Climate Change and Sustainable Food

Curriculum guideline

Effective Date:
Course
Discontinued
No
Course code
GEOG 3385
Descriptive
Climate Change and Sustainable Food
Department
Geography and the Environment
Faculty
Humanities and Social Sciences
Credits
3.00
Start date
End term
Not Specified
PLAR
No
Semester length
15 Weeks
Max class size
35
Course designation
None
Industry designation
None
Contact hours

 

Lecture: 2 hours/week

Seminar: 2 hours/week

 

Method(s) of instruction
Lecture
Seminar
Field Experience
Learning activities

In this course students will engage in a variety of activities such as lecture, small- and large-group discussion, field experiences, case studies, and team-based work.

Course description
By the year 2100 we may need 80% more food to support our growing population. Food systems are both major contributors to climate change and vulnerable to the impacts of shifting climate patterns and extreme weather. At the same time, sustainable approaches to food production hold the potential to reduce greenhouse gas emissions, restore biodiversity, and reduce atmospheric concentrations of carbon dioxide through long term storage. This course examines the complex relationships between climate change and food by exploring topics such as natural and anthropogenic causes of climate change, including agriculture and food; impacts of climate change on global agricultural patterns and food security; urban food systems; and alternative sustainable agricultural solutions, such as Indigenous food systems, agroecology, aquaculture, and innovative technological solutions.
Course content

1. Introduction to Climate Change and Food Systems

  • Overview of climate systems and global climate patterns
  • Definition of food systems, food sustainability, food security, and food sovereignty
  • Historical context of how food systems and their impact on the environment have evolved over time

2. Climate Change Science

  • Natural and anthropogenic causes of climate change and variability; greenhouse gases and global warming
  • Climate model predictions: global temperature and precipitation patterns, extreme weather events, sea-level rise

3. The Carbon Footprint of Food Systems

  • How food systems contribute to greenhouse gas emissions (e.g. livestock, fertilizers, deforestation, soil health)
  • Food-related emissions in different sectors: agriculture, transport, food processing, and consumption
  • The importance of dietary shifts in reducing food-related carbon footprints

4. Food Waste and Loss in the Context of Climate Change

  • Understanding food waste and its environmental impacts
  • The role of food waste in greenhouse gas emissions
  • Strategies to reduce food waste across supply chains

 5. Food Security in a Changing Climate

  • Defining food security and how it is affected by climate change
  • Impacts of climate change on agriculture (e.g. heat waves, drought, extreme weather)
  • Vulnerabilities of key crops (wheat, rice, maize) and livestock
  • The role of food access, availability, utilization, and stability
  • Vulnerable populations and regions

 6. Ecosystems and Sustainable Agriculture

  • Components of natural ecosystems
  • Agriculture as a managed ecosystem
  • Biogeochemical cycles (hydrological, carbon, nitrogen)
  • Biodiversity, pollinators, soil health
  • Carbon sequestration
  • Definition of agroecology and examples

 7. Sustainable Agriculture in Practice

  • Indigenous food systems, traditional, and current examples
  • Overview and critical analysis of selected sustainable agriculture practices: e.g. organic farming, agroforestry, crop rotation, integrated pest management, aquaculture
  • Technologies for climate-smart agriculture (e.g. precision farming, GMOs, drought-resistant crops, digital tools)
  • The role of innovation in improving food system resilience to future climate change

 8. Urban Food Systems

  • Challenges of food production in urban environments
  • Impacts of climate change on urban food security
  • Socioeconomic issues, governance, and food access
  • Sustainable urban agriculture, (e.g. green roofs, hydroponics, vertical farming)

 9. Global Policy Frameworks for Food Sustainability

  • Overview of international agreements (e.g. Paris Agreement, Sustainable Development Goals)
  • The role of national policies and local governance in food sustainability
  • Food sovereignty and land rights
Learning outcomes

At the conclusion of the course the successful student will be able to: 

  1. Describe the key concepts of climate change science, food security, and sustainability within a geographic framework.
  2. Explain the interconnections between climate change and global food systems, including how climate variability and extreme events affect food production, distribution, and access.
  3. Evaluate geographic variations in vulnerability and resilience of food systems to climate change including urban-rural differences.
  4. Analyze spatial data to assess current and projected impacts of climate change on food security at various spatial scales using graphs, maps, statistical analysis, and/or GIS.
  5. Assess sustainable agricultural practices and adaptation strategies aimed at mitigating climate-related risks to food systems, especially pertaining to urban environments.
  6. Examine the role of policy, governance, and international agreements (e.g., the Paris Agreement, Sustainable Develoment Goals (SDGs)) in shaping sustainable food futures in the context of climate change.
  7. Analyze ethical, social, and political dimensions of climate-resilient food systems, including land use debates, indigenous knowledge, and food sovereignty.
  8. Communicate complex geographic concepts and research findings related to climate change and food sustainability effectively through oral presentations, written reports, and spatial analysis.
Means of assessment

Evaluation will be based on course objectives and will be in accordance with the Douglas College Evaluation policy. Instructors may use a student’s record of attendance and/or level of active participation in the course as part of the student’s graded performance. Where this occurs, expectations and grade calculations regarding class attendance and participation will be clearly defined in the course outline. The instructor will provide a written course outline with specific criteria during the first week of classes. This is a letter-graded course.

An example of a possible evaluation scheme would be:

In-class exercises              10%

Field assignments              20%

Term Projects                    25%

Exams                              40%

Contribution/Participation     5%

Total                               100%

Textbook materials

Texts will be chosen from the following list, to be updated periodically.  An instructor's Course Reader may be required.

Balkrishna, A. (Ed.). (2022).  Sustainable Agriculture for Food Security:  A Global Perspective.  Taylor and Francis.

Campbell, B., Thornton, P., Loboguerrero, A.M., Dinesh, D., Nowak, A (2023).  Transforming Food Systems under Climate Change through Innovation. Cambridge University Press. 

Drake, D.M. (2024.)  Food Shortage Crisis:  Origins and Global Impact. Bloomsbury Publishing.

Farooq, M. (2023).  Sustainable Agriculture and the Environment. Elsevier Publishing.

Naeem, S., Lipton, S., van Huysen, T.  (2021), Sustainable Food Production:  An Earth Institute Sustainability Primer.  Columbia University Press.

Shiva, V.  (2022).  Agroecology and Regenerative Agriculture:  Sustainable Solutions for Hunger, Poverty, and Climate Change.  Synergetic Press.

Corequisites

None

Equivalencies

None