Literature DB >> 33124533

Antibody Correlates of Protection from Clinical Plasmodium falciparum Malaria in an Area of Low and Unstable Malaria Transmission.

Karen E S Hamre1,2,3, Bartholomew N Ondigo4,5,6, James S Hodges7, Sheetij Dutta8, Michael Theisen9, George Ayodo5,10, Chandy C John1,2,4,11.   

Abstract

Immune correlates of protection against clinical malaria are difficult to ascertain in low-transmission areas because of the limited number of malaria cases. We collected blood samples from 5,753 individuals in a Kenyan highland area, ascertained malaria incidence in this population over the next 6 years, and then compared antibody responses to 11 Plasmodium falciparum vaccine candidate antigens in individuals who did versus did not develop clinical malaria in a nested case-control study (154 cases and 462 controls). Individuals were matched by age and village. Antigens tested included circumsporozoite protein (CSP), liver-stage antigen (LSA)-1, apical membrane antigen-1 FVO and 3D7 strains, erythrocyte-binding antigen-175, erythrocyte-binding protein-2, merozoite surface protein (MSP)-1 FVO and 3D7 strains, MSP-3, and glutamate-rich protein (GLURP) N-terminal non-repetitive (R0) and C-terminal repetitive (R2) regions. After adjustment for potential confounding factors, the presence of antibodies to LSA-1, GLURP-R2, or GLURP-R0 was associated with decreased odds of developing clinical malaria (odds ratio [OR], [95% CI] 0.56 [0.36-0.89], 0.56 [0.36-0.87], and 0.77 [0.43-1.02], respectively). Levels of antibodies to LSA-1, GLURP-R2, and CSP were associated with decreased odds of developing clinical malaria (OR [95% CI]; 0.61 [0.41-0.89], 0.60 [0.43-0.84], and 0.49 [0.24-0.99], for every 10-fold increase in antibody levels, respectively). The presence of antibodies to CSP, GLURP-R0, GLURP-R2, and LSA-1 combined best-predicted protection from clinical malaria. Antibodies to CSP, GLURP-R0, GLURP-R2, and LSA-1 are associated with protection against clinical malaria in a low-transmission setting. Vaccines containing these antigens should be evaluated in low malaria transmission areas.

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Year:  2020        PMID: 33124533      PMCID: PMC7695051          DOI: 10.4269/ajtmh.18-0805

Source DB:  PubMed          Journal:  Am J Trop Med Hyg        ISSN: 0002-9637            Impact factor:   3.707


  65 in total

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2.  Breadth and magnitude of antibody responses to multiple Plasmodium falciparum merozoite antigens are associated with protection from clinical malaria.

Authors:  Faith H A Osier; Gregory Fegan; Spencer D Polley; Linda Murungi; Federica Verra; Kevin K A Tetteh; Brett Lowe; Tabitha Mwangi; Peter C Bull; Alan W Thomas; David R Cavanagh; Jana S McBride; David E Lanar; Margaret J Mackinnon; David J Conway; Kevin Marsh
Journal:  Infect Immun       Date:  2008-03-03       Impact factor: 3.441

3.  Antibodies to Plasmodium falciparum erythrocyte-binding antigen-175 are associated with protection from clinical malaria.

Authors:  Matthew B McCarra; George Ayodo; Peter O Sumba; James W Kazura; Ann M Moormann; David L Narum; Chandy C John
Journal:  Pediatr Infect Dis J       Date:  2011-12       Impact factor: 2.129

4.  Action of malarial antibody in vitro.

Authors:  S Cohen; G A Butcher; R B Crandall
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Authors:  Micha Phill Grønholm Jepsen; Prajakta S Jogdand; Susheel K Singh; Meral Esen; Michael Christiansen; Saadou Issifou; Aurore B Hounkpatin; Ulysse Ateba-Ngoa; Peter G Kremsner; Morten H Dziegiel; Severin Olesen-Larsen; Søren Jepsen; Benjamin Mordmüller; Michael Theisen
Journal:  J Infect Dis       Date:  2013-04-26       Impact factor: 5.226

6.  Association between protection against clinical malaria and antibodies to merozoite surface antigens in an area of hyperendemicity in Myanmar: complementarity between responses to merozoite surface protein 3 and the 220-kilodalton glutamate-rich protein.

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7.  Recombinant Liver Stage Antigen-1 (LSA-1) formulated with AS01 or AS02 is safe, elicits high titer antibody and induces IFN-gamma/IL-2 CD4+ T cells but does not protect against experimental Plasmodium falciparum infection.

Authors:  James F Cummings; Michele D Spring; Robert J Schwenk; Christian F Ockenhouse; Kent E Kester; Mark E Polhemus; Douglas S Walsh; In-Kyu Yoon; Christine Prosperi; Laure Y Juompan; David E Lanar; Urszula Krzych; B Ted Hall; Lisa A Ware; V Ann Stewart; Jack Williams; Megan Dowler; Robin K Nielsen; Collette J Hillier; Birgitte K Giersing; Filip Dubovsky; Elissa Malkin; Kathryn Tucker; Marie-Claude Dubois; Joe D Cohen; W Ripley Ballou; D Gray Heppner
Journal:  Vaccine       Date:  2009-09-06       Impact factor: 3.641

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Authors:  M Dziegiel; P Rowe; S Bennett; S J Allen; O Olerup; A Gottschau; M Borre; E M Riley
Journal:  Infect Immun       Date:  1993-01       Impact factor: 3.441

9.  Efficacy of RTS,S malaria vaccines: individual-participant pooled analysis of phase 2 data.

Authors:  Philip Bejon; Michael T White; Ally Olotu; Kalifa Bojang; John P A Lusingu; Nahya Salim; Nekoye N Otsyula; Selidji T Agnandji; Kwaku Poku Asante; Seth Owusu-Agyei; Salim Abdulla; Azra C Ghani
Journal:  Lancet Infect Dis       Date:  2013-03-01       Impact factor: 25.071

10.  Sensitivity of fever for diagnosis of clinical malaria in a Kenyan area of unstable, low malaria transmission.

Authors:  Albino L Mutanda; Priscah Cheruiyot; James S Hodges; George Ayodo; Wilson Odero; Chandy C John
Journal:  Malar J       Date:  2014-04-30       Impact factor: 2.979

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2.  Antibody Profiles to P. falciparum Antigens Over Time Characterize Acute and Long-Term Malaria Exposure in an Area of Low and Unstable Transmission.

Authors:  Bartholomew N Ondigo; Karen E S Hamre; Anne E P Frosch; George Ayodo; Michael T White; Chandy C John
Journal:  Am J Trop Med Hyg       Date:  2020-10-27       Impact factor: 3.707

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