Novel scheme for defining the clinical implications of TP53 mutations in myeloid neoplasia

被引:19
作者
Bahaj, Waled [1 ,2 ]
Kewan, Tariq [1 ,3 ]
Gurnari, Carmelo [1 ,4 ]
Durmaz, Arda [1 ]
Ponvilawan, Ben [1 ]
Pandit, Ishani [1 ]
Kubota, Yasuo [1 ]
Ogbue, Olisaemeka D. [1 ]
Zawit, Misam [1 ]
Madanat, Yazan [5 ]
Bat, Taha [5 ]
Balasubramanian, Suresh K. [6 ]
Awada, Hussein [1 ]
Ahmed, Ramsha [1 ]
Mori, Minako [1 ]
Meggendorfer, Manja [7 ]
Haferlach, Torsten [7 ]
Visconte, Valeria [1 ]
Maciejewski, Jaroslaw P. [1 ]
机构
[1] Taussig Canc Inst, Dept Translat Hematol & Oncol Res, Cleveland Clin, 9620 Carnegie Ave N Bldg,Bldg NE6-250, Cleveland Hts, OH 44106 USA
[2] Univ Louisville, Sch Med, Div Med Oncol & Hematol, Louisville, KY USA
[3] Yale Sch Med, Div Hematol & Oncol, New Haven, CT USA
[4] Univ Roma Tor Vergata, Dept Biomed & Prevent, PhD Immunol Mol Med & Appl Biotechnol, Rome, Italy
[5] Univ Texas Southwestern Med Ctr, Dept Internal Med, Div Hematol & Oncol, Dallas, TX USA
[6] Wayne State Univ, Dept Hematol & Oncol, Detroit, MI USA
[7] MLL Munich Leukemia Lab, Munich, Germany
关键词
TP53; mutations; Allelic inactivation; Myeloid neoplasia; Next-generation sequencing; Single-cell DNA sequencing; DELETION; REVEALS; LESIONS;
D O I
10.1186/s13045-023-01480-y
中图分类号
R73 [肿瘤学];
学科分类号
100214 ;
摘要
BackgroundTP53 mutations (TP53(MT)) occur in diverse genomic configurations. Particularly, biallelic inactivation is associated with poor overall survival in cancer. Lesions affecting only one allele might not be directly leukemogenic, questioning the presence of cryptic biallelic subclones in cases with dismal prognosis.MethodsWe have collected clinical and molecular data of 7400 patients with myeloid neoplasms and applied a novel model by identifying an optimal VAF cutoff using a statistically robust strategy of sampling-based regression on survival data to accurately classify the TP53 allelic configuration and assess prognosis more precisely.ResultsOverall, TP53(MT) were found in 1010 patients. Following the traditional criteria, 36% of the cases were classified as single hits, while 64% exhibited double hits genomic configuration. Using a newly developed molecular algorithm, we found that 579 (57%) patients had unequivocally biallelic, 239 (24%) likely contained biallelic, and 192 (19%) had most likely monoallelic TP53(MT). Interestingly, our method was able to upstage 192 out of 352 (54.5%) traditionally single hit lesions into a probable biallelic category. Such classification was further substantiated by a survival-based model built after re-categorization. Among cases traditionally considered monoallelic, the overall survival of those with probable monoallelic mutations was similar to the one of wild-type patients and was better than that of patients with a biallelic configuration. As a result, patients with certain biallelic hits, regardless of the disease subtype (AML or MDS), had a similar prognosis. Similar results were observed when the model was applied to an external cohort. In addition, single-cell DNA studies unveiled the biallelic nature of previously considered monoallelic cases.ConclusionOur novel approach more accurately resolves TP53 genomic configuration and uncovers genetic mosaicism for the use in the clinical setting to improve prognostic evaluation.
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页数:12
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共 32 条
[1]   The Inherited p53 Mutation in the Brazilian Population [J].
Achatz, Maria Isabel ;
Zambetti, Gerard P. .
COLD SPRING HARBOR PERSPECTIVES IN MEDICINE, 2016, 6 (12)
[2]   International Consensus Classification of Myeloid Neoplasms and Acute Leukemias: integrating morphologic, clinical, and genomic data [J].
Arber, Daniel A. ;
Orazi, Attilio ;
Hasserjian, Robert P. ;
Borowitz, Michael J. ;
Calvo, Katherine R. ;
Kvasnicka, Hans-Michael ;
Wang, Sa A. ;
Bagg, Adam ;
Barbui, Tiziano ;
Branford, Susan ;
Bueso-Ramos, Carlos E. ;
Cortes, Jorge E. ;
Dal Cin, Paola ;
DiNardo, Courtney D. ;
Dombret, Herve ;
Duncavage, Eric J. ;
Ebert, Benjamin L. ;
Estey, Elihu H. ;
Facchetti, Fabio ;
Foucar, Kathryn ;
Gangat, Naseema ;
Gianelli, Umberto ;
Godley, Lucy A. ;
Gokbuget, Nicola ;
Gotlib, Jason ;
Hellstrom-Lindberg, Eva ;
Hobbs, Gabriela S. ;
Hoffman, Ronald ;
Jabbour, Elias J. ;
Kiladjian, Jean-Jacques ;
Larson, Richard A. ;
Le Beau, Michelle M. ;
Loh, Mignon L. -C. ;
Lowenberg, Bob ;
Macintyre, Elizabeth ;
Malcovati, Luca ;
Mullighan, Charles G. ;
Niemeyer, Charlotte ;
Odenike, Olatoyosi M. ;
Ogawa, Seishi ;
Orfao, Alberto ;
Papaemmanuil, Elli ;
Passamonti, Francesco ;
Porkka, Kimmo ;
Pui, Ching-Hon ;
Radich, Jerald P. ;
Reiter, Andreas ;
Rozman, Maria ;
Rudelius, Martina ;
Savona, Michael R. .
BLOOD, 2022, 140 (11) :1200-1228
[3]   Knudson's hypothesis and the TP53 revolution [J].
Baker, SJ ;
Kinzler, KW ;
Vogelstein, B .
GENES CHROMOSOMES & CANCER, 2003, 38 (04) :329-329
[4]   Clinical Effect of Point Mutations in Myelodysplastic Syndromes [J].
Bejar, Rafael ;
Stevenson, Kristen ;
Abdel-Wahab, Omar ;
Galili, Naomi ;
Nilsson, Bjoern ;
Garcia-Manero, Guillermo ;
Kantarjian, Hagop ;
Raza, Azra ;
Levine, Ross L. ;
Neuberg, Donna ;
Ebert, Benjamin L. .
NEW ENGLAND JOURNAL OF MEDICINE, 2011, 364 (26) :2496-2506
[5]   Implications ofTP53allelic state for genome stability, clinical presentation and outcomes in myelodysplastic syndromes [J].
Bernard, Elsa ;
Nannya, Yasuhito ;
Hasserjian, Robert P. ;
Devlin, Sean M. ;
Tuechler, Heinz ;
Medina-Martinez, Juan S. ;
Yoshizato, Tetsuichi ;
Shiozawa, Yusuke ;
Saiki, Ryunosuke ;
Malcovati, Luca ;
Levine, Max F. ;
Arango, Juan E. ;
Zhou, Yangyu ;
Sole, Francesc ;
Cargo, Catherine A. ;
Haase, Detlef ;
Creignou, Maria ;
Germing, Ulrich ;
Zhang, Yanming ;
Gundem, Gunes ;
Sarian, Araxe ;
van de Loosdrecht, Arjan A. ;
Jadersten, Martin ;
Tobiasson, Magnus ;
Kosmider, Olivier ;
Follo, Matilde Y. ;
Thol, Felicitas ;
Pinheiro, Ronald F. ;
Santini, Valeria ;
Kotsianidis, Ioannis ;
Boultwood, Jacqueline ;
Santos, Fabio P. S. ;
Schanz, Julie ;
Kasahara, Senji ;
Ishikawa, Takayuki ;
Tsurumi, Hisashi ;
Takaori-Kondo, Akifumi ;
Kiguchi, Toru ;
Polprasert, Chantana ;
Bennett, John M. ;
Klimek, Virginia M. ;
Savona, Michael R. ;
Belickova, Monika ;
Ganster, Christina ;
Palomo, Laura ;
Sanz, Guillermo ;
Ades, Lionel ;
Della Porta, Matteo Giovanni ;
Smith, Alexandra G. ;
Werner, Yesenia .
NATURE MEDICINE, 2020, 26 (10) :1549-+
[6]   Classification and Personalized Prognostic Assessment on the Basis of Clinical and Genomic Features in Myelodysplastic Syndromes [J].
Bersanelli, Matteo ;
Travaglino, Erica ;
Meggendorfer, Manja ;
Matteuzzi, Tommaso ;
Sala, Claudia ;
Mosca, Ettore ;
Chiereghin, Chiara ;
Di Nanni, Noemi ;
Gnocchi, Matteo ;
Zampini, Matteo ;
Rossi, Marianna ;
Maggioni, Giulia ;
Termanini, Alberto ;
Angelucci, Emanuele ;
Bernardi, Massimo ;
Borin, Lorenza ;
Bruno, Benedetto ;
Bonifazi, Francesca ;
Santini, Valeria ;
Bacigalupo, Andrea ;
Voso, Maria Teresa ;
Oliva, Esther ;
Riva, Marta ;
Ubezio, Marta ;
Morabito, Lucio ;
Campagna, Alessia ;
Saitta, Claudia ;
Savevski, Victor ;
Giampieri, Enrico ;
Remondini, Daniel ;
Passamonti, Francesco ;
Ciceri, Fabio ;
Bolli, Niccolo ;
Rambaldi, Alessandro ;
Kern, Wolfgang ;
Kordasti, Shahram ;
Sole, Francesc ;
Palomo, Laura ;
Sanz, Guillermo ;
Santoro, Armando ;
Platzbecker, Uwe ;
Fenaux, Pierre ;
Milanesi, Luciano ;
Haferlach, Torsten ;
Castellani, Gastone ;
Della Porta, Matteo G. .
JOURNAL OF CLINICAL ONCOLOGY, 2021, 39 (11) :1223-+
[7]   A dominant-negative effect drives selection of TP53 missense mutations in myeloid malignancies [J].
Boettcher, Steffen ;
Miller, Peter G. ;
Sharma, Rohan ;
McConkey, Marie ;
Leventhal, Matthew ;
Krivtsov, Andrei V. ;
Giacomelli, Andrew O. ;
Wong, Waihay ;
Kim, Jesi ;
Chao, Sherry ;
Kurppa, Kari J. ;
Yang, Xiaoping ;
Milenkowic, Kirsten ;
Piccioni, Federica ;
Root, David E. ;
Ruecker, Frank G. ;
Flamand, Yael ;
Neuberg, Donna ;
Lindsley, R. Coleman ;
Janne, Pasi A. ;
Hahn, William C. ;
Jacks, Tyler ;
Doehner, Hartmut ;
Armstrong, Scott A. ;
Ebert, Benjamin L. .
SCIENCE, 2019, 365 (6453) :599-+
[8]   Precision medicine treatment in acute myeloid leukemia using prospective genomic profiling: feasibility and preliminary efficacy of the Beat AML Master Trial [J].
Burd, Amy ;
Levine, Ross L. ;
Ruppert, Amy S. ;
Mims, Alice S. ;
Borate, Uma ;
Stein, Eytan M. ;
Patel, Prapti ;
Baer, Maria R. ;
Stock, Wendy ;
Deininger, Michael ;
Blum, William ;
Schiller, Gary ;
Olin, Rebecca ;
Litzow, Mark ;
Foran, James ;
Lin, Tara L. ;
Ball, Brian ;
Boyiadzis, Michael ;
Traer, Elie ;
Odenike, Olatoyosi ;
Arellano, Martha ;
Walker, Alison ;
Duong, Vu. H. ;
Kovacsovics, Tibor ;
Collins, Robert ;
Shoben, Abigail B. ;
Heerema, Nyla A. ;
Foster, Matthew C. ;
Vergilio, Jo-Anne ;
Brennan, Tim ;
Vietz, Christine ;
Severson, Eric ;
Miller, Molly ;
Rosenberg, Leonard ;
Marcus, Sonja ;
Yocum, Ashley ;
Chen, Timothy ;
Stefanos, Mona ;
Druker, Brian ;
Byrd, John C. .
NATURE MEDICINE, 2020, 26 (12) :1852-1858
[9]   The genetic basis of myelodysplasia and its clinical relevance [J].
Cazzola, Mario ;
Della Porta, Matteo G. ;
Malcovati, Luca .
BLOOD, 2013, 122 (25) :4021-4034
[10]   Mutant p53 drives clonal hematopoiesis through modulating epigenetic pathway [J].
Chen, Sisi ;
Wang, Qiang ;
Yu, Hao ;
Capitano, Maegan L. ;
Vemula, Sasidhar ;
Nabinger, Sarah C. ;
Gao, Rui ;
Yao, Chonghua ;
Kobayashi, Michihiro ;
Geng, Zhuangzhuang ;
Fahey, Aidan ;
Henley, Danielle ;
Liu, Stephen Z. ;
Barajas, Sergio ;
Cai, Wenjie ;
Wolf, Eric R. ;
Ramdas, Baskar ;
Cai, Zhigang ;
Gao, Hongyu ;
Luo, Na ;
Sun, Yang ;
Wong, Terrence N. ;
Link, Daniel C. ;
Liu, Yunlong ;
Boswell, H. Scott ;
Mayo, Lindsey D. ;
Huang, Gang ;
Kapur, Reuben ;
Yoder, Mervin C. ;
Broxmeyer, Hal E. ;
Gao, Zhonghua ;
Liu, Yan .
NATURE COMMUNICATIONS, 2019, 10 (1)