 1349: 1348: 1341: 1291: 1290: 1283: 1231: 1230: 1226: 1165: 1164: 1160: 1116: 1115: 1111: 1050: 1049: 1045: 985: 984: 977: 918: 917: 913: 884:Current Biology 877: 876: 872: 828: 827: 823: 765: 764: 760: 724: 723: 716: 664: 663: 659: 629: 628: 624: 582: 581: 577: 547: 546: 542: 504: 503: 499: 469: 468: 464: 420: 419: 412: 407: 399:click chemistry 366: 290: 253: 164: 155: 149: 72:tRNA synthetase 64: 17: 12: 11: 5: 1432: 1430: 1422: 1421: 1419:Human proteins 1416: 1411: 1401: 1400: 1395: 1394: 1357:Molecular Cell 1339: 1304:(2): 151–160. 1281: 1224: 1158: 1129:(2): 210–225. 1109: 1043: 975: 911: 890:(5): 257–266. 870: 841:(4): 737–747. 821: 758: 714: 657: 622: 575: 540: 513:(1): 413–444. 497: 462: 409: 408: 406: 403: 390:glycoproteins. 365: 359: 329:vasculogenesis 289: 286: 278:Alessio Ciulli 252: 249: 189:Kevan Shokat's 174:Human protein 163: 160: 154: 151: 63: 60: 42:protein–ligand 15: 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734: 730: 674: 670: 660: 635: 631: 625: 592: 588: 578: 553: 549: 543: 510: 506: 500: 475: 471: 465: 430: 426: 377: 375: 361: 325:angiogenesis 321:nitric oxide 309:glycosylated 301:Glycosidases 299: 288:Glycosidases 262: 251:BET proteins 240: 232: 228: 224: 222: 206: 173: 156: 153:Applications 148: 108: 95: 83: 75: 65: 28: 26: 1123:Cancer Cell 341:methylation 204:, and JNK. 128:calcineurin 119:cyclophilin 80:translation 1403:Categories 405:References 353:and mouse 269:acetylated 227:-butyl-3-( 130:-mediated 1318:1552-4450 1258:2041-6520 1201:0028-0836 1086:0028-0836 1020:0036-8075 954:0028-0836 800:0028-0836 691:0002-7863 652:0002-7863 609:0968-0896 570:0570-0833 527:0066-4154 273:histones. 200:, Pho85, 1409:Genetics 1389:32325029 1334:58561892 1326:30598545 1276:29732121 1219:20871596 1153:24525235 1104:20871596 1038:25323695 962:11014197 865:23953109 808:14574415 709:28294608 535:20307192 457:30078633 357:models. 351:ischemia 333:pro-drug 51:cofactor 1380:7276986 1267:5909127 1210:3010259 1181:Bibcode 1144:4004960 1095:3010259 1066:Bibcode 1029:4458378 1000:Bibcode 992:Science 970:4430890 934:Bibcode 906:9501066 856:3950538 816:4391711 780:Bibcode 753:9495830 700:5385525 617:9784856 492:1942071 448:6195450 337:NONOate 210:kinetin 176:kinases 162:Kinases 136:T cells 68:E. coli 62:History 37:isoform 1387:  1377:  1332:  1324:  1316:  1274:  1264:  1256:  1217:  1207:  1199:  1173:Nature 1151:  1141:  1102:  1092:  1084:  1058:Nature 1036:  1026:  1018:  968:  960:  952:  926:Nature 904:  863:  853:  814:  806:  798:  772:Nature 751:  707:  697:  689:  650:  615:  607:  568:  533:  525:  490:  455:  445:  46:steric 1330:S2CID 966:S2CID 812:S2CID 214:PINK1 208:with 1385:PMID 1322:PMID 1314:ISSN 1272:PMID 1254:ISSN 1215:PMID 1197:ISSN 1149:PMID 1100:PMID 1082:ISSN 1034:PMID 1016:ISSN 958:PMID 950:ISSN 902:PMID 861:PMID 835:Cell 804:PMID 796:ISSN 749:PMID 705:PMID 687:ISSN 648:ISSN 613:PMID 605:ISSN 566:ISSN 531:PMID 523:ISSN 488:PMID 453:PMID 376:The 327:and 263:The 245:IC50 225:tert 202:ERK2 198:CDK1 178:use 90:and 27:The 1375:PMC 1365:doi 1306:doi 1262:PMC 1246:doi 1205:PMC 1189:doi 1177:468 1139:PMC 1131:doi 1090:PMC 1074:doi 1062:468 1024:PMC 1008:doi 996:346 942:doi 930:407 892:doi 851:PMC 843:doi 839:154 788:doi 776:425 739:doi 695:PMC 679:doi 675:139 640:doi 636:119 597:doi 558:doi 515:doi 480:doi 476:222 443:PMC 435:doi 395:UDP 265:BET 180:ATP 1405:: 1383:. 1373:. 1361:78 1359:. 1355:. 1342:^ 1328:. 1320:. 1312:. 1302:15 1300:. 1296:. 1284:^ 1270:. 1260:. 1252:. 1240:. 1236:. 1213:. 1203:. 1195:. 1187:. 1175:. 1171:. 1147:. 1137:. 1127:25 1125:. 1121:. 1098:. 1088:. 1080:. 1072:. 1060:. 1056:. 1032:. 1022:. 1014:. 1006:. 994:. 990:. 978:^ 964:. 956:. 948:. 940:. 928:. 924:. 900:. 886:. 882:. 859:. 849:. 837:. 833:. 810:. 802:. 794:. 786:. 774:. 770:. 747:. 733:. 729:. 717:^ 703:. 693:. 685:. 673:. 669:. 646:. 634:. 611:. 603:. 591:. 587:. 564:. 554:34 552:. 529:. 521:. 511:79 509:. 486:. 474:. 451:. 441:. 431:25 429:. 425:. 413:^ 378:N- 146:. 1391:. 1367:: 1336:. 1308:: 1278:. 1248:: 1242:9 1221:. 1191:: 1183:: 1155:. 1133:: 1106:. 1076:: 1068:: 1040:. 1010:: 1002:: 972:. 944:: 936:: 908:. 894:: 888:8 867:. 845:: 818:. 790:: 782:: 755:. 741:: 735:5 711:. 681:: 654:. 642:: 619:. 599:: 593:6 572:. 560:: 537:. 517:: 494:. 482:: 459:. 437:: 362:N 241:p 233:p 229:p 96:p 84:p 76:p

Index


chemical genetics
isoform
protein–ligand
steric
cofactor
recombinantly expressed
E. coli
tRNA synthetase
translation
Peter G. Schultz
David A. Tirrell

Stuart Schreiber
cyclosporin A
cyclophilin
chemical inducer of dimerization (CID)
calcineurin
dephosphorylation
T cells
ten-eleven translocation 2
DNA demethylation

kinases
ATP
phosphorylate
Kevan Shokat's
MS-based proteomics
CDK1
ERK2

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