Adam Smith

Elinor Ostrom

Thomas Malthus

Garrett Hardin

Privatization of resources

All of the above

Strict governmental regulations

Community-based resource management

Solar energy

National parks

The Internet

Fisheries

People are naturally cooperative and will work together to manage resources.

People tend to ignore their long-term self-interest for immediate gains.

People will always act rationally and in the interest of the common good.

People behave altruistically when dealing with shared resources.

Toilet paper

Gasoline

National forest

Private lake

Relying on natural disasters to regulate usage of resources.

Ignoring the problem until the resource is depleted.

Implementing a system of laws and quotas.

Banning all access to common resources.

Predicting economic crises.

Developing new forms of market trading.

Demonstrating how local property can be successfully managed by local commons without any regulation by central authorities or privatization.

Explaining the processes that drive the 'Tragedy of the Commons'.

An individual's backyard garden

A farm owned by a corporation

Air

A privately-owned lake

Non-renewable resources only

Privately managed resources

Limited resources

Unlimited resources like solar energy

Encouraging the catch of juvenile fish to promote growth of adults

Implementing quotas and size limits on catches

Allowing unrestricted access to the fisher

Increasing the number of fish taken to boost economic gain.

Imposing fines for overuse of a shared resource

Establishing a system of fees and licenses for resource usage

Creating rules of use in common spaces such as no campfires in a park.

Encouraging unlimited access to the resources for economic gain.

Allowing private companies to manage all aspects of the park

Closing the parks to the public permanently

Implementing entry fees and regulating the number of visitors.

Unlimited access for all visitors always in order for more people to gain appreciation of natural spaces.

It ensures that all fish in the lake are male which helps increase the number of baby fish.

Male fish are less valuable, thus discouraging fishing.

It guarantees that fishing will become a less popular activity.

Less males are needed to breed and maintain maximum sustainable yield.

Privatizing the distribution of water to the highest bidder.

Imposing no restrictions on water usage.

Allocating water rights that allow for fair and sustainable usage.

Providing unlimited free access to water for agricultural use.

The method of cutting trees along the edge of a forest to prevent forest fires.

The practice of cutting down trees in a zig-zag pattern to promote regrowth.

The selective cutting of trees that are only mature or diseased.

The process of removing all trees in a forested area in a single operation.

It promotes long-term sustainability of forest ecosystems.

It allows for quick and efficient harvesting of timber.

It increases the cost of timber over selective cutting.

It leads to increased biodiversity in the forest for hunters.

Increased soil erosion and sedimentation in waterways

Enhanced greenhouse gas absorption

Increased water retention in the soil

Improved soil fertility due to the decomposition of organic matter

Increased soil erosion

Increased soil and stream temperatures

Reduced flooding

Disruption of local water cycles

By increasing the ozone hole, reflecting UV away from the earth

By discouraging the growth of new trees that absorb carbon dioxide more efficiently

By reducing the number of trees that can store carbon dioxide

By releasing oxygen into the atmosphere when trees are cut and burned

It results in increased heat absorption by the earth's surface due to less shade.

It has no significant impact on the earth's temperature.

It leads to a decrease in the earth's temperature due to less heat absorption by trees.

It increases the absorption of gamma rays back into the atmosphere.

Water bodies receive fewer nutrients and sediments enhancing the productivity.

More sediments and nutrients from the soil end up in the water.

Water bodies become less prone to flooding and less prone to eutrophication.

Water becomes clearer and less nutrient-rich.

Clear-cutting encourages the growth of shade-requiring species and decrease of sun-loving species.

Biodiversity is not affected by clear-cutting, because species are usually able to adapt to increased sun exposure.

Clear-cutting increases overall biodiversity by creating new habitats and not impacting the old habitats.

Biodiversity shifts, often resulting in an overall decrease due to edge-effects.

Increased edge-effects and a decrease in biodiversity

Decreased territory for shade-requiring species

Disruption of the habitats of certain animals and plants

Enhanced living conditions for all forest species

Clear-cutting leads to an increase in water retention in the soil.

The water cycle remains unchanged after clear-cutting due to adaptations in the soil biome.

Clear-cutting causes a decrease in water evaporation from streams and rivers.

Clear cutting leads to a decrease in transpiration.

It has no significant impact on local temperatures.

It increases rainfall due to enhanced condensation.

It can lead to a local increase in temperature due to reduced shade.

It decreases the local temperature due to increased shade.

Increased evapotranspiration due to higher tree density

Reduced water runoff and increased water storage

Enhanced water purification due to increased sedimentation

Disruption of natural water cycles leading to drier conditions

Sunlight is reflected more, leading to a cooling effect.

Sunlight absorption increases, leading to a warmer ground surface.

There is no change in the absorption of sunlight.

Sunlight absorption decreases significantly due to the absence of trees.

Evapotranspiration rates increase due to more exposure to sunlight.

Evapotranspiration rates decrease, leading to less moisture in the atmosphere.

The diagram does not provide information about evapotranspiration.

Evapotranspiration stops completely without trees.

To decrease the world's reliance on synthetic chemicals

To increase food production through new agricultural practices

To promote organic farming methods and no-till agriculture.

To reduce the environmental impact of farming that promoted sustainability.

Use of genetically modified organisms (GMOs)

Decreased use of machinery in farming

Introduction of irrigation systems

Application of synthetic fertilizers

They improve the health of farmworkers.

They are beneficial for all species in the ecosystem.

They are more expensive but more effective than natural methods.

They can be more targeted in eliminating pests.

They are less effective than traditional methods.

They are beneficial to pollinators.

They can contaminate water with toxins.

They specifically avoid killing non-targeted species.

Delivering a balanced array of macro and micronutrients to crops

Reducing the potential for runoff into water bodies

Increasing the micronutrient content in the soil

Providing targeted macronutrients to crops

They always improve the soil structure.

They can lead to eutrophication in water bodies due to runoff.

They only provide micronutrients to the crops.

They are more expensive than organic fertilizers.

The introduction of irrigation, tractors, and machinery.

A return to traditional farming techniques using horses and oxen and plows.

The development of organic farming practices and regenerative soil building.

The global reduction of farmland areas in favor of preserved wetlands.

Decreased reliance on irrigation

High-yielding varieties (HYVs) of grains

Biodynamic farming methods

Hand-held farming tools

It led to a dramatic increase in global food production.

It had no significant impact on global food production.

It shifted global food production from primarily grains to primarily meat.

It caused a significant decrease in global food production.

Only traditional irrigation methods such as drip irrigation were used to maintain soil integrity .

Irrigation allowed for more recharge of ancient aquifers.

New irrigation technologies and practices were developed to increase efficiency.

There was a widespread abandonment of irrigation practices in favor of dry-land farming.

They were only used in industrialized countries.

They were used to increase crop yields.

They were banned due to their harmful environmental effects.

They were replaced entirely by organic compost.

Decreased significantly to maintain traditional farming methods.

Contributed to soil compaction.

Lowered the productivity of farms.

Was only accessible in developed countries.

It led to a decrease in the use of chemicals in agriculture in favor of natural compost and manure.

It increased biodiversity in farmed areas resulting in the collapse of bee colonies.

It often resulted in negative environmental impacts, such as soil degradation.

It reduced water usage in agricultural practices due to the reliance on irrigation.

Tilling

Polyculture farming

Crop rotation

Hydroponics

It increases the organic matter in the soil.

It leads to a reduction in greenhouse gas emissions.

It can result in deforestation and loss of biodiversity.

It conserves water resources.

Runoff into streams which directly poisons aquatic life.

Causing the decline beneficial pollinators.

Enhancing the growth of beneficial microorganisms in the soil.

Causing eutrophication in water bodies.

By implementing no-till farming practices.

By removing crop residue that would otherwise decompose in the soil.

By increasing the amount of compost added to the soil.

By promoting the growth of cover crops which decomposes into the soil.

It increases the amount of nitrogen and phosphorus in the soil since tilled soil needs more fertilizer.

It loosens soil which leads to erosion that carries nutrients into water bodies.

It compacts the soil which leads to erosion that carries nutrients into water bodies.

It increases the soil's capacity to absorb nutrients which allows for eutrophication in small puddles.

Leading to deforestation and a significant release of greenhouse gases.

Increasing biodiversity by creating new habitat for grassland organisms.

Reducing overall carbon emissions due to the burning of biomass which then gets sequestered in the newly tilled soil.

Enhancing soil fertility without long-term consequences.

It increases oxygen levels, which offsets any carbon dioxide emissions.

It has no effect on the carbon cycle as new vegetation absorbs CO2 quickly.

It releases stored carbon dioxide when vegetation is burned.

It captures carbon dioxide, reducing the greenhouse effect.

It can contaminate groundwater with nitrates and phosphates.

It is usually more expensive than buying organic fertilizers.

It causes eutrophication in bodies of water.

It can cause air pollution when sprayed on fields.

Chemical fertilizer

Synthetic fertilizer

Organic fertilizer

Inorganic fertilizer

They increase the organic matter content in the soil.

They release nutrients slowly over time.

They improve the soil structure over the long term.

They provide nutrients to plants quickly.

Containing living microorganisms that benefit soil health.

Being made from artificial chemical compounds.

Reducing the risk of waterway eutrophication.

Being completely free of potential pollutants.

Can be more precisely tailored to provide specific nutrients needed by crops.

Do not require any soil testing before application.

Are made from renewable resources and are thus more sustainable.

Are more sustainable and eco-friendlier.

Provide immediate nutrients to plants without any delay.

Have a higher concentration of nutrients per unit weight.

Are not based on plant or animal waste and are purely chemical.

Typically release nutrients more slowly and improve soil structure.

Recreational activities

Industrial processes

Irrigation

Drinking

Cloud seeding

Spray

Furrow

Drip

The water table rises, affecting root oxygen absorption.

Plants receive excessive nutrients from too much water.

Soil loses all its water content and turns into clay soil.

Soil is eroded by excessive water.

Flooding entire fields

High efficiency in water usage

Using spray nozzles to distribute water.

Using ditches between crops

It is the most expensive method.

It can lead to waterlogging and soil erosion.

It uses complex technology, sensors, and expensive materials.

It is suitable only for small fields and orchards.

Most often powered by wind energy.

The least efficient method.

Expensive and requires fossil fuels to pump water.

Not likely to cause salinization.

Being highly efficient.

Its simplicity and low cost.

Causing high levels of soil salinization.

Causing severe soil erosion.

The overuse of chemical fertilizers, which can introduce excessive amounts of salts and minerals into the soil, disrupting its natural balance.

Rainwater which carries salts from evaporation, condensation, and precipitation.

Heavy rainfall, which can lead to the leaching of essential nutrients and minerals.

Evaporation of irrigated water leaving salts behind.

Use flood irrigation frequently.

Plant water-intensive crops.

Apply water at night to reduce evaporation.

Increase the use of chemical fertilizers.

Flood

Drip

Furrow

Spray

The accumulation of salts in soil over time

The addition of organic matter to the soil which increases sodium chloride

The process by which soil becomes acidic due to excess salts

The erosion of topsoil layers

Planting cover crops

Planting deep-rooted trees

Excessive rainfall

Improper irrigation practices

The process of a desert becoming a forest

The degradation of arable land

The creation of artificial deserts for tourism

The accumulation of sand in an area

Overgrazing by livestock

Soil erosion

Heavy snowfall

Soil salinization

Reduction in plant germination and growth.

Increase in beneficial soil bacteria.

Increase in water retention.

Enhanced growth of all crops.

No-till and drip irrigation.

Over-extraction of groundwater.

Intensive tilling of soil

Continuous monoculture farming.

It reverses the process of desertification.

It has no effect on desertification.

It decreases the chances of desertification.

It can exacerbate the conditions leading to desertification.

Spray irrigation

Flood irrigation

Drip irrigation

Furrow irrigation

Plant crops that are sensitive to salts.

Drip irrigation

Buy a new field without salt contamination.

Flush soil with a large amount of fresh water

Plant crops that have tolerance for salt.

Plant crops that are out of the range of tolerance for salt.

Plant legumes that absorb salts from the soil.

Plant crops that are sensitive to salts

Pests may develop resistance, leading to the "pesticide treadmill."

Pests are likely to become more susceptible to the same pesticides.

Crop yields will consistently increase without any negative side effects.

There is a significant increase in the genetic diversity of pest organisms.

By increasing the dependency on manual labor.

By promoting the growth of all insect species.

By ensuring that no artificial selection occurs among pests.

By reducing crop damage and increasing yields.

A situation where continuous use of pesticides is needed to maintain control of pest populations.

A practice of using lower amounts of pesticides each year.

A method of rotating different pesticides to maintain their effectiveness.

A system where pesticides are used to increase the speed of crop growth.

They contribute to a greater use of chemical pesticides.

They prevent any cross-contamination between GM and non-GM fields.

They can grow more food per hectare and often have enhanced nutritional profiles.

They increase the genetic diversity of crops and the biodiversity of beneficial insects.

They can promote monoculture and reduce the genetic diversity of crops.

They do not ensure that crops are completely free from any diseases.

They lead to a decrease in food production per hectare.

They are disease-prone and reduce the vitamins available in food.

They can produce higher yields per hectare.

They enhance the genetic diversity of plant pests.

They use more organic pesticides than traditional crops.

They increase the microbial content of the soil.

It can potentially lead to a decrease in nutritional deficiencies in populations.

It eliminates the need for any other types of food in a diet.

It increases the crops' resistance to all types of mechanical damage.

It ensures that the crops will not require water to grow.

Always require more water than non-GM crops.

Contribute to increased genetic diversity in farming systems.

Can accidently pollinate and contaminate traditional varieties of crops.

Are unable to grow in areas where traditional crops are planted.

It promotes the development of new crop varieties.

It ensures that crops are more adaptable to changing environmental conditions.

It can lead to crops being more vulnerable to diseases and pests.

It increases the variety of crops available for cultivation.

By potentially contaminating them, leading to unwanted hybrid crops.

By enhancing the resistance of non-GM crops to pests and diseases.

By decreasing the soil fertility in adjacent fields which leads to fertilizer runoff.

By increasing the biodiversity in those fields.

genetically engineered organisms are used.

the biological control agent is altered by breeding with crop plants.

the biological control agent becomes invasive and affects nontarget species.

agricultural crops crossbreed with local vegetation.

Synthetic fertilizers

Eutrophication in surface water

Methane emissions from CAFOs

Colony Collapse Disorder

Broad-spectrum pesticides

Insecticidal soap and toxic plant derivatives

Chlorinated Hydrocarbons

Herbicides such as Round-up

Spacious environments where animals are free to graze and reproduce.

Small-scale operations that primarily focus on animal welfare and ethical slaughter.

Large, crowded facilities designed to rapidly fatten livestock for slaughter.

Systems that use no grain feed and only natural grasses.

They produce meat with a higher nutritional value and less ecological impact.

They reduce the potential for surface water, groundwater, and soil pollution.

They require more land than free-range grazing.

They are more cost-effective and increase production efficiency.

Are kept in confined spaces with limited movement.

Are fed a diet high in grains and antibiotics to promote rapid growth.

Are allowed to roam and feed on grass throughout their lifecycle.

Contribute significantly to ground and surface water contamination.

Improved animal welfare and health and cage-free livestock.

The development of antibiotic-resistant bacteria.

Decreased costs in meat production.

Enhanced bacterial resistance in humans that consume the meat.

Developed countries with high incomes.

Island nations with limited agricultural land, but a high amount of CAFOs.

Countries where vegetarianism is the cultural norm.

Predominantly underdeveloped countries with agrarian societies.

It takes approximately 20 times more land to produce calories from meat than from plants.

Meat production is about 20 times more land-efficient than agriculture.

They are equally efficient in terms of land and water use.

Meat production requires less land but more water.

More efficient water usage and conservation.

Loss of vegetation and soil erosion.

Enhanced carbon sequestration in the soil.

Increased soil fertility and biodiversity.

The loss of productivity of soil.

The decrease of eutrophication in surface water.

An increase in the land's ability to hold water.

The loss of new water sources.

Higher CO₂, methane, and N₂O emissions.

Increased use of antibiotics and growth hormones.

More land being required for agriculture and water diversion projects.

Decreased greenhouse gas emissions and water conservation.

Higher in antibiotics and growth hormones.

Less expensive for consumers.

Lower in antibiotics and other chemicals.

Lower in nutritional value.

It leads to a higher concentration of organic waste.

It requires larger areas of land, making the meat more expensive.

The meat produced is often less expensive for consumers.

It decreases the land available for agriculture.

It reduces the overall carbon footprint of the operation.

It can act as a natural fertilizer with no negative effects.

It is always safely processed and used as biofuel.

It can contaminate ground and surface water.

It acts as a natural fertilizer for the land.

It is often collected and sold as a separate commercial product.

It has no significant impact on the environment.

It contributes to air pollution at a higher level than CAFOs.

By increasing the need for tilling and soil aeration.

By reducing soil erosion and conserving soil quality.

By necessitating the use of more synthetic fertilizers.

By promoting the use of more pesticides and herbicides.

An artificial wetland designed to filter waste from free-range livestock.

A natural pond where animals can drink water.

A treatment facility for animal waste to be converted into organic fertilizer.

A constructed pit or pond where animal waste from CAFOs is stored.

It can reduce the methane emissions from animal waste.

If it fails, it can lead to contamination of surface and groundwater.

It can attract wildlife and increase biodiversity.

It typically filters out pathogens, making nearby water safer.

Animals consume greenhouse gases, reducing their concentration in the atmosphere.

By reducing the need for fossil fuels in transportation.

Livestock, especially cattle, produce methane, a potent greenhouse gas.

By sequestering carbon dioxide and increasing oxygen levels.

Meat consumption will decrease as countries adopt more sustainable practices.

Meat consumption will increase as countries become wealthier.

Meat consumption is predicted to remain the same regardless of development.

There will be a shift from meat consumption to plant-based diets globally.

Because they consume natural grasses, which lead to lower methane production.

Free-range animals are genetically modified to produce less methane.

Because they are less active and therefore have slower digestive processes.

Because they are given a diet high in methane-reducing additives.

It reduces the use of fertilizers and pesticides in agriculture which increases greenhouse gases.

The production process burns fossil fuels, contributing to climate change.

It has no significant environmental impact.

It leads to increased absorption of greenhouse gases.

It encourages the growth of more forests to offset the carbon footprint.

Transporting animals and meat burns fossil fuels, contributing to global warming.

It has a cooling effect on the planet due to increased airflow.

It significantly reduces greenhouse gas emissions due to efficient logistics.

Increased populations of marine mammals.

Enhanced water quality in oceans.

Lessened biodiversity in aquatic systems.

An increase in the number of fish species.

It decreases the population of organisms lower on the food chain only.

It can lead to an overpopulation of fish higher up in the food chain only.

It can disrupt the balance, affecting both higher and lower levels of the food chain.

It stabilizes the population of fish at all levels of the food chain.

A decrease in money and jobs related to fishing.

Immediate collapse of local fishing economies.

An increase in money and jobs related to fishing.

No significant change in the fishing industry.

Unintended catch that is often discarded.

Fish that are caught and released for conservation purposes.

The intended catch that is sought after by fishermen.

The most profitable catch in commercial fishing.

Sustainable aquaculture practices.

Spearfishing by individual divers.

Line fishing in shallow waters.

Bottom-trawling for benthic species.

It selectively targets the most abundant fish species.

It avoids disturbing the seabed and marine habitats.

It increases the survival rate of bycatch when thrown back into the ocean.

It scrapes the seabed, destroying habitats and resulting in high bycatch.

The international cooperation in maintaining fish populations.

How communal fishing grounds are sustainably managed by all.

The ability of the ocean to replenish fish stocks quickly regardless of fishing rates.

The overexploitation of ocean resources due to lack of regulation.

Helps prevent overfishing by regulating the trade of endangered species.

Focuses only on the conservation of terrestrial wildlife.

Encourages unlimited trade of all marine species.

Prohibits any kind of fishing activity internationally which protects invasive species.

By avoiding all seafood, including sustainably sourced options.

By consuming only bycatch species.

By increasing their consumption of high-demand fish species.

By choosing seafood that is certified as sustainable.

Promoting the use of bottom trawling and drift nets.

Setting quotas and size limits on catches.

Removing all restrictions on fishing methods.

Encouraging more energy efficient industrial fishing techniques.

Fisher people in the region see an increase in their income.

Fishing becomes an easier and more reliable occupation.

There is a temporary increase in the availability of fish.

Fisher people may lose jobs and income.

It ensures a stable food supply for marine mammals.

It decreases the population size due to a reduction in food availability.

It allows marine mammals to diversify their diet.

It has no impact as marine mammals are not part of the food web.

It ensures a balanced and sustainable ecosystem.

It decreases the demand for fishing which provides more jobs for fisheries.

It leads to an increase in the population of top predators which consume more producers.

It can cause an imbalance by increasing the population of lower food chain species.

Random selection of any available seafood.

Selecting only the most popular and demanded fish species.

The Monterey Bay Aquarium's Seafood Watch or similar programs.

Choosing the least expensive seafood options.