citizen science - theory, practice & policy workshop
TRANSCRIPT
Citizen Science: theory, practice and policy
(with case studies from UK & Germany)
Muki Haklay
UCL, Extreme Citizen Science group
Plan • 9:00-9:45 introduction to citizen science: history, trends that
facilitate it, types of citizen science activities, examples of projects
• 9:45-10:00 Q&A about introduction, and the role of citizen science in projects
• 10:00-10:15 Designing and choosing Citizen Science activity
• 10:15-10:30 Introduction to citizen science activity –Environmental sensing: WideNoise, NoiseWatch, AirCasting or nature observation: iNaturalist, Anymals+Plants
• 10:15-11:00 data collection in the botanical garden or in the open areas of the university, working in groups of 2 or 3
• 11:00-11:15 discussion in group of 5 on the lessons from data collection
• 11:15-11:45 feedback from all groups and a discussion about implications for designing citizen science activities: data quality, difference between observers, overview of resources that are available for designing and evaluating citizen science activities
• 11:45-12:15 Policy aspects of citizen science across the world
Learning Outcomes
• Knowledge of the field of citizen science and current trends that influence it
• Understand the principles and practical aspects of designing a citizen science project
• Experience of citizen science activity
• Learn about additional resources that can be used to design and run citizen science projects
• Understand the policy trends that are influencing the field
Introduction to Citizen Science
• Citizen Science in a historical perspective –underlying trends
• Current activities in the area of citizen science online and offline
• Typology of engagement in citizen science
Citizen Science (OED 2014)
citizen science n. scientific work undertaken by members of the general public, often in collaboration with or under the direction of professional scientists and scientific institutions.
citizen scientist n. (a) a scientist whose work is characterized by a sense of responsibility to serve the best interests of the wider community (now rare); (b) a member of the general public who engages in scientific work, often in collaboration with or under the direction of professional scientists and scientific institutions; an amateur scientist.
Citizen Science & Science
Early science (1600’s – early 1800’s)
Professional science (late 1800’s – 1900’s)
Opening Science (since 2000s)
Citizen Science & Science
Early science(1600’s – earl 1800’s)
Professional science (late 1800’s – 1900’s)
Opening Science (since 2000s)
IlliteracyBasic to High-school
Higher Education
Citizen Science & Science
Early science(1600’s – early 1800’s)
Professional science (late 1800’s – 1900’s)
Opening Science (since 2000s)
IlliteracyBasic to High-school
Higher Education
Citizen Science
as Gentlemen/
Gentlewomen
science
Mary Anning (1799-1847)
Citizen Science & Science
Early science(1600’s – early 1800’s)
Professional science (late 1800’s – 1900’s)
Opening Science (since 2000s)
IlliteracyBasic to High-school
Higher Education
Citizen Science
as Gentlemen/
Gentlewomen
science
Citizen Science
diminishing
© WMO–No. 919
Volunteer rainfall observer Rick Grocke checks
the rain gauge at Tanami Downs cattle station in
the Northern Territory of Australia
William Whewell, tides and volunteers • William Whewell, Trinity
College, Cambridge
• 1833: coined the term “scientist”
• 1835: tides observation
• Thousands of “subordinate labourers” assisting the scientist in his tasks
Source: Caren Cooper, NCMNS, http://bit.ly/WhewellCitSci
The era of professional science
• Involvement continued: archaeology, astronomy, ornithology, conservation, meteorology …
• No recognition, viewing volunteers as ‘untrustworthy’ contributors, that are better replaced by automated instruments
Shoemaker-Levy 9 on 17 May 1994
Citizen Science & Science
Early science(1600’s – early 1800’s)
Professional science (late 1800’s – 1900’s)
Opening Science (since 2000s)
IlliteracyBasic to High-school
Higher Education
Citizen Science
as Gentlemen/
Gentlewomen
science
Citizen Science
diminishing
Citizen Science
as open &
inclusive science
Citizen Science: why Now?
• Societal trends:• Education and qualifications • Leisure• Sharing economies / peer production
systems
• Technological trends:• Internet access (broadband)• Mobile devices• Collaborative Web• DIY electronics
Increased level of education
0
200
400
600
800
1000
1200
1400
1970 1975 1980 1985 1990 1995 2000 2005 2010
Millions
Enrolment in tertiary education, all programmes, both sexes (number)
0
100,000
200,000
300,000
400,000
19
71
19
74
19
77
19
80
19
83
19
86
19
89
19
92
19
95
19
98
20
01
20
04
20
07
20
10
20
13
Israel - Students enrolled at public and private tertiary education institutions.
Years of school completed by population 25+ years 1940-2009
Leisure
Source: the Atlantic
Sharing economies
• In many areas, especially in production and sharing of information
Active mobile-broadband subscriptions, 2007-2013*
Collaborative Web
DIY electronics
Why trends matter?
• Considerations of who participates and what is the potential for participation
• Technology – enabler as well as barrier for participation (e.g. access to smartphones)
• Identifying emerging opportunities for projects (e.g. DIY electronics sensing)
A new era of citizen science
Haklay, M., 2013, Citizen Science and Volunteered Geographic Information –
overview and typology of participation in Crowdsourcing Geographic Knowledge
Citizen Science
Citizen Cyberscience
Volunteer computing
Volunteer thinking
Passive Sensing
Long running Citizen Science
Ecology & biodiversity
Meteorology Astronomy
Community Science
DIY ScienceParticipatory
sensingCivic Science
A new era of citizen science
Haklay, M., 2013, Citizen Science and Volunteered Geographic Information –
overview and typology of participation in Crowdsourcing Geographic Knowledge
Citizen Science
Citizen Cyberscience
Volunteer computing
Volunteer thinking
Passive Sensing
Long running Citizen Science
Ecology & biodiversity
Meteorology Astronomy
Community Science
DIY ScienceParticipatory
sensingCivic Science
Passive Sensing
Volunteer computing
You can join World Community Grid at http://www.worldcommunitygrid.org/
Volunteer thinking
See Zooniverse projects at http://www.zooniverse.org/
Volunteer thinking
mmos.chNathan Prestopnik
A new era of citizen science
Haklay, M., 2013, Citizen Science and Volunteered Geographic Information –
overview and typology of participation in Crowdsourcing Geographic Knowledge
Citizen Science
Citizen Cyberscience
Volunteer computing
Volunteer thinking
Passive Sensing
Long running Citizen Science
Ecology & biodiversity
Meteorology Astronomy
Community Science
DIY ScienceParticipatory
sensingCivic Science
Biodiversity/Ecology
iSpot
Biodiversity/Ecology
Participating in Big Garden
Birdwatch (source: RSPB)
Participating in BioBlitz (source: OPAL)
Astronomy
Ecology/Public Health
• Mückenatlas and Atrapa el Tigre – mosquito monitoring in Germany and Spain
• General mosquito classification in Germany, specific to Asian Tiger mosquito in Spain
Source: Mückenatlas
A new era of citizen science
Haklay, M., 2013, Citizen Science and Volunteered Geographic Information –
overview and typology of participation in Crowdsourcing Geographic Knowledge
Citizen Science
Citizen Cyberscience
Volunteer computing
Volunteer thinking
Passive Sensing
Long running Citizen Science
Ecology & biodiversity
Meteorology Astronomy
Community Science
DIY ScienceParticipatory
sensingCivic Science
Source: P. Boeing, Bento Lab
More information at http://publiclaboratory.org
DIY/Community Science
DIY/Community Science
Participatory Sensing
Scrap yard
Community Centre
School
Noise mapping
Mapping for Change LCY noise mapping study at http://bit.ly/LCYNoise
Distribution of Survey Points
50m Squares - Averages
Numbers
indicate how
Many readings
in each
50m square
Community-led air quality studies
Jerome Lewis, ExCiteS
Engagement: Free, Prior Informed Consent
Participatory Software design
Training and support
Ashaninka village “Apiwtxa”
José Frank Melo
Community based monitoring
Haklay, M., 2013, Citizen Science and Volunteered Geographic Information –
overview and typology of participation in Crowdsourcing Geographic Knowledge
Citizen Science
Citizen Cyberscience
Volunteer computing
Volunteer thinking
Passive Sensing
Long running Citizen Science
Ecology & biodiversity
Meteorology Astronomy
Community Science
DIY ScienceParticipatory
sensingCivic Science
After Cooper, Dickinson, Phillips & Bonney, 2007, Citizen Science as tool for conservation in residential ecosystems. Ecology and
Society 12(2)
Question
Study Design
Data Collection
Data Analysis and
Interpretation
Understanding
results
Management Action
Geographic scope
of project
Nature of people
taking action
Research priority
Education priority
Traditional
Science
Scientific
Consulting*Citizen
Science*
Collaborative
Citizen
Science
Participatory
Action
Research
Variable Narrow NarrowBroad Broad
ManagersCommunity
Groups Managers IndividualsCommunity
Groups
Highest Medium High High Medium
Low Medium High High High
*often called Science Shops
Community Science
Co-created
Citizen
Science
Narrow
High
High
All
√
√√√
√
√
√
√
√
√
√ √
√
√
√
√
√
√
√
√
√
√ √
√
√
√Public Scientists
√
√
√
Participation in citizen science
• Collaborative science – problem definition, data collection and analysis
Level 4 ‘Extreme/ Up-Science’
• Participation in problem definition and data collection
Level 3 ‘Participatory science’
• Citizens as basic interpreters Level 2 ‘Distributed
intelligence’
• Citizens as sensors Level 1
‘Crowdsourcing’
Haklay. 2013. Citizen Science and volunteered geographic information: Overview
and typology of participation, Crowdsourcing Geographic Knowledge
Types of citizen science: summary• The impacts of the societal & technological trends
are visible across the spectrum of citizen science –online only (cyberscience), traditional, and community based
• Citizen science is relevant to many disciplines and knowledge areas
• Projects do not fall into one category, it is possible for a project to have multiple levels of participations and tools
• Projects should consider what are the capabilities of the participants and needs for engagement
Plan • 9:00-9:45 introduction to citizen science: history, trends that
facilitate it, types of citizen science activities, examples of projects
• 9:45-10:00 Q&A about introduction, and the role of citizen science in projects
• 10:00-10:15 Designing and choosing Citizen Science activity
• 10:15-10:30 Introduction to citizen science activity –Environmental sensing: WideNoise, NoiseWatch, AirCasting or nature observation: iNaturalist, Anymals+Plants
• 10:15-11:00 data collection in the botanical garden or in the open areas of the university, working in groups of 2 or 3
• 11:00-11:15 discussion in group of 5 on the lessons from data collection
• 11:15-11:45 feedback from all groups and a discussion about implications for designing citizen science activities: data quality, difference between observers, overview of resources that are available for designing and evaluating citizen science activities
• 11:45-12:15 Policy aspects of citizen science across the world
Designing Citizen Science project
Why do citizen science?• Excellent Engagement with Science
• Cost-effective data collection
• Geographic coverage that is not possible otherwise
• Scale of observations (number of participants) not possible otherwise
• Encouraging volunteering for a wider goal
• Raising awareness of environmental/scientific issue
• Education in science, technology, engineering & mathematics (STEM)
• Developing new skills and insights
• Linking to place and local community
• Adapting to different types of learning
ECSA’s 10 principles1. Citizen science projects actively involve citizens in scientific endeavour that
generates new knowledge or understanding.
2. Citizen science projects have a genuine science outcome.
3. Both the professional scientists and the citizen scientists benefit from taking part.
4. Citizen scientists may, if they wish, participate in multiple stages of the scientific process.
5. Citizen scientists receive feedback from the project.
6. Citizen science is considered a research approach like any other, with limitations and biases that should be considered and controlled for.
7. Citizen science project data and meta-data are made publicly available and where possible, results are published in an open access format.
8. Citizen scientists are acknowledged in project results and publications.
9. Citizen science programmes are evaluated for their scientific output, data quality, participant experience and wider societal or policy impact.
10. The leaders of citizen science projects take into consideration legal and ethical issues surrounding copyright, intellectual property, data sharing agreements, confidentiality, attribution, and the environmental impact of any activities.
What do they learn?
1. Task/game mechanics
2. Pattern recognition
3. On topic learning
5. Off topic knowledge and skills
4. Scientific process
6. Personal development
Participationas volunteer
Source: Laure Kloetzer, University of Geneva
IBM World Community Grid: Aug 2013 survey (15,000 responses)
Zooniverse – Feb 2014
Problem
definitionData collection
Visualisation &
analysisAction
Classification
& basic analysis
Basic School
High School
University/College
Postgraduate
PhD
Literacy
‘Default’ Citizen Science
Problem
definitionData collection
Visualisation &
analysisAction
Classification
& basic analysis
Basic School
High School
University/College
Postgraduate
PhD
Literacy
Plan • 9:00-9:45 introduction to citizen science: history, trends that
facilitate it, types of citizen science activities, examples of projects
• 9:45-10:00 Q&A about introduction, and the role of citizen science in projects
• 10:00-10:15 Designing and choosing Citizen Science activity
• 10:15-10:30 Introduction to citizen science activity –Environmental sensing: WideNoise, NoiseWatch, AirCasting or nature observation: iNaturalist, Anymals+Plants
• 10:15-11:00 data collection in the botanical garden or in the open areas of the university, working in groups of 2 or 3
• 11:00-11:15 discussion in groups on the lessons from data collection
• 11:15-11:45 feedback from all groups and a discussion about implications for designing citizen science activities: data quality, difference between observers, overview of resources that are available for designing and evaluating citizen science activities
• 11:45-12:15 Policy aspects of citizen science across the world
Experiencing Citizen Science
iNaturalist
• Started in 2008, providing a place to share observations and link to other people with common interests
Anymals+plants
• Use information from GBIF to predict what are the likely observations in your area
• Demonstration application that also allow submitting observations
WideNoise
• Developed as a demonstration for the Internet of Things
• Then used in EveryAware project (2011-2014)
• Measure sound level with an element of gamification (guess the noise) and qualitative information
NoiseWatch
• Developed by Microsoft in collaboration with the European Environment Agency in 2011
• Provide a simple form of recording level of sound and indicating what was recorded
AirCasting
• Created as part of a wider set-up that include air quality sensor to provide detailed personal health, air quality, and noise levels
Experiencing citizen science
• Decide in your group if you want to do biological recording or environmental sensing (record why)
• Look at the applications that you are planning to use, try them in class for 5 minutes
• Go out to the botanic garden or the road near the university and carry out recording with each app for 5-10 minutes
• Write down impressions about the process
Plan • 9:00-9:45 introduction to citizen science: history, trends that
facilitate it, types of citizen science activities, examples of projects
• 9:45-10:00 Q&A about introduction, and the role of citizen science in projects
• 10:00-10:15 Designing and choosing Citizen Science activity
• 10:15-10:30 Introduction to citizen science activity –Environmental sensing: WideNoise, NoiseWatch, AirCasting or nature observation: iNaturalist, Anymals+Plants
• 10:15-11:00 data collection in the botanical garden or in the open areas of the university, working in groups of 2 or 3
• 11:00-11:15 discussion in groups on the lessons from data collection
• 11:15-11:45 feedback from all groups and a discussion about implications for designing citizen science activities: data quality, difference between observers. overview of resources that are available for designing and evaluating citizen science activities
• 11:45-12:15 Policy aspects of citizen science across the world
How was it for you?
Discussion points
• What have you noticed about the process of data collection?
• What do you think about the clarity of the data collection protocol? How comparable are the observations?
• What feedback have you received? What will be the influence on participants?
• What is the data quality of the observations that wwere produced?
Data Quality Assurance
• Crowdsourcing - the number of people that edited the information
• Social - gatekeepers and moderators
• Geographic - broader geographic knowledge
• Domain knowledge - the knowledge domain of the information
• Instrumental observation – technology based calibration
• Process oriented – following a procedure
http://wp.me/p7DNf-j7
Evaluation
• Evaluating the learning from citizen science (Cornell Lab of Ornithology)
Design/evaluation
• Using the framework of ‘Science Capital’ to assess citizen science activities and enhance the outcomes
Useful resources
• Citizen Science Association http://citizenscienceassociation.org/
• European Citizen Science Association http://ecsa.citizen-science.net/
• US Federal Crowdsourcing and Citizen Science toolkithttps://crowdsourcing-toolkit.sites.usa.gov/
• UK Centre for Ecology and Hydrology Citizen Science resourceshttp://www.ceh.ac.uk/citizen-science
• German Citizen Science resources http://www.buergerschaffenwissen.de/en
Plan • 9:00-9:45 introduction to citizen science: history, trends that
facilitate it, types of citizen science activities, examples of projects
• 9:45-10:00 Q&A about introduction, and the role of citizen science in projects
• 10:00-10:15 Designing and choosing Citizen Science activity
• 10:15-10:30 Introduction to citizen science activity –Environmental sensing: WideNoise, NoiseWatch, AirCasting or nature observation: iNaturalist, Anymals+Plants
• 10:15-11:00 data collection in the botanical garden or in the open areas of the university, working in groups of 2 or 3
• 11:00-11:15 discussion in groups on the lessons from data collection
• 11:15-11:45 feedback from all groups and a discussion about implications for designing citizen science activities: data quality, difference between observers. overview of resources that are available for designing and evaluating citizen science activities
• 11:45-12:15 Policy aspects of citizen science across the world
Citizen Science and Policy
First era: 1969-[1987-92]
Expert
Public Decision Makers
Expert
http://wp.me/p7DNf-gx
First era: 1969-[1987-92]
• Experts responsible for creating environmental information and using it to advise government
• Top-down attitude to environmental decision making
• ‘Information Deficit’ model towards the public
• Environmental information by experts, for experts
http://wp.me/p7DNf-gx
http://wp.me/p7DNf-gx
Second era: 1992 – [2005-12]
Second era: 1992 – [2005-12]
• Rio Principle 10, Aarhus Convention
• Public access to environmental information is a prerequisite to participation, civil society organisations as intermediaries
• The Web as the dissemination medium
• Information by experts, for experts and the public (but in expert form)
http://wp.me/p7DNf-gx
© WMO–No. 919
© Audubon Cal.
Jennifer Jewett / USFWS
Participating in Christmas
Bird Count
CoCoRaHS
Volunteers in the Community
Collaborative Rain, Hail & Snow
Network (CoCoRaHS)
http://wp.me/p7DNf-gx
Third era: since 2005-2012
Government
Experts
Citizens
Citizen Science in the 3rd Era
• Benefiting from societal transition and technological changes
• Citizen Science increasingly accepted by scientists & decision makers
• Integrated in legislations and operational programmes
European Environment Agency
• Prof. Jacquie McGlade, head of European Environment Agency, 2008 (Aarhus + 10):
‘Often the best information comes from those who are
closest to it, and it is important we harness this local
knowledge if we are to tackle climate change adequately…
people are encouraged to give their own opinion on the
quality of the beach and water, to supplement the
official information.’
EEA Work Programme 2014-18
• As Part of Strategic Area 3 activities:‘to widen and deepen the European knowledge base by
developing communities of practice and engaging in
partnerships with stakeholders beyond Eionet, such as
business and research communities, Civil Society
Organisations (CSO), and initiatives concerning lay,
local and traditional knowledge and citizen science’
Eye on Earth
• Started in 2008 as joint initiative of EEA, Esri & Microsoft – aiming to make environmental information accessible in Europe
• By 2011, morphed into a global summit by AGEDI & UNEP “Eye on Earth builds networks and capacity across diverse knowledge communities to improve decision-making for sustainable development.”
• After an interim meeting in 2013, a summit in 2015, with continued focus on acting as ‘Network of Networks’
• Evolving into an alliance with AGEDI, UNEP, GEO, WRI & IUCN in the core, with an aim to extend it
Eye on Earth Alliance 2015
• An alliance with AGEDI, UNEP, GEO, WRI & IUCN : information for sustainable development.
… Citizen Science was a major focus area
within the Summit agenda and there was
general consensus that reporting against
SDGs must include citizen science data. To
this end, a global coalition of citizen
science groups will be established by the
relevant actors and the Eye on Earth
Alliance will continue to engage citizen
science groups …
More Policy indicators
• Scotland Environmental Protection Agency strategic commitment
• UK Environmental Observation Framework Working group
• UK Government Tree Health Strategy
• German Citizen Science Strategy 2020
• USA Federal toolkit for citizen science
• USA proposed Crowdsourcing and Citizen Science Act
• Citizen Science Association, European Citizen Science Association, Australian Citizen Science Association …
Our Vision:
In 2020, citizens in Europe are valued and empowered as key actors in advancing knowledge and innovation and thus
supporting a sustainable development of our world.
Our Mission:
Connecting citizens and science
through fostering active participation
ECSA Strategy
• Promoting Sustainability through CS• Implementing EU-wide CS programmes
• Linking CS to politics
• Building a Think Tank for Citizen Science• Sharing knowledge & skills
• Providing expertise & fostering excellence
• Linking to international CS community
• Developing Participatory Methods for Cooperation, Empowerment and Impact• Carrying out synthesis & research on CS
ECSA Working Groups
Standards, Principles,Best Practice
& Capacity Building
Policy, Strategy, Governance
& Partnerships
> Fundraising & Marketing> Communication & Events> International Conference
Projects, Data, Tools
& Technology
The road ahead…
• Networking & Capacity Building• International Conference, Workshops, Papers, etc.
• EU-wide CS Programmes• E.g. Tree Health, Lichens
• CS-Policy Interface• CS supporting EU Environment & Climate Policy, RRI, Open Science
• CS Data Infrastructure• Synthesis of available tools, metadata standards, service provision
Summary
• Citizen Science is a rapidly expanding field that touch many areas of science
• Growing knowledge of best practice, practitioners networks and policy awareness
• Provide multiple benefits – but they can’t be all achieved in one project, so require careful design
• Finally, don’t reinvent the wheel – join the existing networks and learn from others…