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climate change as a global commons problem
Climate change operates as a collective action problem because the atmosphere is shared globally.
→ Individual states benefit from emitting (economic growth) but costs are distributed globally.
→ Leads to free-rider problem: states rely on others to reduce emissions.
ecological uncertainty
unpredictability of climate impacts (timing, severity, tipping points)
epistemic uncertainty
limits of scientific knowledge + disagreement over models/data
political-economic uncertainty
uncertainty about how systems (capitalism, governance) shape impacts
Key insight: climate change is not just scientific uncertainty—it is deeply political.
anthropocene
Humans are now a geological force altering Earth systems (carbon cycle, biodiversity).
→ Critiques:
Not all humans equally responsible (Global North vs South)
Masks power relations (capitalism, colonialism)
→ Some scholars argue for terms like “Capitalocene” to highlight capitalism’s role.
planetary boundaries
Earth systems (climate, nitrogen cycles, biodiversity) have thresholds.
→ Crossing them risks nonlinear, irreversible change (e.g., tipping points).
→ Climate change is linked to multiple boundaries → systems are interconnected.
climate justice
→ Focuses on distribution + responsibility + capacity:
Who caused emissions historically?
Who is most vulnerable now?
Who has the resources to respond?
→ Example: Small island states face sea-level rise despite minimal emissions.
common but differentiated responsibilities
→ Principle recognizing historical inequality in emissions.
→ Mechanism:
Developed countries → reduce emissions + fund adaptation
Developing countries → prioritize development
→ Conflict: Global North vs South disagreements in climate negotiations.
contraction and convergence
→ Step 1: Global emissions contract to sustainable levels
→ Step 2: Emissions converge to equal per capita allocation
→ Implication: Wealthy countries must drastically reduce emissions.
global governance limitations (climate)
→ Weak enforcement → states prioritize sovereignty
→ Voluntary agreements (Paris) lack binding force
→ Collective action problems persist
political economy of climate change
→ outcomes are shaped by:
Fossil fuel industries
Capitalist growth priorities
State economic interests
→ Key idea: Climate inaction is not accidental—it is structurally produced.
fossil capitalism
→ Economic growth depends on fossil fuels (cheap, energy-dense).
→ Creates lock-in effects: infrastructure, jobs, political power tied to fossil fuels.
primitive accumulation
Capitalism expands by taking resources (land, labor) from marginalized groups.
→ Example: Land grabs for mining or agriculture.
spatial displacement
shifting of objects, crimes, environmental impacts, or people from one location to another, rather than eliminating them. It is used in contexts ranging from crime mapping and environmental policy (moving pollution elsewhere)
crisis displacement
capitalism avoids collapse by shifting crises, ex: waste exported to poorer countries
temporal displacement
the movement or misplacement of an object, person, or phenomenon from its original time period into another, often causing disruptions in the timeline
ex: debt + delayed environmental costs
social displacement
burden placed on marginalized groups
carbon markets
Designed to reduce emissions through market incentives
BUT:
Creates a right to pollute
Allows rich actors to avoid real reductions
Encourages speculation (financial markets)
Often fails to reduce total emissions
→ Example: Companies offset emissions instead of cutting them.
privatization of the air
Turning emissions into tradable property rights is morally problematic because:
Atmosphere is a shared resource
Reinforces inequality (rich can buy pollution rights)
false solutions (market solution critique)
→ Technological fixes that:
Delay structural change
Require massive capital investment
Introduce new risks
→ Examples:
Geoengineering → unknown consequences
Biofuels → land grabs, food insecurity
Carbon capture → expensive, limited effectiveness
precautionary principle
Avoid large-scale interventions when risks are unknown or irreversible.
→ Violated by many tech-fix solutions.
Dalby — environmental determinism
Assumes linear causation: environment → conflict
→ Ignores:
Political institutions
Economic inequality
Historical context
main point: environment interacts with social systems, not independently.
geopolitical imagination
Shapes policy by categorizing regions:
“Stable” (West) vs “chaotic” (Global South)
→ Influences intervention, aid, and military policy.
power of language — discourse
Language constructs reality
→ Fear-based narratives → justify intervention and militarization
→ Example: framing Africa as “dangerous” legitimizes Western control.
Othering as a political function
Creates “us vs them”
→ Reinforces global hierarchies and inequality.
thermal inequality
Not just exposure to heat, but structurally produced vulnerability:
Labor systems (manual work vs office work)
Housing (AC vs none)
Migration constraints
durable inequality
Social systems reproduce inequality across time
→ Climate change reinforces existing inequalities
→ Example: Poor workers remain trapped in dangerous conditions.
precarity vs hyper-precarity
Precarity: unstable work/life
→ Hyper-precarity: extreme vulnerability with no safety nets
embodied climate experience
Climate is experienced physically:
Heat exhaustion
Dehydration
Long-term health effects
→ Connects climate change to public health.
food systems as socio-ecological systems
Food production shaped by:
Ecology (soil, water, climate)
Economy (markets, trade)
Power (who controls land/resources)
urban metabolism
Cities depend on external resources → not self-sustaining
→ Export waste and environmental costs elsewhere
→ Example: Cities rely on rural agriculture but generate pollution.
urban heat island effect
Concrete + infrastructure trap heat
→ Leads to:
Higher temperatures
Increased energy demand
Greater health risks
peri-urban zones
Hybrid spaces where urban expansion meets rural systems
→ Sites of rapid change and inequality.
food insecurity
Not just lack of food, but:
Market dependence
Price volatility
Political instability
→ Example: Egypt’s reliance on imports increases vulnerability.
urbanization of poverty
Increasing concentration of poverty in cities
→ Linked to migration, inequality, and economic restructuring.
public health
Collective effort to:
Prevent disease
Extend life
Promote well-being through social systems
3 core functions of public health
→ Protection (regulations, safety)
→ Prevention (vaccines, screenings)
→ Promotion (education, behavior change)
public health vs medicine
→ Medicine = individual treatment
→ Public health = population-level prevention
→ Key insight: prevention is more effective than treatment.
epidemiology
Studies disease patterns using:
Person (who)
Place (where)
Time (when)
biostatistics
Uses rates (mortality, morbidity) to measure health outcomes.
social and behavioral sciences
Health behaviors shaped by environment and social context.
environmental health
Examines how environmental factors (air, water, toxins) affect health.
health policy and management
Focus on laws, systems, and governance shaping health access.
social determinants of health
Non-medical conditions (like housing, education, income, environment) that influence health outcomes, quality of life, and inequality.
material-semiotic interdeterminacy
Health outcomes depend on both:
Material conditions (resources)
Meanings (culture, interpretation)
pandemics as socio-political events
Not just biological → shaped by:
Globalization
Inequality
Governance
globalization in pandemics
Increases connectivity → faster spread of disease.
health disparities in pandemics
Vulnerable populations suffer more due to structural inequality.
humanitarian perspective
Moral duty to help poorer countries.
market based perspective
Health improves through economic growth.
national sovereignty perspective
Non-interference in domestic affairs.
postcolonial perspective
Wealthy countries owe reparations due to historical exploitation.
free-rider problem
states benefit from others reducing emissions without contributing themselves
non-medical factors
Social, economic, and environmental conditions (like housing, income, education) that influence health outcomes beyond medical care.
upstream determinants
Root structural causes of health outcomes (e.g., education systems, inequality) that shape more immediate or “downstream” health issues.
“causes of causes”
Deeper underlying factors that produce direct health risks; emphasizes looking beyond surface-level explanations to structural drivers.
problem closure
When models or frameworks limit what counts as a valid cause or solution, often excluding complex or political factors like racism or colonialism.
process based understanding
Viewing health and social systems as dynamic and constantly changing processes rather than fixed, measurable “things.”
measurement practices create reality
The idea that tools like surveys and metrics actively shape how reality is understood rather than simply describing it.
noncommunicable diseases (NCDs)
Chronic diseases that are not spread person-to-person (e.g., diabetes, cancer), often linked to lifestyle and structural conditions.
“slow motion pandemic”
Framing chronic diseases (like obesity) as long-term global crises to generate urgency and policy attention.
toxic stress
Prolonged activation of the stress response (often from early-life adversity) that disrupts brain development and increases long-term health risks.
population level prevention
Public health approach focused on preventing disease across entire populations rather than treating individuals after illness occurs.
global public health
Focuses on understanding and addressing the cultural, social, political, economic, and environmental conditions that shape health and access to healthcare.
material-semiotic indeterminacy
Health outcomes are shaped by both material conditions (resources, environment) and meanings (culture, interpretation), and relationships between them are not fixed or fully knowable.
epidemic
A sudden, localized outbreak of disease affecting many people at once.
pandemic
A large-scale epidemic that spreads across countries or globally, affecting a high proportion of the population.
endemic
A disease that persists at a consistent level within a specific region over time.
pandemic response stages
Anxiety and isolation (border closures, fear)
Collective action (international cooperation)
Advocacy and reform (policy changes and long-term planning)
pandemics as socio-political events
Pandemics are shaped by globalization, inequality, and governance, not just biological factors
globalization in pandemics
Increased global connectivity allows diseases to spread more quickly across borders.
strategic use of pandemic rhetoric
Using the language of “pandemic” to mobilize funding, policy action, and global attention—even for non-infectious issues.
adverse childhood experiences
Traumatic events before age 18 (abuse, neglect, family instability) that have long-term health impacts.
biological embedding of stres
The process by which early-life stress affects physical development, including brain structure, hormones, and immune systems.
long term health risk amplification
Increased likelihood of chronic diseases (e.g., stroke, cancer, addiction) due to early-life adversity.