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Interim Analysis of a Phase 1 Study of the Antibody-Drug Conjugate SGN-CD19A in Relapsed or Refractory B-Lineage Acute Leukemia and Highly Aggressive Lymphoma
Fathi, Amir T. , Chen, Robert , Trippett, Tanya, Cooper, Todd M. , Foran, James M. , Hale, Gregory A., Albertson, Tina, Sandalic, Larissa, Zhao, Baiteng, Borate, Uma , O'Brien, Maureen Megan , DeAngelo, Daniel J. , Shah, Bijal , Pressey, Joseph G. , Silverman, Lewis B. , Tibes, Raoul , Kim, Stella Yun

Blood | October 11, 2019 | Volume: 124 | Issue: 21 | Pages: 963-963

10.1182/blood.v124.21.963.963 Get It

Abstract Background CD19, a B cell-specific marker, is expressed in the majority of patients with B-lineage leukemia and non-Hodgkin lymphoma. SGN-CD19A is a novel antibody-drug conjugate (ADC) composed of a humanized anti-CD19 monoclonal antibody conjugated to the microtubule-disrupting agent monomethyl auristatin F (MMAF) via a maleimidocaproyl linker. Methods This first-in-human, phase 1, open-label, dose-escalation study is investigating the safety, tolerability, pharmacokinetics, and antitumor activity of SGN-CD19A in adult and pediatric patients with relapsed or refractory B-cell leukemia or highly aggressive lymphoma (NCT 01786096). Eligible patients must have B-cell acute lymphoblastic leukemia (B-ALL) or lymphoma (B-LBL), Burkitt leukemia or lymphoma, and be relapsed or refractory to at least 1 prior systemic regimen. A modified continual reassessment method is used for dose allocation and maximum tolerated dose (MTD) estimation for both pediatric and adult patients. The study is evaluating 2 schedules of IV SGN-CD19A administration: weekly (Days 1 and 8 of 21-day cycles; 0.3-4.5 mg/kg) or every 3weeks (q3week; 0.5-6 mg/kg). Results To date, 49 patients with relapsed or refractory leukemia (n=40) or lymphoma (n=9) have been treated. Median age of adult (n=38) and pediatric patients (n=11) was 37 and 11 years (range, 18-74 and 1-16), respectively. Patients received a median of 2 prior therapies (range 1-9); 14 patients (29%) previously received an allogeneic stem cell transplant. On the weekly schedule, 39 patients (28 adult, 11 pediatric) have been treated, and the median number of cycles is 2.5 (adults; range, 1-12) or 1 (pediatric; range, 1-4). On the q3week schedule, 10 adult patients have been treated, and the median number of cycles is 2.5 (range, 1-4) to date. Six patients remain on study treatment (3 on each schedule), and enrollment is ongoing. The toxicity profiles were similar across both dosing schedules (0.3-2.3 mg/kg weekly and 4-5 mg/kg q3week) and across adult and pediatric patients. The most frequently reported drug-related AEs included pyrexia, nausea, chills, vomiting, blurred vision, and dry eye. Frequent infusion-related reactions were observed early in the study, and recommendation for premedication was instituted. Ocular events were also observed and treated with ophthalmic steroids; steroid eye drop prophylaxis was instituted with each dose. Corneal findings consistent with superficial microcystic keratopathy were observed in 13 adult patients (34%) and in 1 pediatric patient (9%). Grade 3/4 corneal AEs have been observed in 4 adult patients; the majority of these events have resolved or improved to Grade 1 or 2. Steroid eye drop prophylaxis has reduced the incidence of Grade 3/4 events at this interim analysis. Three DLTs were observed: acidosis in a pediatric patient at 1 mg/kg weekly, cytokine release syndrome in an adult patient at 2 mg/kg weekly, and asymptomatic Grade 4 AST elevation in an adult patient at 5 mg/kg q3week. MTD has not yet been determined. SGN-CD19A ADC pharmacokinetic profiles indicate target-mediated drug disposition in patients with leukemia. Plasma ADC exposures generally increased with doses and were lower than those in patients with lymphoma. To date, no objective responses were observed in 9 efficacy-evaluable pediatric patients or in 3 adult patients with Burkitt lymphoma/leukemia. However, in efficacy-evaluable adult patients with B-ALL/B-LBL, objective responses were observed in 6 of 25 patients treated on the weekly schedule (3 CR, 2 CRp, 1 PR), and in 4 of 8 patients treated on the q3week schedule (2 CR, 2 CRp). Of 8 B-ALL patients with CR/CRp, 6 were MRD negative. Conclusions MTDs have not yet been identified, and dose escalation continues on weekly and q3week schedules. SGN-CD19A has been generally well tolerated. At this interim analysis, objective responses were observed in 30% (10 of 33) of heavily pretreated adult B-ALL/B-LBL patients dosed weekly or q3week. Evidence of activity in relapsed/refractory patients and lack of overlapping toxicities suggest opportunities for combination with conventional anti-leukemic therapies in lymphoblastic malignancies. Disclosures Fathi: Ariad: Consultancy; Exelixis: Research Funding; Takeda pharmaceuticals International Co.: Research Funding; Seattle Genetics, Inc.: Consultancy, Research Funding. Off Label Use: SGN-CD19A is an investigational agent being studied in patients with B-cell malignancies. SGN-CD19A is not approved for use. . Chen:Seattle Genetics, Inc.: Consultancy, Research Funding, Speakers Bureau, Travel expenses Other. Trippett:OSI Pharmaceuticals: Research Funding; Seattle Genetics, Inc.: Research Funding. O'Brien:Seattle Genetics, Inc.: Research Funding. DeAngelo:Seattle Genetics, Inc.: Research Funding. Shah:Pharmacyclics: Consultancy; SWOG: Consultancy; Celgene: Consultancy, Speakers Bureau; NCCN: Consultancy; Seattle Genetics, Inc.: Research Funding; Janssen: Consultancy. Cooper:Seattle Genetics, Inc.: Research Funding. Foran:Seattle Genetics, Inc.: Research Funding. Hale:Seattle Genetics, Inc.: Research Funding. Pressey:Seattle Genetics, Inc.: Research Funding. Silverman:Seattle Genetics, Inc.: Research Funding. Tibes:Seattle Genetics, Inc.: Research Funding. Kim:Bayer: Consultancy; Eli Lily: Consultancy; Seattle Genetics, Inc.: Consultancy, Research Funding. Albertson:Seattle Genetics, Inc.: Employment, Equity Ownership. Sandalic:Seattle Genetics, Inc.: Employment, Equity Ownership. Zhao:Seattle Genetics, Inc.: Employment, Equity Ownership. Borate:Genoptix: Consultancy; Seattle Genetics, Inc.: Research Funding.
mTOR Dual Inhibitor Induced Cytotoxicity Depends on 4EBP1/c-Myc/Puma and NFkB/Egr-1/Bim Pathways in Human Lymphoid Malignancies
Knorr, Katherine , Almada, Luciana L. , Schneider, Paula A., Peterson, Kevin L. , Flatten, Karen S., Hess, Allan D., Karp, Judith E. , Fernández-Zapico, Martín E. , Yun, Seongseok , Vincelette, Nicole D. , Smith, B. Douglas , Kaufmann, Scott H.

Blood | October 10, 2019 | Volume: 126 | Issue: 23 | Pages: 3705-3705

10.1182/blood.v126.23.3705.3705 Get It

Abstract The mammalian target of rapamycin (mTOR), a kinase that regulates proliferation and apoptosis, has been extensively evaluated as a therapeutic target in hematologic malignancies. Rapamycin analogues, which partially inhibit mTOR complex 1 (mTORC1), showed limited anti-tumor activity due to feedback mechanisms involving mTORC2 and incomplete inhibition of mTORC1. Thus, attention has turned to agents targeting both mTOR complexes by binding the mTOR kinase domain. The purpose of this study was to delineate the mechanisms of mTOR dual inhibitor induced apoptosis in human neoplastic lymphoid cells in vitro. MTS assays and propidium iodide staining followed by flow cytometry for subdiploid populations demonstrated that OSI-027 and MLN0128 inhibited cell proliferation and induced apoptosis in a wide range of lymphoid cell lines including Jurkat, Nalm-6, Molt-4, and SeAX. Raptor and Rictor knockdown in Jurkat and Nalm-6 increased cell death, suggesting both mTOR complexes play a role in apoptosis. 4EBP1 phosphorylation was inhibited by mTOR dual inhibitors, but not by rapamycin. Expression of 4EBP1 T37A/T46A and 4EBP1 T37A/T46A/S65A/T70A, which mimic dephosphorylated 4EBP1, increased Puma mRNA and protein levels as well as apoptosis. Moreover, 4EBP1 knockdown abrogated mTOR dual inhibitor induced Puma upregulation and cell death, further supporting the role of 4EBP1 dephosphorylation in mTORC1 dependent apoptosis. In accord with the known dependence of c-Myc translation on the eIF4E/eIF4G complex, we also observed c-Myc downregulation after treatment with OSI-027, MLN0128 and 4EGI-1, but not rapamycin. Puma induction mirrored c-Myc downregulation under a variety of conditions, including expression of nonphosphorylatable 4EBP1 in parental Jurkat cells or wt 4EBP1 in 4EBP1 deficient cells. Furthermore, c-Myc knockdown induced Puma mRNA and protein as well as increased apoptosis. Collectively, these results support a model in which mTORC1 inhibition, acting through 4EBP1, induces Puma upregulation and apoptosis through c-Myc downregulation. In order to assess the parallel mTORC2-dependent Bim-mediated apoptotic mechanism, we utilized reporter assays and RNAseq experiments. OSI-027-induced Bim promoter activity decreased markedly when the nucleotides -29 to -18 were removed, suggesting that this response element is critical for OSI-027-induced promoter activation. In silico analysis identified eight transcription factors, including SP1, Egr-1, and Myb, that potentially bind this 12-bp region. In RNAseq experiments, we detected a 9-fold increase in Egr-1. Egr-1 upregulation was confirmed by qRT-PCR and immunoblotting after dual inhibitors treatment or Rictor knockdown. Moreover, dominant negative Egr-1 or Egr-1 knockdown diminished dual inhibitor-induced Bim promoter activation and Bim upregulation. Chromatin immunoprecipitation assays demonstrated that OSI-027 enhances binding of Egr-1 to a region of the Bim promoter including bp -29 to -18, further confirming that Egr-1 functions as a direct transcriptional activator for Bim upon mTOR dual inhibitor treatment. NFκB is a known transcription factor for Egr-1 and we observed increased p65 in the nucleus and increased NFκB transcriptional activity after dual inhibitor treatment. Overexpression of S32A/S36A IκB impaired the ability of dual inhibitors to induce NFκB transcriptional activation, Egr-1 mRNA and protein, Bim promoter activation and Bim mRNA and protein upregulation. Collectively, these results suggest that mTORC2 inhibition induces Bim upregulation and apoptosis through NFκB and Egr-1 transactivation. When fresh clinical ALL isolates were exposed to OSI-027 or MLN0128 ex vivo, inhibition of 4EBP1 phosphorylation along with upregulation of Egr-1 and Bim and/or c-Myc downregulation accompanied by Puma induction occurred, indicating that the pathways identified in ALL cell lines can also potentially be engaged in clinical ALLs. These observations not only provide new insight into the survival roles of mTOR in lymphoid malignancies, but also identify alterations that potentially modulate the action of mTOR dual inhibitors. Disclosures No relevant conflicts of interest to declare.
Recombinant Human Thrombopoietin in Combination With Granulocyte Colony-Stimulating Factor Enhances Mobilization of Peripheral Blood Progenitor Cells, Increases Peripheral Blood Platelet Concentration, and Accelerates Hematopoietic Recovery Following High-
Somlo, George, Sniecinski, Irena, Veer, Anna ter, Knutson, Gaylord J., Vuk‐Pavlović, Stanimir , Chow, Warren , Leong, Lucille, Morgan, Robert J. , Raschko, James, Shibata, Stephen, Tetef, Merry, Forman, Stephen J. , Jones, Dennie V. , Ashby, Mark, Fyfe, Gwen, Hellmann, Susan, Doroshow, James H. , Chow, Warren A , Longmate, Jeff , Bhatia, Ravi , Margolin, Kim , Yen, Yun , Fyfe, G.

Blood | October 10, 2019 | Volume: 93 | Issue: 9 | Pages: 2798-2806

10.1182/blood.v93.9.2798 Get It

Abstract Lineage-specific growth factors mobilize peripheral blood progenitor cells (PBPC) and accelerate hematopoietic recovery after high-dose chemotherapy. Recombinant human thrombopoietin (rhTPO) may further increase the progenitor-cell content and regenerating potential of PBPC products. We evaluated the safety and activity of rhTPO as a PBPC mobilizer in combination with granulocyte colony-stimulating factor (G-CSF) in 29 breast cancer patients treated with high-dose chemotherapy followed by PBPC reinfusion. Initially, patients received escalating single doses of rhTPO intravenously (IV) at 0.6, 1.2, or 2.4 μg/kg, on day 1. Subsequent patients received rhTPO 0.6 or 0.3 μg/kg on days −3, −1, and 1, or 0.6 μg/kg on days −1 and 1. G-CSF, 5 μg/kg IV or subcutaneously (SC) twice daily, was started on day 3 and continued through aphereses. Twenty comparable, concurrently and identically treated patients (who were eligible and would have been treated on protocol but for the lack of study opening) mobilized with G-CSF alone served as comparisons. CD34+ cell yields were substantially higher with the first apheresis following rhTPO and G-CSF versus G-CSF alone: 4.1 × 106/kg (range, 1.3 to 17.6) versus 0.8 × 106/ kg (range, 0.3 to 4.2), P = .0003. The targeted minimum yield of 3 × 106CD34+ cells/kg was procured following a single apheresis procedure in 61% of the rhTPO and G-CSF–mobilized group versus 10% of G-CSF–mobilized patients (P = .001). In rhTPO and G-CSF mobilized patients, granulocyte (day 8 v 9, P= .0001) and platelet recovery (day 9 v 10, P= .07) were accelerated, and fewer erythrocyte (3 v 4,P = .02) and platelet (4 v 5, P = .02) transfusions were needed compared with G-CSF–mobilized patients. Peripheral blood platelet counts, following rhTPO and G-CSF, were increased by greater than 100% and the platelet content of PBPC products by 60% to 110% on the first and second days of aphereses (P < .0001) with the greatest effect seen with repeated dosing of rhTPO at 0.6 μg/kg. rhTPO is safe and well tolerated as a mobilizing agent before PBPC collection. Mobilization with rhTPO and G-CSF, in comparison to a comparable, nonrandomized G-CSF–mobilized group of patients, decreases the number of apheresis procedures required, may accelerate hematopoietic recovery, and may reduce the number of transfusions required following high-dose chemotherapy for breast cancer.
Global, Regional, and National Cancer Incidence, Mortality, Years of Life Lost, Years Lived With Disability, and Disability-Adjusted Life-Years for 29 Cancer Groups, 1990 to 2017
Fitzmaurice, Christina , Abate, Degu , Abbasi, Naghmeh , Abbastabar, Hedayat , Abdelalim, Ahmed , Abdoli, Amir , Abdulle, Abdishakur S. M., Abebe, Nebiyu Dereje , Abraha, Haftom Niguse , Abualhasan, Ahmed , Adedeji, Isaac Akinkunmi , Advani, Shailesh M, Afarideh, Mohsen , Afshari, Mahdi , Aghaali, Mohammad , Agius, Dominic, Agrawal, Sutapa , Ahmadi, Ayat , Ahmed, Muktar Beshir , Akbari, Mohammad Esmaeil , AlAbdulKader, Assim M. , Alahdab, Fares , Alam, Shazia , Alamene, Genet Melak, Alene, Kefyalew Addis , Alipour, Vahid, Bakeshei, Fatemeh Allah, Almadi, Majid A. , Alsharif, Ubai , Alsowaidi, Shirina, Alvis‐Guzmán, Nelson , Amini, Saeed, Anbari, Zohreh , Anber, Nahla , Andrei, Cătălina Liliana , Anjomshoa, Mina, Ansari, Fereshteh, Ansariadi, Ansariadi , Appiah, Seth Christopher Yaw , Arabloo, Jalal , Arefi, Zohreh , Aremu, Olatunde , Areri, Habtamu Abera , Artaman, Al, Asfaw, Ephrem Tsegay, Ashagre, Alebachew Fasil, Assadi, Reza , Atalay, Hagos Tasew , Ataro, Zerihun , Atique, Suleman , Ávila‐Burgos, Leticia , Avokpaho, Euripide , Awasthi, Ashish , Awoke, Nefsu , Quintanilla, Beatriz Paulina Ayala , Ayanore, Martin Amogre , Ayele, Henok Tadesse, Babaee, Ebrahim , Bacha, Umar, Badawi, Alaa, Bagherzadeh, Mojtaba , Bagli, Eleni , Balakrishnan, Senthilkumar , Bärnighausen, Till , Battista, Robert J., Behzadifar, Meysam, Belay, Yared Belete , Berfield, Kathleen, Berhane, Adugnaw , Bernabé, Eduardo , Beuran, Mircea , Bhakta, Nickhill , Bhattacharyya, Krittika , Biadgo, Belete , Bijani, Ali , Sayeed, Muhammad Shahdaat Bin , Bisignano, Catherine, Bitew, Helen , Bjørge, Tone , Bogale, Kassawmar Angaw , Bojia, Hunduma Amensisa, Borzì, Antonio Maria , Bou-Orm, Ibrahim R. , Brenner, Hermann , Brewer, Jerry D., Briko, Andrey , Брико, Н. И. , Bustamante-Teixeira, Maria Teresa , Butt, Zahid A , Carreras, Giulia , Carvalho, Félix , Castro, Clara , Castro, Franz , Catalá-López, Ferrán , Cerin, Ester , Chaiah, Yazan , Chanie, Wagaye Fentahun, Chattu, Vijay Kumar , Chaturvedi, Pankaj, Chauhan, Neelima Singh, Chiang, Peggy Pei-Chia, Chichiabellu, Tesfaye Yitna , Chido‐Amajuoyi, Onyema Greg , Chimed‐Ochir, Odgerel , Choi, Jee-Young Jasmine , Christopher, Devasahayam Jesudas , Chu, Dinh‐Toi , Costa, Vera Marisa , Crowe, Christopher S. , Curado, María Paula , Dahlawi, Saad M A , Damiani, Giovanni , Darwish, Amira Hamed , Demissie, Birhanu Wondimeneh , Demoz, Gebre Teklemariam , Derakhshani, Afshin , Deribe, Kalkidan Solomon, Desai, Rupak , Desalegn, Beruk Berhanu , Dey, Subhojit , Dhimal, Meghnath , Díaz, Daniel , Dinberu, Mesfin Tadese, Djalalinia, Shirin, Drake, Thomas M , Dubljanin, Eleonora , Duken, Eyasu Ejeta, Effiong, Andem , Eftekhari, Aziz , El-Jaafary, Shaimaa I , El‐Khatib, Ziad , Elemineh, Demelash Abewa , Elkout, Hajer , Ellenbogen, Richard G. , Elsharkawy, Aisha , Emamian, Mohammad Hassan , Endalew, Daniel Adane , Endries, Aman Yesuf , Eshrati, Babak, Fadhil, Ibtihal , Farzadfar, Farshad , Fentahun, Netsanet , Fernandes, Eduarda , Feyissa, Garumma Tolu , Fischer, Florian , Fisher, James L. , Force, Lisa M , Freitas, Marisa , Fukumoto, Takeshi , Futran, Neal D. , Gallus, Silvano , Gankpé, Fortuné Gbètoho , Gayesa, Reta Tsegaye, Gebrehiwot, Tsegaye Tewelde , Gebremeskel, Gebreamlak Gebremedhn , Gedefaw, Getnet , Gelaw, Belayneh K., Geta, Birhanu, Getachew, Sefonias , Gezae, Kebede Embaye , Ghafourifard, Mansour , Ghajar, Alireza , Ghashghaee, Ahmad , Gholamian, Asadollah , Ginindza, Themba G. , Girmay, Alem, Gizaw, Muluken , Gomez, Ricardo Santiago , Gopalani, Sameer Vali , Gorini, Giuseppe , Goulart, Bárbara Niegia Garcia de , Grada, Ayman , Guerra, Maximiliano Ribeiro, Guimarães, André Luiz Sena , Gupta, Prakash C. , Hadkhale, Kishor , Haj‐Mirzaian, Arvin , Haj‐Mirzaian, Arya , Hamadeh, Randah R , Hamidi, Samer , Hanfore, Lolemo Kelbiso , Hasankhani, Milad , Hasanzadeh, Amir , Hassen, Hamid Yimam , Hay, Simon I , Henok, Andualem , Herţeliu, Claudiu , Hoang, Chi Linh , Hole, Michael K., Hoogar, Praveen , Hosseini, Mostafa, Hosseinzadeh, Mehdi , Hostiuc, Mihaela, Hostiuc, Sorin , Househ, Mowafa , Hussen, Mohammedaman Mama, Ileanu, Bogdan Vasile , Ilić, Milena , Innos, Kaire , Irvani, Seyed Sina Naghibi , Iseh, Kufre Robert , Islam, Sheikh Mohammed Shariful , Balalami, Nader Jafari, Jafarinia, Morteza , Jahangiry, Leila , Jahanmehr, Nader , Jakovljević, Mihajlo, James, Spencer L , Jayaraman, Sudha , Jha, Ravi Prakash , Jonas, Jost B, Joó, Tamás , Jürisson, Mikk , Kamangar, Farin , Karimi, Narges , Karimian, Ansar , Kasaeian, Amir , Kasahun, Gebremicheal Gebreslassie , Kassa, Belete, Kassaw, Mesfin Wudu , Kaul, Anil, Keiyoro, Peter Njenga, Kelbore, Abraham Getachew , Khader, Yousef , Khalilarjmandi, Maryam, Khan, Ejaz Ahmad , Khan, Gulfaraz , Khang, Young-Ho, Khater, Amir M, Khayamzadeh, Maryam , Khazaee-Pool, Maryam , Khosravi, Mohammad Hossein , Khubchandani, Jagdish , Kianipour, Neda, Kim, Daniel , Kısa, Adnan , Kısa, Sezer , Komaki, Hamidreza , Krohn, Kristopher J, Biçer, Burcu Küçük , Kugbey, Nuworza , Kumar, Vivek , Kuupiel, Desmond , Lad, Deepesh , Lake, Eyasu Alem , Lakew, Ayenew Molla , Lal, Dharmesh Kumar, Lami, Faris , Lan, Qing , Lasrado, Savita , Lazarus, Jeffrey V. , Leigh, James , Leshargie, Cheru Tesema , Liao, Yu , Limenih, Miteku Andualem , Listl, Stefan , Lopukhov, Platon D , Lunevičius, Raimundas , Madadin, Mohammed , Razek, Hassan Magdy Abd El , Majeed, Azeem , Manafi, Ali, Manafi, Navid , Manamo, Wondimu Ayele, Mantovani, LG , Martini, Santi , Mashamba-Thompson, Tivani P. , Massenburg, Benjamin B. , Maswabi, Motswadi Titus, McAlinden, Colm , Meheretu, Hailemariam Abiy Alemu , Mehrotra, Ravi , Meles, Gebrekiros Gebremichael , Meles, Hagazi Gebre , Melku, Mulugeta , Memiah, Peter , Mendoza, Walter, Menezes, Ritesh G. , Merat, Shahin , Meretoja, Tuomo J , Miazgowski, Bartosz , Miazgowski, Tomasz , Mihretie, Kebadnew Mulatu M., Miller, Ted R. , Mills, Edward J , Mir, Seyed Mostafa , Mishra, Rashmi , Moazen, Babak , Mohammad, Dara K., Mohammad, Karzan Abdulmuhsin , Mohammad, Yousef , Mohammadi, Moslem, Mohammadian, Mahdi , Mohammadian-Hafshejani, Abdollah , Mohammadoo-Khorasani, Milad, Mohammed, Ammas Siraj , Mohammed, Jemal , Mohammed, Shafiu , Mohebi, Farnam , Mokdad, Ali H. , Monasta, Lorenzo , Moodley, Yoshan , Moosazadeh, Mahmood , Moossavi, Maryam , Moradi, Ghobad , Moradi-Joo, Mohammad , Moradpour, Farhad , Morawska, Lídia , Morgado-da-Costa, Joana, Mosapour, Abbas , Mousavi, Seyyed Meysam , Muche, Achenef Asmamaw , Muhammed, Oumer Sada , Musa, Jonah , Nabhan, Ashraf , Naderi, Mehdi , Nagarajan, Ahamarshan Jayaraman , Nagel, Gabriele , Naik, Gurudatta , Nam, Hae‐Sung , Nazari, Javad , Negoi, Ionuţ , Neupane, Subas , Nggada, Haruna Asura , Ngunjiri, Josephine W, Nguyen, Cuong Tat , Nikniaz, Leila , Ningrum, Dina Nur Anggraini , Nirayo, Yirga Legesse, Nixon, Molly R, Nnaji, Chukwudi A , Shiadeh, Malihe Nourollahpour , Obsa, Mohammed Suleiman , Ofori‐Asenso, Richard , Ogbo, Felix Akpojene , Olagunju, Andrew T , Olagunju, Tinuke O , Oluwasanu, Mojisola , Omonisi, Abidemi , Onwujekwe, Obinna , Oommen, Anu Mary , Ortega-Altamirano, Doris V , Otstavnov, Stanislav S , Mahesh, P A , Padubidri, Jagadish Rao , Pakhalé, Smita , Pakpour, Amir H. , Pană, Adrian , Park, Eun‐Kee , Patel, Shanti, Patil, Snehal T, Pennini, Alyssa, Piccinelli, Cristiano, Pillay, Julian David , Pirestani, Majid , Postma, Maarten J. , Pourmalek, Farshad , Pourshams, Akram , Prakash, Swayam , Rabiee, Navid , Radfar, Amir , Rafiei, Alireza , Rahim, Fakher , Rahimi, Mahdi , Rahman, Muhammad Aziz , Rajati, Fatemeh , Rana, Saleem M., Raoofi, Samira , Rath, Goura Kishor, Rawaf, David Laith , Reiner, Robert C. , Renzaho, André M. N. , Rezapour, Aziz, Ribeiro, Ana Isabel , Ribeiro, Daniela , Roro, Elias Merdassa , Rostami, Ali , Saad, Ragy , Sabbagh, Parisa , Saddik, Basema , Safiri, Saeid , Salahshoor, Mohammad Reza , Salehi, Farkhonde , Salem, Hosni , Salem, Marwa Rashad , Salimzadeh, Hamideh , Salomon, Joshua A. , Samy, Abdallah M , Sanabria, Juan , Santric-Milicevic, Milena M , Sartorius, Benn , Sarveazad, Arash , Sathian, Brijesh , Satpathy, Maheswar , Savic, Miloje , Sawhney, Monika, Seyedmousavi, Seyedmojtaba , Shaahmadi, Faramarz , Shabaninejad, Hosein , Shahbaz, Mohammad , Shaikh, Masood Ali, Shamshirian, Amir , Shamsizadeh, Morteza , Sharafi, Zeinab , Sharifi, Ali , Sharifi, Hamid , Shirkoohi, Reza , Shukla, Sharvari , Si, Si , Siabani, Soraya , Silva, Diego Augusto Santos , Singh, Ambrish , Sisay, Solomon , Sobngwi, Eugène , Soofi, Moslem , Soriano, Joan B. , Stathopoulou, Vasiliki, Sufiyan, Mu’awiyyah Babale , Tabarés‐Seisdedos, Rafael , Tabuchi, Takahiro , Takahashi, Ken , Tarawneh, Mohammed Rasoul , Tassew, Segen Gebremeskel , Taymoori, Parvaneh , Temsah, Mohamad‐Hani , Temsah, Omar, Tesfay, Fisaha Haile , Teshale, Manaye Yihune, Tessema, Gizachew Assefa , Thapa, Subash , Tlaye, Kenean Getaneh , Topór-Mądry, Roman , Tovani‐Palone, Marcos Roberto , Traini, Eugenio , Tran, Khanh Bao , Tsadik, Afewerki Gebremeskel , Ullah, Irfan , Vaezi, Maryam, Pérez, Patricia Varona , Vidale, Simone , Violante, Francesco Saverio , Vollset, Stein Emil, Vos, Theo , Vosoughi, Kia , Vu, Giang Thu , Vujcic, Isidora S , Wabinga, Henry, Wachamo, Tesfahun Mulatu , Wagnew, Fasil Shiferaw, Waheed, Yasir , Weldegebreal, Fitsum , Weldesamuel, Girmay Teklay, Wijeratne, Tissa , Wonde, Tewodros Eshete , Workie, Hailemariam Mekonnen , Yadav, Rajaram , Yadegar, Abbas , Yadollahpour, Ali , Yaseri, Mehdi , Yazdi‐Feyzabadi, Vahid , Yeshaneh, Alex , Yimam, Mohammed , Yisma, Engida , Younis, Mustafa Z , Zadnik, Vesna, Moghadam, Telma Zahirian , Zandian, Hamed , Zangeneh, Alireza , Zaki, Leila , Zendehdel, Kazem , Zenebe, Zerihun Menlkalew, Zewale, Taye Abuhay , Ziapour, Arash , Zodpey, Sanjay , Murray, Christopher J L , Topór‐Mądry, Roman , Deribe, Kebede , Teklay, Girmay , Wijeratne, T , Kumar, Vivek , Lazarus, Jeffrey V , Brenner, Hermann , Farzadfar, Farshad , Islam, Sheikh Mohammed Shariful , Assadi, Reza , Rahman, Muhammad Aziz , Abd-Allah, Foad , Abdel-Rahman, Omar Mohammed , Abdollahpour, Ibrahim , Abu-Raddad, Laith Jamal , Ahmadian, Elham , Ahmadpour, Ehsan , Akinyemiju, Tomi , Al‐Aly, Ziyad , Alemnew, Birhan , Alinia, Cyrus , Aljunid, Syed Mohamed , Almasi‐Hashiani, Amir , Amini, Erfan , Amini, Saeed, Amoako, Yaw Ampem , Arab-Zozani, Morteza , Asayesh, Hamid , Fasil, Alebachew , Ataeinia, Bahar , Ausloos, Marcel , Balouchi, Abbas , Behzadifar, Masoud , Behzadifar, Meysam, Bekele, Bayu Begashaw , Belayneh, Yaschilal Muche , Birungi, Charles , Bleyer, Archie , Bosetti, Cristina , Carrero, Juan Jesús , Chaturvedi, Pankaj , Chehrazi, Mohammad , Constantin, María Magdalena , Crocetti, Emanuele , Daryani, Ahmad , Neves, José das , Demeke, Feleke Mekonnen , Demis, Asmamaw , Denova‐Gutiérrez, Edgar , Deribe, Kalkidan Solomon, Desta, Melaku , Dharmaratne, Samath Dhamminda , Doku, David Teye , Dubey, Manisha , Ebrahimi, Hedyeh , Sayed, Iman El , Zaki, Maysaa El Sayed , Adane, Daniel, Omrani, Vahid Fallah , Faramarzi, Mahbobeh , Farhangi, Mahdieh Abbasalizad , Farioli, Andrea , Filip, Irina , Foroutan, Masoud , Tsegaye, Reta , Gelaw, Belayneh K., Gill, Paramjit Singh , Gupta, Rahul, Haro, Josep María , Hay, Roderick J. , Henry, Nathaniel J , Hidru, Hagos Degefa , Horita, Nobuyuki , Hosgood, H. Dean, Hostiuc, Mihaela, Hussen, Mohammedaman Mama, Islami, Farhad , Jahani, Mohammad Ali , Jakovljević, Mihajlo , Javanbakht, Mehdi , Jee, Sun Ha , Jenabi, Ensiyeh , Jonnagaddala, Jitendra, Jungari, Suresh Banayya , Kabir, Ali , Karch, André , Kassa, Tesfaye , Kerbo, Amene Abebe , Khang, Young-Ho, Khatab, Khaled , Khazaei, Salman , Khoja, Abdullah T , Kim, Yun Jin , Kissimova‐Skarbek, Katarzyna , Koyanagi, Ai , Vecchia, Carlo La , Lal, Dharmesh Kumar, Lauriola, Paolo , Lopez, Alan D , Magdeldin, Sameh , Maleki, Afshin , Malekzadeh, Reza , Manamo, Wondimu Ayele, Mansourian, Morteza , Mansournia, Mohammad Alì , Maroufizadeh, Saman , Mathur, Manu Raj , McKee, Martin , Mehta, Varshil , Meier, Toni , Melaku, Yohannes Adama , Melese, Addisu Dagnaw , Meštrović, Tomislav , Mulatu, Kebadnew , Mirzaei, Hamed , Mirzaei, Hamid Reza , Mohammad, Dara K., Darwesh, Aso Mohammad , Mohammadbeigi, Abolfazl , Mohammadi, Hiwa , Mohammadi, Moslem, Mohammadpourhodki, Reza , Moradi‐Lakeh, Maziar , Morisaki, Naho , Morrison, Shane D. , Nahvijou, Azin , Najafi, Farid , Naldi, Luigi , Nasiri, Naser , Newcomb, Polly A. , Nojomi, Marzieh , Nosratnejad, Shirin , Oh, In‐Hwan , Oren, Eyal , Ota, Erika , Owolabi, Mayowa , Parsian, Hadi , Pashaei, Tahereh , Pereira, David M. , Pishgar, Farhad , Pourjafar, Hadi , Prasad, Narayan , Qorbani, Mostafa , Rabiee, Mohammad , Rana, Saleem M., Rawaf, Salman , Rezaei, Nima , Ronfani, Luca , Roshandel, Gholamreza , Saad, Ragy , Sabbagh, Parisa, Sabour, Siamak , Sahebkar, Amirhossein , Sayyah, Mehdi , Schneider, Ione Jayce Ceola , Schöttker, Ben , Šekerija, Mario , Sepanlou, Sadaf Ghajarieh , Sepehrimanesh, Masood , Sharafi, Heidar , Sharif, Mehdi , Sharma, Rajesh , Sheikh, Aziz , Silveira, Dayane Gabriele Alves , Singh, Jasvinder A. , Sitas, Freddy , Tamtaji, Omid Reza , Tehrani‐Banihashemi, Arash , Tesfay, Berhe Etsay , Teshale, Manaye Yihune, Tran, Bach Xuan , Uthman, Olalekan Abdulrahman , Vacante, Marco , Vaezi, Maryam, Veisani, Yousef , Vlassov, Vasily , Vollset, Stein Emil, Wagnew, Fasil , Wondafrash, Dawit Zewdu , Wondmieneh, Adam Belay , Yimer, Ebrahim M , Yonemoto, Naohiro , Yousefi, Bahman , Yousefifard, Mahmoud , Yu, Chuanhua , Zabeh, Erfan , Zaidi, Zoubida , Zamani, Mohammad , Olagunju, Andrew T , Bhakta, Nickhill , Desai, Rupak , Alahdab, Fares , Rahim, Fakher

JAMA Oncology | September 27, 2019 | Volume: 5 | Issue: 12 | Pages: 1749

10.1001/jamaoncol.2019.2996 | PMID 31560378 Get It

A Novel Multi-Target Small Molecule, LCC-09, Inhibits Stemness and Therapy-Resistant Phenotypes of Glioblastoma Cells by Increasing miR-34a and Deregulating the DRD4/Akt/mTOR Signaling Axis
Wen, Ya-Ting, Wu, Alexander T.H. , Bamodu, Oluwaseun Adebayo , Li, Wei , Lin, Chien‐Min , Chao, Tsu-Yi, Hsiao, Michael , Huang, Hsu‐Shan , Huang, Hsu-Shan , Wu, Alexander T H , Wen, Ya-Ting , Yen, Yun , Mukhopadhyay, Debabrata , Huang, Hsu-Shan

Cancers | September 27, 2019 | Volume: 11 | Issue: 10 | Pages: 1442

10.3390/cancers11101442 | PMID 31561595 Get It

The management of glioblastomas (GBMs) is challenged by the development of therapeutic resistance and early disease recurrence, despite multi-modal therapy. This may be attributed to the presence of glioma stem cells (GSCs) which are known to survive radio- and chemotherapy, by circumventing death signals and inducing cell re-population. Recent findings suggest GSCs may be enriched by certain treatment modality. These necessitate the development of novel therapeutics capable of targeting GBM cell plasticity and therapy-resistant GSCs. Here, aided by computer-assisted structure characterization and target identification, we predicted that a novel 5-(2′,4′-difluorophenyl)-salicylanilide derivative, LCC-09, could target dopamine receptors and oncogenic markers implicated in GBMs. Bioinformatics data have indicated that dopamine receptor (DRD) 2, DRD4, CD133 and Nestin were elevated in GBM clinical samples and correlated to TMZ (Temozolomide) resistance and increased ALDH (Aldehyde dehydrogenase) activity (3.5–8.9%) as well as enhanced (2.1–2.4-fold) neurosphere formation efficiency in U87MG and D54MG GBM cell lines. In addition, TMZ-resistant GSC phenotype was associated with up-regulated DRD4, Akt, mTOR, β-catenin, CDK6, NF-κB and Erk1/2 expression. LCC-09 alone, or combined with TMZ, suppressed the tumorigenic and stemness traits of TMZ-resistant GBM cells while concomitantly down-regulating DRD4, Akt, mTOR, β-catenin, Erk1/2, NF-κB, and CDK6 expression. Notably, LCC-09-mediated anti-GBM/GSC activities were associated with the re-expression of tumor suppressor miR-34a and reversal of TMZ-resistance, in vitro and in vivo. Collectively, these data lay the foundation for further exploration of the clinical feasibility of administering LCC-09 as single-agent or combinatorial therapy for patients with TMZ-resistant GBMs.
LINC01133 inhibits breast cancer invasion and metastasis by negatively regulating SOX4 expression through EZH2
Song, Zhiwang , Zhang, Xia , Lin, Yun , Wei, Youzhen , Liang, Shujing , Dong, Chunyan

Journal of Cellular and Molecular Medicine | September 27, 2019 | Volume: 23 | Issue: 11 | Pages: 7554-7565

10.1111/jcmm.14625 | PMID 31557401 Get It

AbstractMounting evidence highlights long non‐coding RNAs (lncRNAs) as crucial regulators in multiple types of biological processes and contributing to tumourigenesis. LINC01133, located in chromosome 1q23.2, was a recently identified novel lncRNA with a length of 1154nt. It was involved in the development of colorectal cancer and non‐small cell lung cancer. However, its clinical relevance, biological functions and potential molecular mechanism in breast cancer are still unclear. In this study, we found that the LINC01133 expression was significantly down‐regulated in breast cancer samples and was associated with progression and poor prognosis of breast cancer. Further experiments demonstrated that overexpression of LINC01133 inhibited invasion and metastasis in breast cancer both in vitro and in vivo. Mechanistic investigations revealed that LINC01133 repressed SOX4 expression by recruiting EZH2 to SOX4 promoter. Moreover, rescue experiments further confirmed that LINC01133 functional acted as an anti‐oncogene, at least partly, via repressing SOX4 in breast cancer. Taken together, these findings imply that LINC01133 could serve as a novel prognostic biomarker and potential therapeutic target for breast cancer.
Correction: The heparan sulfate mimetic PG545 interferes with Wnt/β-catenin signaling and significantly suppresses pancreatic tumorigenesis alone and in combination with gemcitabine
Jung, Deok‐Beom , Yun, Miyong , Kim, Eun-Ok , Kim, Bonglee , Wang, Enfeng , Hammond, Edward , Dredge, Keith , Shridhar, Viji , Kim, Jaekwang , Jung, Ji Hoon , Mukhopadhyay, Debabrata , Hammond, Edward, Kim, Sung‐Hoon

Oncotarget | September 24, 2019 | Volume: 10 | Issue: 54 | Pages: 5669-5669

10.18632/oncotarget.27216 | PMID 31608142 Get It

Refinement of risk stratification for childhood rhabdomyosarcoma using FOXO1 fusion status in addition to established clinical outcome predictors: A report from the Children's Oncology Group
Hibbitts, Emily , Hawkins, Douglas S. , Barr, Frederic G. , Bradley, Julie A. , Dasgupta, Roshni , Meyer, William H. , Rodeberg, David A. , Rudzinski, Erin R. , Spunt, Sheri L. , Skapek, Stephen X. , Arndt, Carola A.S., Spunt, Sheri L , Hawkins, Douglas S , Dasgupta, Roshni , Chi, Yueh‐Yun , Wolden, Suzanne L.

Cancer Medicine | August 28, 2019 | Volume: 8 | Issue: 14 | Pages: 6437-6448

10.1002/cam4.2504 | PMID 31456361 Get It

Abstract Background Previous studies of the prognostic importance of FOXO1 fusion status in patients with rhabdomyosarcoma (RMS) have had conflicting results. We re‐examined risk stratification by adding FOXO1 status to traditional clinical prognostic factors in children with localized or metastatic RMS. Methods Data from six COG clinical trials (D9602, D9802, D9803, ARST0331, ARTS0431, ARST0531; two studies each for low‐, intermediate‐ and high‐risk patients) accruing previously untreated patients with RMS from 1997 to 2013 yielded 1727 evaluable patients. Survival tree regression for event‐free survival (EFS) was conducted to recursively select prognostic factors for branching and split. Factors included were age, FOXO1, clinical group, histology, nodal status, number of metastatic sites, primary site, sex, tumor size, and presence of metastases in bone/bone marrow, soft tissue, effusions, lung, distant lymph nodes, and other sites. Definition and outcome of the proposed risk groups were compared to existing systems and cross‐validated results. Results The 5‐year EFS and overall survival (OS) for evaluable patients were 69% and 79%, respectively. Extent of disease (localized versus metastatic) was the first split (EFS 73% vs 30%; OS 84% vs. 42%). FOXO1 status (positive vs negative) was significant in the second split both for localized (EFS 52% vs 78%; OS 65% vs 88%) and metastatic disease (EFS 6% vs 46%; OS 19% vs 58%). Conclusions After metastatic status, FOXO1 status is the most important prognostic factor in patients with RMS and improves risk stratification of patients with localized RMS. Our findings support incorporation of FOXO1 status in risk stratified clinical trials.
Type 1 equilibrative nucleoside transporter (ENT1) regulates sex‐specific ethanol drinking during disruption of circadian rhythms
Jia, Yun‐Fang , Vadnie, Chelsea A. , Ho, Ada Man‐Choi , Peyton, Lee , Wininger, Katheryn M. , Matveyenko, Aleksey V. , Wininger, Katheryn, Matveyenko, Aleksey, Ho, Ada M-C , Veldić, Marin , Choi, Doo‐Sup

Addiction Biology | July 3, 2019 | Volume: 25 | Issue: 5 | Pages: No page available

10.1111/adb.12801 | PMID 31267611 Get It

AbstractDisruptions in circadian rhythms are risk factors for excessive alcohol drinking. The ethanol‐sensitive adenosine equilibrative nucleoside transporter type 1 (ENT1, slc29a1) regulates ethanol‐related behaviors, sleep, and entrainment of circadian rhythms. However, the mechanism underlying the increased ethanol consumption in ENT1 knockout (KO) mice in constant light (LL) and whether there are sex differences in ethanol consumption in ENT1 mice are less studied. Here, we investigated the effects of loss of ENT1, LL, and sex on ethanol drinking using two‐bottle choice. In addition, we monitored the locomotor activity rhythms. We found that LL increased ethanol drinking and reduced accumbal ENT1 expression and adenosine levels in male but not female mice, compared with control mice. Interestingly, only LL‐exposed male, not female, ENT1 KO mice exhibited higher ethanol drinking and a longer circadian period with a higher amplitude compared with wild‐type (WT) mice. Furthermore, viral‐mediated rescue of ENT1 expression in the NAc of ENT1 KO mice reduced ethanol drinking, demonstrating a possible causal link between ENT1 expression and ethanol drinking in males. Together, our findings indicate that deficiency of ENT1 expression contributes to excessive ethanol drinking in a sex‐dependent manner.
PRMT1-mediated FLT3 arginine methylation promotes maintenance of FLT3-ITD+ acute myeloid leukemia
Zhu, Ying‐Hui , Du, Juan , Dong, Haojie , Zhu, Lei , Wang, Hanying , Ding, Zonghui , Zhao, Dandan , Wang, Zhihao , Wu, Herman, Zhang, Han , Jiang, Wenjuan , Xu, Yang , Jin, Jian , Shen, Yudao , Perry, J. Jefferson P. , Zhao, Xinyang , Zhang, Bin , Liu, Songbai , Xue, Shengli , Shen, Binghui , Chen, Chun‐Wei , Chen, Jianjun , Khaled, Samer K. , Kuo, Ya‐Huei , Marcucci, Guido , Luo, Yun , Li, Ling , Chen, Chun-Wei , He, Xin , Lin, Yi‐Chun , Li, Min , Sun, Jie , Zhang, Lei , Zhang, Lianjun , Chen, Jianjun

Blood | June 19, 2019 | Volume: 134 | Issue: 6 | Pages: 548-560

10.1182/blood.2019001282 | PMID 31217189 Get It

Abstract The presence of FMS-like receptor tyrosine kinase-3 internal tandem duplication (FLT3-ITD) mutations in patients with acute myeloid leukemia (AML) is associated with poor clinical outcome. FLT3 tyrosine kinase inhibitors (TKIs), although effective in kinase ablation, do not eliminate primitive FLT3-ITD+ leukemia cells, which are potential sources of relapse. Thus, understanding the mechanisms underlying FLT3-ITD+ AML cell persistence is essential to devise future AML therapies. Here, we show that expression of protein arginine methyltransferase 1 (PRMT1), the primary type I arginine methyltransferase, is increased significantly in AML cells relative to normal hematopoietic cells. Genome-wide analysis, coimmunoprecipitation assay, and PRMT1-knockout mouse studies indicate that PRMT1 preferentially cooperates with FLT3-ITD, contributing to AML maintenance. Genetic or pharmacological inhibition of PRMT1 markedly blocked FLT3-ITD+ AML cell maintenance. Mechanistically, PRMT1 catalyzed FLT3-ITD protein methylation at arginine 972/973, and PRMT1 promoted leukemia cell growth in an FLT3 methylation–dependent manner. Moreover, the effects of FLT3-ITD methylation in AML cells were partially due to cross talk with FLT3-ITD phosphorylation at tyrosine 969. Importantly, FLT3 methylation persisted in FLT3-ITD+ AML cells following kinase inhibition, indicating that methylation occurs independently of kinase activity. Finally, in patient-derived xenograft and murine AML models, combined administration of AC220 with a type I PRMT inhibitor (MS023) enhanced elimination of FLT3-ITD+ AML cells relative to AC220 treatment alone. Our study demonstrates that PRMT1-mediated FLT3 methylation promotes AML maintenance and suggests that combining PRMT1 inhibition with FLT3 TKI treatment could be a promising approach to eliminate FLT3-ITD+ AML cells.