scholarly journals Role of Multisector Partnerships in Controlling Emerging Zoonotic Diseases

2005 ◽  
Vol 11 (12) ◽  
pp. 1813-1814 ◽  
Author(s):  
Nina Marano ◽  
Paul Arguin ◽  
Marguerite Pappaioanou ◽  
Lonnie King
Keyword(s):  
2020 ◽  
Vol 1 (1) ◽  
pp. 13-21
Author(s):  
Vrinda Menon K. ◽  
Jolly Deepa

Rodents are the most abundant and diversified order of living mammals in the world. Their proximity with human population helps in the transmission of various zoonotic diseases. They are known to transmit around 60 common zoonotic diseases and not only serve as reservoirs of some of the emerging zoonoses but also hosts for a number of infectious diseases. They also provide a nexus between wildlife and humans exposing humans to zoonotic diseases circulating in the natural ecosystem. Rodent populations fluctuate in abundance over both seasonal and multiannual time scales. Rodents are known to be the primary or definitive host for diseases like plague, leptospirosis, Lyme disease, tick-borne relapsing fever, hemorrhagic fever with renal syndrome, leishmaniasis, hymenolepiasis, and moniliformiasis; whereas in other diseases, rodents act as the secondary host. There is an urgent need for field studies of rodent population to determine the likely role of particular rodent species as reservoirs of these diseases and to understand rodent-human interactions. Keywords: Rodents, Zoonotic diseases


Author(s):  
Nusirat Elelu ◽  
Julius Olaniyi Aiyedun ◽  
Ibraheem Ghali Mohammed ◽  
Oladapo Oyedeji Oludairo ◽  
Ismail Ayoade Odetokun ◽  
...  

2010 ◽  
Vol 2010 ◽  
pp. 1-12 ◽  
Author(s):  
Andreas F. Haag ◽  
Kamila K. Myka ◽  
Markus F. F. Arnold ◽  
Paola Caro-Hernández ◽  
Gail P. Ferguson

Brucellaspecies are the causative agents of one of the most prevalent zoonotic diseases: brucellosis. Infections byBrucellaspecies cause major economic losses in agriculture, leading to abortions in infected animals and resulting in a severe, although rarely lethal, debilitating disease in humans.Brucellaspecies persist as intracellular pathogens that manage to effectively evade recognition by the host's immune system. Sugar-modified components in theBrucellacell envelope play an important role in their host interaction.Brucellalipopolysaccharide (LPS), unlikeEscherichia coliLPS, does not trigger the host's innate immune system.Brucellaproduces cyclicβ-1,2-glucans, which are important for targeting them to their replicative niche in the endoplasmic reticulum within the host cell. This paper will focus on the role of LPS and cyclicβ-1,2-glucans inBrucella-mammalian infections and discuss the use of mutants, within the biosynthesis pathway of these cell envelope structures, in vaccine development.


2021 ◽  
Vol 10 (1) ◽  
Author(s):  
Léa Lugassy ◽  
Ludivine Amdouni-Boursier ◽  
Haoues Alout ◽  
Romuald Berrebi ◽  
Christophe Boëte ◽  
...  

Abstract Background The control and prevention of vector-borne and zoonotic diseases is often based on the reduction of host or vector populations, involving but not limited to preventative culling and use of insecticides. Yet, destructive interventions such as these have shown several limitations including ineffectiveness on arthropods and negative impacts on ecosystems. An alternative strategy would be to rely on the natural ecosystem functions and their careful management to regulate such diseases. The goal of our work was to evaluate existing scientific evidence on potential links between ecosystem components/functions and 14 vector-borne and zoonotic diseases impacting human health and answer the question: “What evidence exists on the impact of specific ecosystem components and functions on infectious diseases?”. Methods We searched for scientific articles published in English and French and screened them in a 3-round process (title, abstract and full-text). Articles were retained, without any geographical limitation, if they matched the following eligibility criteria: an exposure/intervention linked to changes in biological communities, habitats, or landscapes; an outcome consisting of any measure of infection in vector, animal or human hosts; and the presence of a comparator, in time and/or in space. The results are presented as a systematic map, followed by a narrative review where the amount of papers allowed for synthesis. Results Searches in 5 scientific publication databases allowed to retrieve 9723 unique articles, among which 207 were retained after the screening process. The amount of relevant literature was highly variable depending on diseases, and the types of exposures also varied greatly among studies focusing on the same disease. A hundred articles presented in the map were unique in their “disease x exposure” combination and thus not eligible for further narrative description. The remaining 107 articles were organized in 34 “disease x exposure” groups, encompassing 9 out of the 14 initial diseases. The groups were composed of 2 to 16 articles and were examined to provide a description of the current state of knowledge for those diseases. Conclusion Studies investigating the interaction between infectious diseases and ecosystems components and functions are still very scarce, and certain diseases are much more studied than others. Out of 14 diseases, 8 generated less than 10 relevant articles, while 2 diseases (Lyme disease and West Nile disease) represented 44% of all relevant studies. Although several vector-borne diseases included in the review represent a major health issue in the world, such as malaria or dengue, they have been exclusively studied under the prism of land-use, and we were unable to find relevant studies that tested the regulatory role of animal biodiversity-related functions. The role of predation in the regulation of vector and host populations has rarely been studied, with the exception of schistosomiasis. The dilution and amplification effects were addressed in several studies focusing on the composition of ecological communities. This map is a first step and could be upgraded in order to guide future research projects with the aim to conduct meta-analysis and build a robust evidence base to inform decision-making.


2012 ◽  
Vol 33 (4) ◽  
pp. 148 ◽  
Author(s):  
Adrian Coghill ◽  
Peter Black ◽  
Mark Schipp

One Health recognises that the health of humans, animals and ecosystems is intimately connected. One Health involves a coordinated, collaborative, multidisciplinary and cross-sectoral approach to addressing a wide range of potential or existing risks at the animal?human?ecosystem interface. Globally, a surge in emerging infectious diseases and their associated costs to society over the last 15 years has reignited interest in the idea that human health is linked to animals and our shared environment. In 2004 at the meeting Building Interdisciplinary Bridges to Health in a Globalized World held in New York, the 12 Manhattan Principles were defined to guide scientists and policy makers to "devise adaptive, forward-looking and multidisciplinary solutions to the challenges that undoubtedly lie ahead". These principles remain fundamental in defining the role of One Health.


2020 ◽  
Vol 45 (5) ◽  
pp. 9
Author(s):  
Sanjiv Kumar ◽  
Divya Aggarwal ◽  
Sumant Swain ◽  
Anandhi Ramachandran ◽  
Vijit Chaturvedi

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