Use the insiders: could insect facultative symbionts control vector-borne plant diseases?

被引:26
|
作者
Chuche, Julien [1 ,3 ]
Auricau-Bouvery, Nathalie [2 ]
Danet, Jean-Luc [2 ]
Thiery, Denis [1 ]
机构
[1] INRA, UMR Sante & Agroecol Vignoble 1065, Bordeaux Sci Agro, ISVV, F-33882 Villenave Dornon, France
[2] Univ Bordeaux, INRA, UMR Biol Fruit & Pathol 1332, F-33882 Villenave Dornon, France
[3] Maynooth Univ, Dept Biol, Maynooth, Kildare, Ireland
关键词
Symbiont; Vector-borne disease; Insect; Hemiptera; Integrated pest management; WHITEFLY BEMISIA-TABACI; LEAF-CURL-VIRUS; POPULATION AGE STRUCTURE; PEA APHID; SCAPHOIDEUS-TITANUS; TRANSOVARIAL TRANSMISSION; HORIZONTAL TRANSMISSION; ACYRTHOSIPHON-PISUM; BACTERIAL SYMBIONT; ARSENOPHONUS-NASONIAE;
D O I
10.1007/s10340-016-0782-3
中图分类号
Q96 [昆虫学];
学科分类号
摘要
Insect vector-borne plant diseases, particularly those whose causative agents are viral, or phloem- and xylem-restricted bacteria, greatly impact crop losses. Since plants are immobile, the epidemiology of vector-borne diseases greatly depends on insect vectors, which are the only means of dissemination for many pathogens. The effectiveness of a vector-borne pathogen relies upon the vectorial capacity, which is affected by vector density, feeding activity on hosts, longevity before and after pathogen ingestion, duration of the incubation period, and vector competence. During the last decade, research on human vector-borne epidemics has stimulated interest in novel control strategies targeting different parts of the vector cycle, and our purpose here is to draw parallels between this field of research and agronomy. We review the literature on insect vectors of crop diseases and their symbiotic microorganisms with the aim of suggesting future integrated management techniques based on current research on insect-vectored human diseases. Vector transmission is a complex process and different modes of transmission are encountered irrespective of the pathogen. Facultative symbionts have varied effects on life history traits that could be used for vector population control. Symbiont selection, transformation, and their manner of dissemination are important when developing an integrated vector management system based on symbiont manipulation. In the short term, progress on our knowledge of the microflora of insect vectors of plant diseases must be made. In the long term, symbiont manipulation, which has been successfully demonstrated against human insect-vectored diseases, could be adapted to insect-borne plant diseases to increase sustainable crop production.
引用
收藏
页码:51 / 68
页数:18
相关论文
共 50 条
  • [21] The launch of the Pacific vector network: connecting Pacific Island Countries and areas to prevent and control vector-borne diseases
    Limb K. Hapairai
    Salanieta T. Saketa
    Amandeep Singh
    Rosanna Y. Rabago
    Amanda K. Murphy
    Tessa B. Knox
    Nuha Mahmoud
    Emi Chutaro
    Anna Drexler
    Parasites & Vectors, 18 (1)
  • [22] Climate change and vector-borne diseases of public health significance
    Ogden, Nicholas H.
    FEMS MICROBIOLOGY LETTERS, 2017, 364 (19)
  • [23] The Relationship between Vector Species Richness and the Risk of Vector-Borne Infectious Diseases
    Takimoto, Gaku
    Shirakawa, Harumasa
    Sato, Takuya
    AMERICAN NATURALIST, 2022, 200 (03) : 330 - 344
  • [24] The basic reproduction number of vector-borne plant virus epidemics
    Van den Bosch, Frank
    Jeger, Michael J.
    VIRUS RESEARCH, 2017, 241 : 196 - 202
  • [25] Natterin-like and legumain insect gut proteins promote the multiplication of a vector-borne bacterial plant pathogen
    Galetto, Luciana
    Lucetti, Giulia
    Bucci, Luca
    Canuto, Francesca
    Rossi, Marika
    Abba, Simona
    Vallino, Marta
    Parise, Cecilia
    Palmano, Sabrina
    Manfredi, Marcello
    Bosco, Domenico
    Marzachi, Cristina
    MICROBIOLOGICAL RESEARCH, 2025, 291
  • [26] OPTIMAL CONTROL OF VECTOR-BORNE DISEASE WITH DIRECT TRANSMISSION
    Nordin, Nurul Aida
    Ahmad, Rohanin
    Ahmad, Rashidah
    JURNAL TEKNOLOGI, 2015, 76 (13): : 53 - 60
  • [27] Shifting priorities in vector biology to improve control of vector-borne disease
    Lambrechts, Louis
    Knox, Tessa B.
    Wong, Jacklyn
    Liebman, Kelly A.
    Albright, Rebecca G.
    Stoddard, Steven T.
    TROPICAL MEDICINE & INTERNATIONAL HEALTH, 2009, 14 (12) : 1505 - 1514
  • [28] Virtual globes and geospatial health: the potential of new tools in the management and control of vector-borne diseases
    Stensgaard, Anna-Sofie
    Saarnak, Christopher F. L.
    Utzinger, Juerg
    Vounatsou, Penelope
    Simoonga, Christopher
    Mushinge, Gabriel
    Rahbek, Carsten
    Mohlenberg, Flemming
    Kristensen, Thomas K.
    GEOSPATIAL HEALTH, 2009, 3 (02) : 127 - 141
  • [29] Detection of canine vector-borne diseases in eastern Poland by ELISA and PCR
    Beata Dzięgiel
    Łukasz Adaszek
    Alfonso Carbonero
    Paweł Łyp
    Mateusz Winiarczyk
    Piotr Dębiak
    Stanisław Winiarczyk
    Parasitology Research, 2016, 115 : 1039 - 1044
  • [30] Detection of canine vector-borne diseases in eastern Poland by ELISA and PCR
    Dziegiel, Beata
    Adaszek, Lukasz
    Carbonero, Alfonso
    Lyp, Pawel
    Winiarczyk, Mateusz
    Debiak, Piotr
    Winiarczyk, Stanisaw
    PARASITOLOGY RESEARCH, 2016, 115 (03) : 1039 - 1044