Technical ReportPDF Available

Survey Results: Complexities and Overlaps in Existing Citizen Science Mosquito Projects


Abstract and Figures

publication description Currently, multiple projects worldwide engage the public in the scientific process of learning about mosquito biodiversity or monitoring mosquitoes that carry diseases like Dengue, Chikungunya, Zika and Malaria. These projects are executed at different invasion-stages and different scenarios of epidemiological risk based on their country of origin. Through surveying 12 international research teams, this brief report illuminates the differences and the overlaps in the protocols and tools used by existing citizen science mosquito monitoring projects. The analysis covers project goals, requirements and support for participants, policy impact, digital tools and data privacy.
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As citizen science as a field advances so does the tools, applications
and other enabling conditions for conducting projects in the field. In
many different disciplines, most notably biodiversity, the ways these
projects and their tools collect, store and analyze data are manifold
and create interoperability issues when trying to aggregate and cross-
reference the data at scale. While many of these interoperability issues
-- legal, semantic, fitness for use -- are persistent across disciplines
and not unique to just citizen science, there are some nuances.
Because of this we designed a brief survey to determine what some of
those nuances might be in the field of citizen science and mosquito
monitoring in preparation for a technical workshop in April 2017. There
were 12 responses to this survey; table 1 on the next page illustrates
the name of the projects and geographic region the respondents are
working within.
The questions for the survey were designed to illuminate the
complexities and overlaps in existing projects and how those might
feed into a citizen science global platform for tracking the mosquito
vectors that carry the following diseases: Dengue, Chikungunya, Zika
and Malaria. Instead of reinvention, how do we lean into complexity
derived from comparing across these projects and leverage the tools
and educational materials they have already created? The following is
a narrative summary of the responses to this survey divided into
thematic areas. For further details please see the end of the report for
Goal: To create a global,
yet modular platform for
recording, aggregating
and disseminating
observations from the
public and validations
from virtual experts,
primarily for monitoring
the mosquito vectors that
carry diseases like
Dengue, Chikungunya,
Zika and Malaria while
contributing to other areas
of mosquito research.
Project Name
Geographic Region
Mosquito Alert Adaption
Hong Kong
Mosquito Alert Adaption
Puerto Rico
Globe Observer Mosquito
United States & International
Mosquito Alert
Invasive Mosquito Project
United States
Pilot Mosquito Monitoring Project
Smarter Crowdsourcing for Zika
Indo Biosys
Germany - Indonesia
*Respondents in this table either had an existing mosquito monitoring project or citizen science
mosquito project. Respondents without a project were not included in the above table. Throughout the
survey not all respondents answered every question and some questions had multiple-choice answers.
The general public plays an important role as data collectors and sometimes reviewers when
participating in citizen science projects. Of the 12-existing/anticipated projects surveyed, 9 identify the
general public as a major target participant responsible for collecting data. In addition, public health and
government officials (4 projects), teachers and students (2 projects) and researchers (1 project) are
also identified by some projects as data collectors, showing that some projects also engage the policy,
education and research community in data collection.
The projects surveyed have a good balance in terms of their geographical scope, including 4 regional
projects, 4 national projects, and 4 international projects. See below for breakdown.
The majority of the projects collect data about adult mosquitoes (7 out of 12), while the rest focus on
mosquito breeding sites and mosquito larvae or eggs. Of all surveyed projects, only 4 collect data on
specific species/genus of mosquitoes (Aedes albopictus, Aedes aegypti, Aedes, Culex), while the rest
collects data on all types of mosquitoes.
The majority of the projects give significant amount of freedom to participants as to the place, time and
frequency of data collection:
Of all projects surveyed, 8 projects allow participants to collect mosquito data from places/field
sites selected randomly by participants, while 3 require participants to collect data at fixed
location (targeted local communities/neighborhoods/school areas etc.).
Regarding the frequency of data collection during the whole year or during the mosquito
season, 5 projects do not have a set frequency, and the rest have a required data collection
frequency of either once or more every day, or once or more every week, or even less
As to the time of data collection within a day, 8 projects allow a random time, and the rest allow
data collection at more specific times (mostly morning, late afternoon and evening).
Regarding the data collection tool that participants are asked to use, the majority of projects use
smartphone apps with photo uploads (9 out of 12). The projects surveyed also identify a number of
other technological and non-technological solutions, including smartphone app with text uploads (1 out
of 12); other mobile-enabled technologies (2 out of 12); software and other web technologies (1 out of
12); pen and paper data collection sheet (2 out of 12); microscopes and other laboratory equipment (1
out of 12); and, other non-technological solutions (2 out of 12).
Regarding the data reporting requirements for participants, most projects collect image, geospatial and
descriptive data about mosquitoes/mosquito larvae/breeding sites with varying levels of identification
required, as well as personal identifiable data about participants:
Most projects require the participants to submit images of the mosquitoes / mosquito larvae /
breeding sites (10 out of 12), geospatial data (9 out of 12) and description of the identification of
the mosquitoes / mosquito larvae / breeding sites (7 out of 12). Some projects require the
images (5 out of 12) or the description (4 out of 12) of the environmental habitat. Other types of
data collected include the description of the data collection process, the number of mosquitoes,
location as inside or outside the house, and the time of the day.
Projects differ in the level of identification required for the mosquito data: apart from 4 projects
requiring no identification of mosquitoes from participants, 4 projects require the species level of
identification, 2 require the genus level, and one requires a different level for different types of
Most projects (7 out of 12) also collect personal identifiable data (name, home address, e-mail,
social media accounts, etc.); among them 5 projects store such personal data in the project
database, 1 stores it with a third party and 1 does not store the personal data.
Regarding the project support for participants, most projects provide training materials (10 out of 12)
and data validation support (8 out of 12) to help the participants during data collection.
The training provided to participants includes interactive training formats such as mobile-
enabled interactive training (e.g. exercises/quizzes embedded in smartphone apps; 6 out of 12);
in-person interactive training sessions with experts (5 out of 12) and online interactive training
(e.g. webinars, interactive websites; 2 out of 12). They also include non-interactive formats such
as written or hard copies of project manuals/brochures (6 out of 12), mobile-enabled non-
interactive learning materials (e.g. slides, galleries, videos embedded in smartphone apps,
websites; 5 out of 12), and online non-interactive learning materials (e.g. PowerPoint slides,
YouTube videos, websites; 4 out of 12).
For projects that provide data validation support to participants during the collection process,
virtual or remote (for instance by phone) support/review, either from experts (6 out of 12) or peer
participants (2 out of 12), is more common. In addition, some projects provide in-person
support/review from experts or peer participants, or use samples provided by the experts to
validate the data.
After the data collection process, 6 of the 12 projects also engage participants as reviewers for the
submitted data. Except for one project that offers compensation for peer review, participants are usually
asked to voluntarily conduct review the data with no compensation (5 out of 12).
Because of the nature of public participation in research, a citizen science project conducting mosquito
monitoring not only produces novel scientific research results that may inform public health decisions,
but also helps increase public awareness and education in mosquito control. This is evident from the
survey of the 12 projects. Raising community/public awareness is identified by most projects (9 out of
12) as a primary goal of the project. This is followed by basic scientific research (biodiversity, indicator
system etc.; 7 out of 12), real-time surveillance and control of targeted mosquitoes (disease vectors
and invasive species; 7 out of 12), early warning system for targeted mosquitoes in general (6 out of
12), and educational tool to assist formal or informal classroom education (5 out of 12). Some projects
also identify particular goals/research areas to contribute to, including the open data movement,
research on genetics, education for government officials, and monitoring the spatial and temporal
variation of mosquito nuisance for citizens.
Citizen science project data are often made publicly available and thus may reach a wide range of
users to inform policy making. This is evident from our survey result: among the 12 mosquito monitoring
projects surveyed, 8 projects have or plan to have open data available to anyone. Specific groups, such
as researchers, national/local government agencies, and the educational community, can also use the
project data. Concerning the projects surveyed, the mosquito control researchers (using data for
research and/or vector control purposes) is a major group of data users, as identified by 8 out of 12
projects. Public sector/government mosquito surveillance and/or control agencies are another major
user group, as identified by 7 out of 12 projects. Teachers or students using the data for
education/research purposes are also identified as a major data user group, each by 5 out of the 12
projects. Some projects also identify national government agencies (other than specific surveillance
and/or control agencies) (4 out of 12), local government agencies (other than specific surveillance
and/or control agencies) (4 out of 12), and private sector surveillance and/or control agencies (4 out of
12) as data users.
Most projects (10 out of 12) indicate or perceive some policy impact from their research. The policy
impact may include contribution to the public sector (government) mosquito surveillance/control or
mosquito-borne disease response (5 out of 12), contribution to national or local level of public health
planning (3 out of 12), contribution of more public health data or increase in data transparency (3 out of
12), contribution to the surveillance of new species and responses to new species (2 out of 12), and
increase in public awareness or education (2 out of 12). Most projects identify policy impact that cut
across multiple areas, showing that a citizen science project in mosquito monitoring can contribute to
policy making in various ways.
Because of the public-facing and open collaboration features of citizen science projects, digital tools are
often used not only in data collection but also in other parts of the research process. As described in
the “actions asked of citizens (public)” section, most mosquito monitoring projects in our survey require
participants to use smartphone apps with photo uploads, or other types of digital tools, for data
collection. In addition, most projects provide virtual or remote (for instance by phone) tools for data
validation support/review from either experts or peer participants during the data collection process.
Almost all projects in our survey also use digital tools for data validation after submission. Most projects
conduct remote/virtual data validation using experts (samples are sent to expert's labs by mail, experts
validate photo as species/genus; 10 out of 12), the non-expert online community (5 out of 12) and other
virtual tools (artificial intelligence algorithms etc.; 1 out of 12). Some projects conduct data validation
after submission in person, either using experts at the field site (4 out of 12) or non-experts using
dichotomous keys (1 out of 12).
Maintaining a virtual network of experts for data validation is crucial for projects that rely on
online/remote experts to conduct data validation (10 out of 12). Experts are usually either part of the
project/institution (5 out of 12), or recruited from local/national public health or other government
agencies (4 out of 12) or local/national universities or research institutes (4 out of 12). A few projects
also recruit such a virtual network of experts from local/national/international professional organizations
(3 out of 12) or online networks (communities of practice, discussion groups, etc.; 2 out of 12). Experts
are mostly not compensated for data validation work (8 out of 12). Project participants are mostly given
feedback regarding the accuracy of the data that they submitted (7 out of 12).
Privacy is an important aspect of using any digital tool. Most projects (10 out of 12) surveyed have
some kind of measure to maintain data privacy: 6 out of 12 projects have data repository/data server
protected by passwords only known to project administrators; 5 out of 12 projects have data encrypted
in transit from participant to the database; 4 out of 12 projects have data repository/data server in a
secure location (for instance, a locked room). A couple of projects have specific measures, such as
maintaining a security expert that ensures security and safety at all stages of the project.
The purpose of this brief report is to educate interested partners on the nuances of each individual
project and the overlaps for the purpose of starting a discussion on how to create a global platform for
tracking the mosquito vector that carries Dengue, Chikungunya, Zika and Malaria. A follow-on technical
workshop to this publication was held on April 3rd & 4th 2017 with support from the United Nations
Environment Programme and in coordination with the European Citizen Science Association and
the Woodrow Wilson International Center for Scholars. The goal of the workshop was to work
through the technical aspects of creating a global platform and produce a vision document outlining the
needs for such a platform.
This survey and narrative report was produced in March & April 2017. Survey design and feedback was
conducted in collaboration between Yujia He & Elizabeth Tyson at the Woodrow Wilson International
Center for Scholars and Frederic Bartumeus & Aitana Oltra in the Centre d'Estudis Avancats de Blanes
This work is licensed under Creative Commons 3.0 Attribution-NonCommerical
More information, including output from the workshop, can be found here
More information on the European Citizen Science Association
United Nations Environment Programme Data Portal (including citizen science data)
... When fulfilling the vision of global biodiversity monitoring with citizen science, we suggest that it needs to be 'locally based, yet global' (Chandler et al., 2012;He and Tyson, 2017) (Fig. 1). The challenging question is what this means in practice. ...
... whether pollination is limiting food production). Any global pollinator monitoring would have to be 'locally based, yet global' (He and Tyson, 2017), so while a global core methodology would be valuable, activities must be designed collaboratively so that the information is useful to and useable by local participants. Our proposal has similarities with The Global Mosquito Alert as a 'locally based, yet global platform' through linking successful projects in individual countries including Spain, the Netherlands, the United States, Indonesia, Hong Kong and Colombia (He and Tyson, 2017), where knowledge on mosquitoes as vectors of disease has direct bearing on people's health. ...
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Global biodiversity monitoring is urgently needed across the world to assess the impacts of environmental change on biodiversity. One way to increase monitoring is through citizen science. ‘Citizen science’ is a term that we use in this chapter to describe the diverse approaches that involve people in monitoring in a voluntary capacity, thus including participatory monitoring in which people work collaboratively with scientists in developing monitoring. There is great unrealised potential for citizen science, especially in Asia and Africa. However, to fulfil this potential citizen science will need to meet local needs (for participants, communities and decision makers, including people's own use of the data and their motivations to participate) and support global needs for biodiversity monitoring (including the United Nations’ Sustainable Development Goals and the Aichi Biodiversity Targets). Activities should be feasible (for participants to provide scientifically rigorous data) and useful (for data users, from local to global scales). We use examples from across the world to demonstrate how monitoring can engage different types of participants, through different technologies, to record different variables according to different sampling approaches. Overall, these examples show how citizen science has the potential to provide a step change in our ability to monitor biodiversity—and hence respond to threats at all scales from local to global.
... Zealand (Museum of New Zealand, 2020) or Globe's Mosquito Mapper Tool (Muñoz et al., 2020)]. Considering the increasing number of projects, an international consortium called 'Global Mosquito Alert' seeks to keep the big picture and provides information and tools for all scales of mosquito surveillance (He & Tyson, 2017;Tyson et al., 2018). ...
Full-text available
Due to the recent emergence of invasive mosquito species and the outbreaks of mosquito‐borne diseases in Europe, research on the ecology and diversity of the mosquito fauna has returned to scientific agendas. Through a nationwide surveillance programme in Germany, mosquitoes have been monitored actively by systematically operated traps since 2011, and passively by the ‘Mückenatlas’ (mosquito atlas) citizen science project launched in 2012. To assess the performance of both monitoring methods we compared the two respective datasets with regard to habitat coverage, species composition and the ability to detect invasive mosquitoes. The datasets include observations from the beginning of the project until the end of 2017. We found significant differences in species composition caused by land use types and the participants’ recording activity. Active monitoring performed better in mapping mosquito diversity, whereas passive monitoring better detected invasive species, thereby using data from private premises scientists usually cannot access. Synthesis and applications. Active and passive monitoring is complementary. Combining them allows for the determination of mosquito diversity, efficient detection of emerging invasive species and the initiation of rapid‐response actions against such invaders. The ‘Mückenatlas’ sets an example for the usefulness of citizen science when included in a national monitoring programme, an approach that may be worth copying for tackling the global spread of arthropod vectors of disease agents.
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Objetivo: difundir resultados preliminares del proyecto “Vectores y especies de artrópodos de importancia para la salud pública del estado de Hidalgo”. Material y método: el proyecto se creó el 27 de septiembre de 2017 en NATURALISTA, una plataforma pública y abierta perteneciente a la Comisión Nacional para el Conocimiento y Uso de la Biodiversidad (CONABIO), vinculada a la aplicación móvil Se aloja en la misma plataforma y se accesa a través de cualquier dispositivo conectado a internet. El modelo utilizado es abierto, lo que significa que cualquier persona puede participar como observador y aportar registros al proyecto. Cuenta con la participación de observadores, curadores y administradores. Resultados: A un año de su creación, se ha contabilizado un total de 88 observaciones, de 13 taxones de insectos (7 especies) y de 19 taxones de arácnidos (6 especies), procedentes de 23 municipios de todas las regiones de estado de Hidalgo. Conclusiones: la participación ciudadana es una herramienta con mucho potencial en la creación de una base de datos unificada sobre vigilancia entomológica pasiva. Este esfuerzo representa la primer propuesta en el país con un nuevo enfoque en la prevención de enfermedades con transmisión vectorial.
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