Literature DB >> 35108726

Antibody response to mRNA vaccination for COVID-19 in patients with AML receiving hypomethylating agents alone or with venetoclax.

Anna Candoni1, Chiara Callegari1, Maria Elena Zannier1, Renato Fanin1,2.   

Abstract

Entities:  

Mesh:

Substances:

Year:  2022        PMID: 35108726      PMCID: PMC8813197          DOI: 10.1182/bloodadvances.2021006949

Source DB:  PubMed          Journal:  Blood Adv        ISSN: 2473-9529


× No keyword cloud information.
TO THE EDITOR: Patients with acute myeloid leukemia (AML) and myelodysplastic syndromes (MDSs) who are treated with hypomethylating agents (HMAs), alone or in combination with venetoclax, are an extremely vulnerable population due to advanced age, comorbidities, and treatment-induced neutropenia.[1,2] In addition, many of these patients receive HMA therapy in an outpatient setting, which continues until hematological disease progression.[1,2] All of these aspects make these patients very susceptible to breakthrough infection by SARS-CoV-2, especially given the emergence of new and highly contagious variants.[3-5] Because patients with blood cancer have been excluded from vaccine clinical trials, real-world data on vaccine immunogenicity are very important in this setting.[6] In particular, the assessment of antibody (Ab) levels may play a role in establishing a response to vaccination in this frail patient population. It is well known that the seroconversion rate after SARS-CoV-2 vaccination is particularly low in patients with hematological diseases with B-cell malignancies who are treated with monoclonal Ab–depleting B cells (eg, rituximab), as well as in those receiving Bruton tyrosine kinase inhibitors.[7-9] Some recent studies analyzed the anti-Spike Ab responses after SARS-CoV-2 vaccination in different hematologic malignancies and confirmed a low seroconversion rate in lymphoma and chronic lymphocytic leukemia; however, a good seroconversion rate was found after 2 vaccination doses in patients with chronic myeloid leukemia, multiple myeloma, acute lymphocytic leukemia, or AML.[9-11] However, there is no specific information on the humoral response after anti–SARS-CoV-2 vaccination (after the second and/or third vaccination doses) in patients with AML treated with HMAs. We evaluated the Ab response to the mRNA vaccination (Pfizer-BioNTech vaccine) in 46 patients with AML (36/46) or high-risk MDS (10/46) undergoing therapy with HMAs alone or in combination with venetoclax (24/46 with HMA alone and 22/46 with HMA+venetoclax). The median age was 74 years (range, 42-85). All patients were undergoing active anticancer treatment for their hematologic disease and received the vaccination between April of 2021 and November of 2021. Data on demographic characteristics and Ab evaluation are summarized in Table 1. Only patients with AML received the combination of HMA and venetoclax. To assess Ab production, blood samples were collected after the second and/or the third dose of the Pfizer-BioNTech vaccine. The Ab test for SARS-CoV-2 immunoglobulin G (IgG) anti-Spike protein was performed using an automated electro-chemiluminescence immunoassay with a reactive (positive) level of anti-Spike IgG ≥0.8 U/mL. According to this cutoff value, patients who had an anti-Spike IgG Ab level >0.8 U/mL were classified as having a positive Ab response. In patients with a strong seroconversion (anti-Spike IgG level >2500 U/mL), it was not possible to define the exact Ab titer. All patients gave written consent for sample collection and Ab quantification.
Table 1.

Patient characteristics and Ab assessment after the second and third vaccinations

All casesHMA aloneHMA+veneto P
Patient characteristics
 No. of pts4624/46 (52)22/46 (48)
 Age, median (range), y74 (42-85)73 (47-85)75 (42-83)ns
Hematologic cancer
 AML361422
 MDS High risk10100
 No. of HMA cycles at Vax (range)2 (1-22)2 (1-22)2 (1-14)ns
Ab test post-second Vax
 No. of pts who received 2 Vax46/46 (100)24/24 (100)22/22 (100)ns
 No. of pts tested33/46 (72)17/24 (71)16/22 (73)ns
 Time between Vax and Ab dosage, median (range), mo4.3 (1-7.7)4.5 (1-6.1)4.2 (1-7.7)ns
 Pts with seroconversion*30/33 (91)16/17 (94)14/16 (88)ns
Ab level, U/mL ns
  1-10014/33 (43)8/17 (47)6/16 (37.5)
 101-100011/33 (33)7/17 (41)4/16 (25)
  >10005/33 (15)1/17 (6)4/16 (25)
Ab test post-third Vax
 No. of pts who received 3 Vax24/46 (52)14/24 (58)10/22 (45)ns
 No. of pts tested24/24 (100)14/14 (100)10/10 (100)ns
 Time between Vax and Ab dosage, median (range), mo1.5 (0.5-2.5)2 (0.5-2.5)1.75 (0.5-2.5)ns
 Pts with seroconversion*23/24 (96)13/14 (93)10/10 (100)ns
Ab level, U/mL ns
 1-1005/24 (21)2/14 (14)3/10 (30)
 101-10004/24 (17)2/14 (14)2/10 (20)
  >100014/24 (58)9/14 (64)5/10 (50)

Unless otherwise noted, data are n (%) or n/N (%).

Ab, anti-Spike IgG Ab; ns, not significant; pts, patients; Vax, vaccination; veneto, venetoclax.

Ab level >0.8 U/mL.

Patient characteristics and Ab assessment after the second and third vaccinations Unless otherwise noted, data are n (%) or n/N (%). Ab, anti-Spike IgG Ab; ns, not significant; pts, patients; Vax, vaccination; veneto, venetoclax. Ab level >0.8 U/mL. At the time of data analysis, all 46 patients had received 2 doses of vaccine, and 24 of 46 patients (52%) had received a third dose. We performed the anti-Spike IgG assay in 33 of 46 patients (72%) after the second dose and in all 24 patients (100%) after the third dose. The Ab titer was assessed at a median of 4.3 months (range, 1-7.7) after the second vaccination and at a median of 1.5 months (range, 0.5-2.5) after the third vaccination. The Ab titers and the timing of the Ab assessment are shown in detail in Figure 1A and B, respectively. This study was approved by the Ethics Committee of the Friuli Venezia Giulia Region and was conducted according to the Declaration of Helsinki.
Figure 1.

Distribution of Ab titers after vaccinations. Distribution of Ab titers after the second (A) and third (B) doses of vaccine (Vax). Ab titers were significantly higher after the third dose of vaccine than after the second dose (mean ± DS, 1620 ± 1116 U/mL vs 539 ± 840 U/mL; P = .003). Percentages of patients with different Ab levels after the second (C) and third (D) vaccinations. Only 15% (5/33) of patients had Ab titers >1000 U/mL after the second dose (C) compared with 58% (14/24) after the third dose (D) (P = .0006). S, Spike.

Distribution of Ab titers after vaccinations. Distribution of Ab titers after the second (A) and third (B) doses of vaccine (Vax). Ab titers were significantly higher after the third dose of vaccine than after the second dose (mean ± DS, 1620 ± 1116 U/mL vs 539 ± 840 U/mL; P = .003). Percentages of patients with different Ab levels after the second (C) and third (D) vaccinations. Only 15% (5/33) of patients had Ab titers >1000 U/mL after the second dose (C) compared with 58% (14/24) after the third dose (D) (P = .0006). S, Spike. Seroconversion was documented in 91% (30/33) of cases after the second vaccination (mean Ab titer ± DS, 539 ± 840 U/mL; median, 101 U/mL; range, 8.5-2500) and in 96% (23/24) of cases after the third vaccination (mean Ab titer ± DS, 1620 ± 1116 U/mL; median, 2500 U/mL; range, 3.85-2500). No significant differences in seroconversion rates were observed after the second or third dose of vaccine between patients treated with HMAs alone and those treated with HMA+venetoclax (Table 1). Mean and median Ab titers were significantly higher after the third dose than after the second dose (P = .003, Student t test; P = .0006, Mann-Whitney U test), but there were no significant differences between the 2 cohorts. Interestingly, as shown in Figure 1C and D, only 15% (5/33) of patients had an Ab titer >1000 IU/mL after the second dose compared with 58% (14/24) after the third dose (P = .0006, χ2 test). So far, no patient has developed COVID-19 infection after vaccination. The important limitations of this analysis are the lack of data regarding cell-mediated immunity and Ab quantification at different time points after vaccination. In addition, we do not know how important the humoral response is in this infection and whether there is a relationship between anti-Spike IgG levels and the degree of protection against SARS-CoV-2 infection (the so-called “preventive Ab titer”); this study is inadequate to define this threshold. Despite these limitations, this is the first report on the humoral response after RNA vaccination (Pfizer-BioNTech vaccine) in elderly patients with AML/MDS who are undergoing treatment with HMAs, with or without venetoclax. These preliminary data show that, in patients with AML or MDS who are treated with HMAs, with or without venetoclax, the seroconversion rate is already favorable after the first 2 doses of SARS-CoV-2 vaccine (seroconversion in 91% of the analyzed population). However, it should be emphasized that a significant proportion of our patients experienced an attenuated seroconversion after the first 2 doses. Indeed, 43% (14/33) of the Ab-positive cases had an anti-Spike titer <100 U/mL after the second dose of vaccine. As reported in Table 1 and Figure 1D, the Ab titers appear to increase significantly after the third vaccination dose, with no difference between patients treated with HMAs alone and those treated with HMA+venetoclax. These favorable results should be confirmed by further prospective studies involving more patients over an extended follow-up period; however, they highlight the great importance of the third vaccination dose in enhancing the humoral response in this vulnerable population.
  9 in total

1.  Disease- and Therapy-Specific Impact on Humoral Immune Responses to COVID-19 Vaccination in Hematologic Malignancies.

Authors:  Santosha A Vardhana; David A Knorr; David J Chung; Gunjan L Shah; Sean M Devlin; Lakshmi V Ramanathan; Sital Doddi; Melissa S Pessin; Elizabeth Hoover; LeeAnn T Marcello; Jennifer C Young; Sawsan R Boutemine; Edith Serrano; Saumya Sharan; Saddia Momotaj; Lauren Margetich; Christina D Bravo; Genovefa A Papanicolaou; Mini Kamboj; Anthony R Mato; Lindsey E Roeker; Malin Hultcrantz; Sham Mailankody; Alexander M Lesokhin
Journal:  Blood Cancer Discov       Date:  2021-09-13

2.  American Society of Hematology 2020 guidelines for treating newly diagnosed acute myeloid leukemia in older adults.

Authors:  Mikkael A Sekeres; Gordon Guyatt; Gregory Abel; Shabbir Alibhai; Jessica K Altman; Rena Buckstein; Hannah Choe; Pinkal Desai; Harry Erba; Christopher S Hourigan; Thomas W LeBlanc; Mark Litzow; Janet MacEachern; Laura C Michaelis; Sudipto Mukherjee; Kristen O'Dwyer; Ashley Rosko; Richard Stone; Arnav Agarwal; L E Colunga-Lozano; Yaping Chang; QiuKui Hao; Romina Brignardello-Petersen
Journal:  Blood Adv       Date:  2020-08-11

Review 3.  Hypomethylating agents (HMA) for the treatment of acute myeloid leukemia and myelodysplastic syndromes: mechanisms of resistance and novel HMA-based therapies.

Authors:  Julia Stomper; John Charles Rotondo; Gabriele Greve; Michael Lübbert
Journal:  Leukemia       Date:  2021-05-06       Impact factor: 11.528

4.  Antibody response to SARS-CoV-2 vaccines in patients with hematologic malignancies.

Authors:  Lee M Greenberger; Larry A Saltzman; Jonathon W Senefeld; Patrick W Johnson; Louis J DeGennaro; Gwen L Nichols
Journal:  Cancer Cell       Date:  2021-07-22       Impact factor: 31.743

5.  Efficacy and Safety of the mRNA-1273 SARS-CoV-2 Vaccine.

Authors:  Lindsey R Baden; Hana M El Sahly; Brandon Essink; Karen Kotloff; Sharon Frey; Rick Novak; David Diemert; Stephen A Spector; Nadine Rouphael; C Buddy Creech; John McGettigan; Shishir Khetan; Nathan Segall; Joel Solis; Adam Brosz; Carlos Fierro; Howard Schwartz; Kathleen Neuzil; Larry Corey; Peter Gilbert; Holly Janes; Dean Follmann; Mary Marovich; John Mascola; Laura Polakowski; Julie Ledgerwood; Barney S Graham; Hamilton Bennett; Rolando Pajon; Conor Knightly; Brett Leav; Weiping Deng; Honghong Zhou; Shu Han; Melanie Ivarsson; Jacqueline Miller; Tal Zaks
Journal:  N Engl J Med       Date:  2020-12-30       Impact factor: 91.245

6.  Characteristics, clinical outcomes, and risk factors of SARS-COV-2 infection in adult acute myeloid leukemia patients: experience of the PETHEMA group.

Authors:  Tomás Palanques-Pastor; Juan Eduardo Megías-Vericat; Pilar Martínez; José Luis López Lorenzo; Javier Cornago Navascués; Gabriela Rodriguez Macias; Isabel Cano; Montserrat Arnan Sangerman; María Belén Vidriales Vicente; Jesús Lorenzo Algarra Algarra; María Ángeles Foncillas; Pilar Herrera; Carmen Botella Prieto; Susana Vives; Ángela Figuera Álvarez; Laida Cuevas Palomares; Marta Sobas; Alejandro Contento Gonzalo; Rebeca Cuello García; María Elena Amutio Diez; Dunia De Miguel Llorente; Begoña Navas Elorza; Juan Miguel Bergua Burgues; Teresa Bernal Del Castillo; María Carmen Mateos Rodríguez; Erik de Cabo López; Ana Carolina Franco Villegas; Raimundo García Boyero; Cristian Escolano Escobar; Cristina Seri Merino; Carlos Cervero; Alicia Roldán Pérez; Lourdes Hermosín Ramos; Marta Cervera Calvo; María Telesa Olave; Paola Villafuerte Gutiérrez; Almudena de Laiglesiai; Josefina Serrano; María Josefa Najera Irazu; José Luis Piñana; Miguel Ángel Sanz; Joaquín Martínez-López; Pau Montesinos
Journal:  Leuk Lymphoma       Date:  2021-07-22

7.  Clinical characteristics and risk factors associated with COVID-19 severity in patients with haematological malignancies in Italy: a retrospective, multicentre, cohort study.

Authors:  Francesco Passamonti; Chiara Cattaneo; Luca Arcaini; Riccardo Bruna; Michele Cavo; Francesco Merli; Emanuele Angelucci; Mauro Krampera; Roberto Cairoli; Matteo Giovanni Della Porta; Nicola Fracchiolla; Marco Ladetto; Carlo Gambacorti Passerini; Marco Salvini; Monia Marchetti; Roberto Lemoli; Alfredo Molteni; Alessandro Busca; Antonio Cuneo; Alessandra Romano; Nicola Giuliani; Sara Galimberti; Alessandro Corso; Alessandro Morotti; Brunangelo Falini; Atto Billio; Filippo Gherlinzoni; Giuseppe Visani; Maria Chiara Tisi; Agostino Tafuri; Patrizia Tosi; Francesco Lanza; Massimo Massaia; Mauro Turrini; Felicetto Ferrara; Carmela Gurrieri; Daniele Vallisa; Maurizio Martelli; Enrico Derenzini; Attilio Guarini; Annarita Conconi; Annarosa Cuccaro; Laura Cudillo; Domenico Russo; Fabrizio Ciambelli; Anna Maria Scattolin; Mario Luppi; Carmine Selleri; Elettra Ortu La Barbera; Celestino Ferrandina; Nicola Di Renzo; Attilio Olivieri; Monica Bocchia; Massimo Gentile; Francesco Marchesi; Pellegrino Musto; Augusto Bramante Federici; Anna Candoni; Adriano Venditti; Carmen Fava; Antonio Pinto; Piero Galieni; Luigi Rigacci; Daniele Armiento; Fabrizio Pane; Margherita Oberti; Patrizia Zappasodi; Carlo Visco; Matteo Franchi; Paolo Antonio Grossi; Lorenza Bertù; Giovanni Corrao; Livio Pagano; Paolo Corradini
Journal:  Lancet Haematol       Date:  2020-08-13       Impact factor: 18.959

8.  COVID-19 elicits an impaired antibody response against SARS-CoV-2 in patients with haematological malignancies.

Authors:  Francesco Passamonti; Alessandra Romano; Marco Salvini; Francesco Merli; Matteo G Della Porta; Riccardo Bruna; Elisa Coviello; Ilaria Romano; Roberto Cairoli; Roberto Lemoli; Francesca Farina; Adriano Venditti; Alessandro Busca; Marco Ladetto; Massimo Massaia; Antonio Pinto; Luca Arcaini; Agostino Tafuri; Francesco Marchesi; Nicola Fracchiolla; Monica Bocchia; Daniele Armiento; Anna Candoni; Mauro Krampera; Mario Luppi; Valeria Cardinali; Sara Galimberti; Chiara Cattaneo; Elettra Ortu La Barbera; Roberto Mina; Francesco Lanza; Giuseppe Visani; Pellegrino Musto; Luigi Petrucci; Francesco Zaja; Paolo A Grossi; Lorenza Bertù; Livio Pagano; Paolo Corradini
Journal:  Br J Haematol       Date:  2021-07-16       Impact factor: 8.615

  9 in total
  1 in total

Review 1.  COVID-19 and Adult Acute Leukemia: Our Knowledge in Progress.

Authors:  Franziska Modemann; Susanne Ghandili; Stefan Schmiedel; Katja Weisel; Carsten Bokemeyer; Walter Fiedler
Journal:  Cancers (Basel)       Date:  2022-07-29       Impact factor: 6.575

  1 in total

北京卡尤迪生物科技股份有限公司 © 2022-2023.