Periodic Reporting for period 4 - INFRAVEC2 (Research Infrastructures for the control of vector-borne diseases)
Período documentado: 2021-08-01 hasta 2022-06-30
The challenge of vector-borne disease.
Insect vectors are responsible for major global human suffering due to the diseases they transmit. These include viral infections transmitted by insects, such as chikungunya, dengue, Zika, Japanese encephalitis and yellow fever, and parasitic diseases such as malaria and leishmaniasis. Zika Fever is only decades old as a human disease, while malaria is as old as humanity itself. Insect vector-borne veterinary diseases such as bluetongue and Schmallenberg, caused by viruses, are responsible for large economic losses in European and global animal industries. Bloodfeeding insects can act as a bridge allowing unknown animal pathogens to jump into human hosts, and obscure local diseases can explode into global epidemics after just a few mutations, as apparently happened with chikungunya and Zika viruses. The diseases transmitted by insect vectors can be controlled by attacking the vector, either eliminating it or reducing its ability to transmit the pathogen. Indeed, for many vector-borne diseases, vector control is the only effective means of control. The goal of the Infravec2 project is to support research on insect disease vectors, to understand the biology of disease transmission in order to develop new tools and strategies to control current and future public health threats.
Social importance of insect vector research.
Vector-borne diseases have historically been considered a problem of tropical countries. Within the space of a few decades, vector-transmitted diseases and epidemics have now also become a threat to temperate regions of the world including much of Europe. A contributing factor has been the spread of different invasive mosquito species, particularly the Asian tiger mosquito Aedes albopictus, worldwide including into Europe. The increased risk of vector-borne diseases for the European population is a trend that will continue as a consequence of the global movement and expansion of the range of mosquito vectors, and probably other social as well as climatic changes. Thus, vector-borne disease is now a durable and permanent new public health concern in Europe. Just as the vectors and diseases changed to move to new environments, we also must adapt the forms of public health measure implemented to meet the new challenges with vector surveillance, research, and new forms of vector control.
Objectives of Infravec2 for insect vector research and control.
The overall objective of Infravec2 is to integrate key specialized research facilities necessary for European excellence in insect vector biology, open them for access for vector researchers, and develop new vector control measures targeting the greatest threats to human health and animal industries. Working safely with infected insect vectors requires sophisticated and expensive infrastructures, which are not commonly available to many researchers. The lack of access to these unique facilities is currently a significant bottleneck for vector biology research and vector control development. The important vectors range from mosquitoes, considered the world’s most lethal animal, the less well known but common sandflies, the barely visible Culicoides midges and nymphal ticks, and numerous other groups. The 24 Infravec2 partners, including four commercial companies, run the major European facilities for the study of insect vectors. With EU funding, Infravec2 is able to offer access to these facilities at no cost to qualified researchers in Europe and worldwide. Access to these infrastructures and resources is boosting progress in innovative vector research, building a robust vector research community, and will facilitate the development of new vector control tools.
We had used incorrect exchange rates which the auditors had picked up. This has resulted in an adjustment of EUR 1,617.20 in Period 1, an adjustment of EUR 94.03 in Period 2, an adjustment of EUR 129.20 in Period 3.
Insect vectors are responsible for major global human suffering due to the diseases they transmit. These include viral infections transmitted by insects, such as chikungunya, dengue, Zika, Japanese encephalitis and yellow fever, and parasitic diseases such as malaria and leishmaniasis. Zika Fever is only decades old as a human disease, while malaria is as old as humanity itself. Insect vector-borne veterinary diseases such as bluetongue and Schmallenberg, caused by viruses, are responsible for large economic losses in European and global animal industries. Bloodfeeding insects can act as a bridge allowing unknown animal pathogens to jump into human hosts, and obscure local diseases can explode into global epidemics after just a few mutations, as apparently happened with chikungunya and Zika viruses. The diseases transmitted by insect vectors can be controlled by attacking the vector, either eliminating it or reducing its ability to transmit the pathogen. Indeed, for many vector-borne diseases, vector control is the only effective means of control. The goal of the Infravec2 project is to support research on insect disease vectors, to understand the biology of disease transmission in order to develop new tools and strategies to control current and future public health threats.
Social importance of insect vector research.
Vector-borne diseases have historically been considered a problem of tropical countries. Within the space of a few decades, vector-transmitted diseases and epidemics have now also become a threat to temperate regions of the world including much of Europe. A contributing factor has been the spread of different invasive mosquito species, particularly the Asian tiger mosquito Aedes albopictus, worldwide including into Europe. The increased risk of vector-borne diseases for the European population is a trend that will continue as a consequence of the global movement and expansion of the range of mosquito vectors, and probably other social as well as climatic changes. Thus, vector-borne disease is now a durable and permanent new public health concern in Europe. Just as the vectors and diseases changed to move to new environments, we also must adapt the forms of public health measure implemented to meet the new challenges with vector surveillance, research, and new forms of vector control.
Objectives of Infravec2 for insect vector research and control.
The overall objective of Infravec2 is to integrate key specialized research facilities necessary for European excellence in insect vector biology, open them for access for vector researchers, and develop new vector control measures targeting the greatest threats to human health and animal industries. Working safely with infected insect vectors requires sophisticated and expensive infrastructures, which are not commonly available to many researchers. The lack of access to these unique facilities is currently a significant bottleneck for vector biology research and vector control development. The important vectors range from mosquitoes, considered the world’s most lethal animal, the less well known but common sandflies, the barely visible Culicoides midges and nymphal ticks, and numerous other groups. The 24 Infravec2 partners, including four commercial companies, run the major European facilities for the study of insect vectors. With EU funding, Infravec2 is able to offer access to these facilities at no cost to qualified researchers in Europe and worldwide. Access to these infrastructures and resources is boosting progress in innovative vector research, building a robust vector research community, and will facilitate the development of new vector control tools.
We had used incorrect exchange rates which the auditors had picked up. This has resulted in an adjustment of EUR 1,617.20 in Period 1, an adjustment of EUR 94.03 in Period 2, an adjustment of EUR 129.20 in Period 3.
Infravec2's greatest success was its TNA provision program, providing 237 projects with critical needed resources. The majority of Infravec2's TNA went to young investigators, helping to build critical capacities in Europe and worldwide.
Infravec2 developed new resources and tools for research on insect vectors. Many older mosquito colonies used for research are poorly characterized, and have likely changed in different laboratories. Seven new Infravec2 colonies of important mosquito disease vectors in the genera Anopheles, Aedes and Culex were established, initiated in Europe, Africa and the Asia Pacific region. These colonies are available to researchers through the Infravec2 portal of the ISIDORe project. Their microbiome profiles were determined to authenticate colony quality.
Infravec2 improved the genome sequences for two important but neglected vectors, a European mosquito and a European sandfly. With high-quality genome sequences, the catalog of genes is available for study, opening new avenues of research on these vectors.
Infravec2 made progress in developing common protocols and operating standards for insect vector facilities. This is important because the prior lack of unified experimental standards could lead to vector-pathogen risk-assessment errors, triggering inadequate preventative response. The project developed and disseminated the world’s first common inter-laboratory standards of performance for secure insectary experiments.
Infravec2 developed new resources and tools for research on insect vectors. Many older mosquito colonies used for research are poorly characterized, and have likely changed in different laboratories. Seven new Infravec2 colonies of important mosquito disease vectors in the genera Anopheles, Aedes and Culex were established, initiated in Europe, Africa and the Asia Pacific region. These colonies are available to researchers through the Infravec2 portal of the ISIDORe project. Their microbiome profiles were determined to authenticate colony quality.
Infravec2 improved the genome sequences for two important but neglected vectors, a European mosquito and a European sandfly. With high-quality genome sequences, the catalog of genes is available for study, opening new avenues of research on these vectors.
Infravec2 made progress in developing common protocols and operating standards for insect vector facilities. This is important because the prior lack of unified experimental standards could lead to vector-pathogen risk-assessment errors, triggering inadequate preventative response. The project developed and disseminated the world’s first common inter-laboratory standards of performance for secure insectary experiments.
The Infravec2 project introduced a user-friendly online "store" for distribution of rare vector-biology research resources, helping to federate our community. The project also made progress in several target areas developing new tools for researchers including, genetic manipulation of Aedes aegypti. In the African malaria mosquito, a successful laboratory test showed that populations could be driven to levels too low to maintain malaria transmission. An experimental infection system for sandflies with a phlebovirus was established, which is an important step towards a new experimental model of a European emerging disease with epidemic potential. This tool is novel, and will lead to new biological insight, and potential management tools. New lines of Plasmodium parasites were developed to replace the strain isolated in the 1950's. The development of a high-throughput field platform for vector identification and infection testing was developed with new sensitive approaches. Detailed environmental measurements of vector larval sites were carried out and reported by partners in six countries of Europe and Africa, aimed at predicting the quality of larval breeding sites for vector production.
The social impact and implications of insect vectors and vector control was strengthened by progress on an operational citizen science tool, which is a social science strategy to integrate public input into vector surveillance and control by web-based and crowd-sourcing approaches. The wider historical meaning of insect vector control was also investigated in an historic, cultural and anthropological context. Archival research and other historical methods were used to reconstruct knowledge of historical vector control practices, successes and failures, which may hold clues for current research. Tools were developed to promote the active involvement of societies for the most effective vector control interventions to protect human and animal health.
The social impact and implications of insect vectors and vector control was strengthened by progress on an operational citizen science tool, which is a social science strategy to integrate public input into vector surveillance and control by web-based and crowd-sourcing approaches. The wider historical meaning of insect vector control was also investigated in an historic, cultural and anthropological context. Archival research and other historical methods were used to reconstruct knowledge of historical vector control practices, successes and failures, which may hold clues for current research. Tools were developed to promote the active involvement of societies for the most effective vector control interventions to protect human and animal health.