Place, community, and
biosphere: An overview of the
TERC Life Science Initiative's
climate education work
Gilly Puttick*, Brian Drayton, TERC
*presenter
Funded (mostly) by the
National Science
Foundation
Introduction
• Practicing scientists in Ecology
• Ecological perspective
• Training and assumptions about ecosystems,
systems thinking, complexity, etc.
2
Early work 1
• The Global Lab
-The first network of schools using
“telecommunication”
-Making and sharing environmental measurements
-Included a unit on measurements related to climate
change
3
Early work 2
• Ecology: A systems approach
- Adopted a systems approach to studying
ecosystems
- Placed issue of carbon cycling and climate change
in the broad context of ecology and evolution
4
Biocomplexity and the habitable planet
- Year long capstone high school course
- Built around cases local-to-global, focused on
land use, resource use and conservation
- Introduces
new
science
5
Biocomplexity
NATURAL
SYSTEMS
SOCIAL
CONTEXT Ecosystem Services
Landscapes
Coupled natural &
human (CNH) systems
• Spatial context and its
structure and patterns
• Ecosystem
processes on which
humans depend
• Considering
humans, their
social institutions
and behaviors as
part of all
ecosystems
6
Experiencing research first hand…
http://www.djc.com/news/en/11161687.html
http://quest.nasa.gov/projects/spacewardbound/mojave2007/journals/images/allner17.jpg
Local Unit
7
Use Real Data as Evidence
Existing Site vs. the 3 Scenarios
Local Unit
8
Arctic
Global Unit
GIS Analysis of
Arctic Sea Ice
Extent over Time
9
Polar bear Bowhead
Caribou
Little Auk
Red
Knot
10
New approaches? The problem
• Science of climate change is complex
• Learning about it is difficult
- Results from Yale study group
- Research findings from the classroom
- Public discourse about climate change
11
New approach? A conjecture
• Learning about climate change is difficult because:
- Science is abstract
- Complex, diffuse and probabilistic causality (Grotzer)
- Effects seem distant in space and time (Leiserowitz)
- Science practices are unfamiliar (Osborne, Krajcik)
- Learning is also influenced by emotional dimension
(Saunders, Moser)
• Therefore, we conjecture that a place-based approach
can counter these difficulties
12
New approaches?
• Stories
• Local (New England) examples
• The importance of Place
13
•Biosphere and Climate
14
GECCo
15
GECCo
Girls
•Learn about energy conservation
•Learn about climate change and their own
connection to it
•Take action by saving energy
•“Tell the world” about why conservation is
important
16
GECCo
Theoretical framework:
• Social norms
• Conservation psychology
• Theories of behavior change
17
Current projects
• Place identity – A component of personal
identity, a process by which, through interaction
with places, people describe themselves in
terms of belonging to a specific place.
• Environmental identity – A sense of identity
that transcends the individual and
encompasses one’s place in an ecosystem
18
Climate Conversations
• Communities as the agents of climate
change education
• Coordinated vision of climate change
• Skills and insights of each sector
19
Climate Conversations
•Cross-sector Climate Conversations
•Work with communities with nature centers as
“anchors” or “trusted messengers”
-Build knowledge of climate change
-Build educational capacity
-Build social capital for community action
•Conduct research on mechanisms and
effectiveness via a focus on the microgenesis of
ideas
20
The Climate Lab
https://www.manomet.org/cl
imatelab
21
Innovate to
Mitigate
http://innovatetom
itigate.org
22
Innovate to Mitigate
23
Building systems from Scratch
• Affordances of student game design to
learn about climate change
• Early evidence: Students are
- Motivated
- Persistent
- Learn about aspects of climate change
24
Building systems from Scratch
Making
games
Systems
Climate change
25
Results:
– Young people (YP) pick up
programming quickly
– YP focus on subsystems in their
game designs
– YP articulate tacit knowledge
about larger Earth systems when
asked
26
Conclusion
Project Audience Setting Features
Biocomplexity High school
students
In school Climate change from
“biocomplexity” perspective
Biosphere and
Climate
Broad community
spectrum
Formal and
informal
Biotic impacts of climate
change as driver of
learning
GECCo Elem and Middle
school girls
Informal Energy conservation and
personal action
The Climate Lab Middle school
students
In school Biotic impacts of climate
change as driver of
learning
Climate
Conversations
Broad community
spectrum
Formal and
informal
place-identity, community
as agent of education
Innovate to
Mitigate
Middle and High
school students
Formal and
informal
Climate mitigation as driver
of learning
Scratch Middle school
students
Informal Drawing on participatory
pedagogy
27
For more information
please contact Gilly Puttick:
gilly_puttick@terc.edu
Brian Drayton
brian_drayton@terc.edu
www.terc.edu
28

Place Community and Biosphere - Power Point

  • 1.
    Place, community, and biosphere:An overview of the TERC Life Science Initiative's climate education work Gilly Puttick*, Brian Drayton, TERC *presenter Funded (mostly) by the National Science Foundation
  • 2.
    Introduction • Practicing scientistsin Ecology • Ecological perspective • Training and assumptions about ecosystems, systems thinking, complexity, etc. 2
  • 3.
    Early work 1 •The Global Lab -The first network of schools using “telecommunication” -Making and sharing environmental measurements -Included a unit on measurements related to climate change 3
  • 4.
    Early work 2 •Ecology: A systems approach - Adopted a systems approach to studying ecosystems - Placed issue of carbon cycling and climate change in the broad context of ecology and evolution 4
  • 5.
    Biocomplexity and thehabitable planet - Year long capstone high school course - Built around cases local-to-global, focused on land use, resource use and conservation - Introduces new science 5
  • 6.
    Biocomplexity NATURAL SYSTEMS SOCIAL CONTEXT Ecosystem Services Landscapes Couplednatural & human (CNH) systems • Spatial context and its structure and patterns • Ecosystem processes on which humans depend • Considering humans, their social institutions and behaviors as part of all ecosystems 6
  • 7.
    Experiencing research firsthand… http://www.djc.com/news/en/11161687.html http://quest.nasa.gov/projects/spacewardbound/mojave2007/journals/images/allner17.jpg Local Unit 7
  • 8.
    Use Real Dataas Evidence Existing Site vs. the 3 Scenarios Local Unit 8
  • 9.
    Arctic Global Unit GIS Analysisof Arctic Sea Ice Extent over Time 9
  • 10.
  • 11.
    New approaches? Theproblem • Science of climate change is complex • Learning about it is difficult - Results from Yale study group - Research findings from the classroom - Public discourse about climate change 11
  • 12.
    New approach? Aconjecture • Learning about climate change is difficult because: - Science is abstract - Complex, diffuse and probabilistic causality (Grotzer) - Effects seem distant in space and time (Leiserowitz) - Science practices are unfamiliar (Osborne, Krajcik) - Learning is also influenced by emotional dimension (Saunders, Moser) • Therefore, we conjecture that a place-based approach can counter these difficulties 12
  • 13.
    New approaches? • Stories •Local (New England) examples • The importance of Place 13
  • 14.
  • 15.
  • 16.
    GECCo Girls •Learn about energyconservation •Learn about climate change and their own connection to it •Take action by saving energy •“Tell the world” about why conservation is important 16
  • 17.
    GECCo Theoretical framework: • Socialnorms • Conservation psychology • Theories of behavior change 17
  • 18.
    Current projects • Placeidentity – A component of personal identity, a process by which, through interaction with places, people describe themselves in terms of belonging to a specific place. • Environmental identity – A sense of identity that transcends the individual and encompasses one’s place in an ecosystem 18
  • 19.
    Climate Conversations • Communitiesas the agents of climate change education • Coordinated vision of climate change • Skills and insights of each sector 19
  • 20.
    Climate Conversations •Cross-sector ClimateConversations •Work with communities with nature centers as “anchors” or “trusted messengers” -Build knowledge of climate change -Build educational capacity -Build social capital for community action •Conduct research on mechanisms and effectiveness via a focus on the microgenesis of ideas 20
  • 21.
  • 22.
  • 23.
  • 24.
    Building systems fromScratch • Affordances of student game design to learn about climate change • Early evidence: Students are - Motivated - Persistent - Learn about aspects of climate change 24
  • 25.
    Building systems fromScratch Making games Systems Climate change 25
  • 26.
    Results: – Young people(YP) pick up programming quickly – YP focus on subsystems in their game designs – YP articulate tacit knowledge about larger Earth systems when asked 26
  • 27.
    Conclusion Project Audience SettingFeatures Biocomplexity High school students In school Climate change from “biocomplexity” perspective Biosphere and Climate Broad community spectrum Formal and informal Biotic impacts of climate change as driver of learning GECCo Elem and Middle school girls Informal Energy conservation and personal action The Climate Lab Middle school students In school Biotic impacts of climate change as driver of learning Climate Conversations Broad community spectrum Formal and informal place-identity, community as agent of education Innovate to Mitigate Middle and High school students Formal and informal Climate mitigation as driver of learning Scratch Middle school students Informal Drawing on participatory pedagogy 27
  • 28.
    For more information pleasecontact Gilly Puttick: [email protected] Brian Drayton [email protected] www.terc.edu 28