Using infective mosquitoes to challenge monkeys with Plasmodium knowlesi in malaria vaccine studies
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- 作者：Jittawadee R Murphy (1)
Walter R Weiss (2)
David Fryauff (2)
Megan Dowler (1)
Tatyana Savransky (1)
Cristina Stoyanov (3)
Olga Muratova (3)
Lynn Lambert (3)
Sachy Orr-Gonzalez (3)
Katie Lynn Zeleski (3)
Jessica Hinderer (3)
Michael P Fay (4)
Gyan Joshi (5)
Robert W Gwadz (6)
Thomas L Richie (2)
Eileen Franke Villasante (2)
Jason H Richardson (1)
Patrick E Duffy (3)
Jingyang Chen (3)
1. Walter Reed Army Institute of Research ; Silver Spring ; MD ; USA
2. Naval Medical Research Center ; Silver Spring ; MD ; USA
3. The Laboratory of Malaria Immunology and Vaccinology ; NIH ; NIAID ; Rockville ; MD ; USA
4. Division of Clinical Research ; Biostatistics Research Branch ; NIH ; NIAID ; Bethesda ; MD ; USA
5. Frederick National Laboratory for Cancer Research ; SAIC-Frederick ; Inc ; Frederick ; MD ; 21702 ; USA
6. The Laboratory of Malaria and Vector Research ; NIH ; NIAID ; Rockville ; MD ; USA - 关键词：Monkey ; Rhesus ; Macaca mulatta ; Plasmodium knowlesi ; Anopheles dirus ; Anopheles crascens ; Vaccine ; Methylparaben ; Mosquito ; Challenge
- 刊名：Malaria Journal
- 出版年：2014
- 出版时间：December 2014
- 年：2014
- 卷：13
- 期：1
- 全文大小：333 KB
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- 出版者：BioMed Central
- ISSN：1475-2875
文摘
Background When rhesus monkeys (Macaca mulatta) are used to test malaria vaccines, animals are often challenged by the intravenous injection of sporozoites. However, natural exposure to malaria comes via mosquito bite, and antibodies can neutralize sporozoites as they traverse the skin. Thus, intravenous injection may not fairly assess humoral immunity from anti-sporozoite malaria vaccines. To better assess malaria vaccines in rhesus, a method to challenge large numbers of monkeys by mosquito bite was developed. Methods Several species and strains of mosquitoes were tested for their ability to produce Plasmodium knowlesi sporozoites. Donor monkey parasitaemia effects on oocyst and sporozoite numbers and mosquito mortality were documented. Methylparaben added to mosquito feed was tested to improve mosquito survival. To determine the number of bites needed to infect a monkey, animals were exposed to various numbers of P. knowlesi-infected mosquitoes. Finally, P. knowlesi-infected mosquitoes were used to challenge 17 monkeys in a malaria vaccine trial, and the effect of number of infectious bites on monkey parasitaemia was documented. Results Anopheles dirus, Anopheles crascens, and Anopheles dirus X (a cross between the two species) produced large numbers of P. knowlesi sporozoites. Mosquito survival to day 14, when sporozoites fill the salivary glands, averaged only 32% when donor monkeys had a parasitaemia above 2%. However, when donor monkey parasitaemia was below 2%, mosquitoes survived twice as well and contained ample sporozoites in their salivary glands. Adding methylparaben to sugar solutions did not improve survival of infected mosquitoes. Plasmodium knowlesi was very infectious, with all monkeys developing blood stage infections if one or more infected mosquitoes successfully fed. There was also a dose-response, with monkeys that received higher numbers of infected mosquito bites developing malaria sooner. Conclusions Anopheles dirus, An. crascens and a cross between these two species all were excellent vectors for P. knowlesi. High donor monkey parasitaemia was associated with poor mosquito survival. A single infected mosquito bite is likely sufficient to infect a monkey with P. knowlesi. It is possible to efficiently challenge large groups of monkeys by mosquito bite, which will be useful for P. knowlesi vaccine studies.