Degrowth: Difference between revisions

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These metrics can be used to track changes over time and to compare the environmental impact of different regions and sectors. By monitoring these metrics, it is possible to identify areas where improvements can be made to reduce the environmental impact of human activities and to promote a more sustainable society.
These metrics can be used to track changes over time and to compare the environmental impact of different regions and sectors. By monitoring these metrics, it is possible to identify areas where improvements can be made to reduce the environmental impact of human activities and to promote a more sustainable society.
=if there is an ambitious target of zero new extinctions, how can this be measured and how can this metric be communicated to communities?=
The target of zero new extinctions can be measured using a combination of ecological and conservation metrics. Here are some examples:
Red List Index: The Red List Index is a measure of the trend in the extinction risk of a group of species. It takes into account the population size, range, and trends in population and habitat loss. A zero new extinction target could be measured by tracking the change in the Red List Index over time, with the goal of achieving a stable or increasing trend.
Protected Area Coverage: Protected areas are areas of land or sea that are managed for conservation purposes. The extent and effectiveness of protected areas can be measured using metrics such as the percentage of land or sea protected, the level of management and enforcement, and the presence of key species and habitats. A zero new extinction target could be measured by tracking the increase in the coverage and effectiveness of protected areas, with the goal of protecting the habitats of all threatened species.
Habitat Restoration: Habitat restoration involves the restoration of degraded or destroyed ecosystems. The success of habitat restoration can be measured using metrics such as the area restored, the increase in biodiversity and ecosystem function, and the sustainability of the restored ecosystem. A zero new extinction target could be measured by tracking the increase in the area and effectiveness of habitat restoration, with the goal of restoring the habitats of all threatened species.
To communicate this metric to communities, it is important to make it accessible and relevant to the local context. This can be done by using visual aids such as graphs, maps, and infographics to illustrate the trends and progress towards the target. It is also important to engage with local stakeholders such as conservation groups, community organizations, and indigenous communities to ensure that their perspectives and priorities are taken into account in the monitoring and reporting of progress towards the target. Finally, it is important to celebrate successes and milestones along the way to build momentum and encourage continued action towards the goal of zero new extinctions.

Revision as of 20:20, 13 May 2023

what are the best strategies for managing degrowth in societies and globally?

Degrowth is a socio-economic concept that challenges the traditional model of economic growth and proposes a more sustainable and equitable society. Managing degrowth requires a fundamental shift in the way societies operate, including changes in production and consumption patterns, social norms, and governance structures. Here are some strategies that can be implemented to manage degrowth at the societal and global levels:

Reducing Resource Consumption: Societies can reduce their overall resource consumption by adopting more sustainable production and consumption patterns. This can include promoting circular economy principles, reducing waste and emissions, and investing in renewable energy sources.

Reducing Inequality: Degrowth proposes a more equitable society, which requires reducing inequality between different social groups. This can be achieved by implementing progressive taxation, increasing access to education and healthcare, and promoting worker cooperatives and community-led initiatives.

Promoting Local Economies: Degrowth emphasizes the importance of local economies that prioritize social and environmental well-being over economic growth. This can include promoting local food systems, supporting small businesses and cooperatives, and reducing the dependency on global supply chains.

Redefining Work: Degrowth challenges the notion that economic growth is directly linked to employment and proposes redefining work to include activities that promote social and environmental well-being, such as care work, education, and community building.

Implementing Policy Changes: Policy changes are crucial for managing degrowth at both the societal and global levels. This can include implementing regulations and incentives that promote sustainable behavior, reducing subsidies to industries that contribute to resource depletion and pollution, and investing in public goods and services that prioritize social and environmental well-being.

It's important to note that managing degrowth is a complex process that requires the involvement and participation of multiple stakeholders, including governments, businesses, communities, and individuals. Success will depend on a holistic and collaborative approach that prioritizes social and environmental well-being over economic growth.


how can IoT sensors be used by societies to manage degrowth?

IoT (Internet of Things) sensors can play a crucial role in managing degrowth by enabling societies to gather real-time data on resource consumption and waste production. By collecting and analyzing this data, societies can identify areas where they can reduce their consumption and waste, leading to more sustainable and efficient resource use.

Here are some ways in which IoT sensors can be used to manage degrowth:

Energy Management: IoT sensors can be used to monitor energy consumption in buildings, factories, and homes. By analyzing this data, societies can identify areas where energy use can be reduced, such as turning off lights when not in use or optimizing heating and cooling systems.

Water Management: IoT sensors can also be used to monitor water usage and identify areas where water can be conserved, such as reducing leaks or optimizing irrigation systems.

Waste Management: IoT sensors can be used to monitor waste production and disposal, allowing societies to identify areas where waste can be reduced, such as implementing recycling programs or composting food waste.

Transportation: IoT sensors can be used to monitor and optimize transportation systems, such as reducing the number of vehicles on the road or optimizing public transportation routes.

Overall, by using IoT sensors to gather data on resource consumption and waste production, societies can make more informed decisions about how to manage degrowth and promote sustainability. However, it's important to note that technology alone is not enough to manage degrowth. It also requires social and cultural changes, as well as policy and regulatory frameworks that incentivize sustainable behavior.

how is energy consumption related to degrowth? will total energy consumption need to decline too?

Energy consumption is closely related to degrowth because it is one of the primary drivers of economic growth and environmental degradation. As societies consume more energy, they also generate more waste and emissions, leading to climate change and other environmental crises. Therefore, managing energy consumption is a key aspect of managing degrowth.

In a degrowth society, total energy consumption would need to decline because the current model of economic growth is based on continuous increases in energy consumption. This model is not sustainable because it relies on finite resources and causes significant environmental damage. Therefore, a degrowth society would need to transition to a model that prioritizes the efficient use of renewable energy sources and reduces overall energy consumption.

However, this does not necessarily mean that individuals and communities would need to give up their access to basic energy services such as heating, lighting, and transportation. Rather, it means that societies would need to adopt a more sustainable and equitable approach to energy consumption that prioritizes the needs of people and the environment over the demands of economic growth.

Some strategies that can be used to manage energy consumption in a degrowth society include improving energy efficiency, investing in renewable energy sources, reducing reliance on fossil fuels, and promoting local energy production and distribution. Additionally, individuals and communities can contribute to managing energy consumption by adopting sustainable lifestyle choices, such as using public transportation, reducing air travel, and conserving energy at home and work.

if conventional houses are large, does degrowth imply that houses is a degrowth environment will be smaller?

Degrowth implies a transition away from the current model of economic growth, which is based on continuous consumption and expansion. In a degrowth society, the focus is on promoting social and environmental well-being rather than maximizing economic output. Therefore, the size of houses in a degrowth environment would depend on various factors, including the needs of the occupants, the availability of resources, and the environmental impact of the housing.

However, it's important to note that the current trend towards larger houses is unsustainable because it contributes to resource depletion and waste production. Large houses also often require more energy to heat, cool, and maintain, leading to higher energy consumption and emissions.

In a degrowth society, housing would need to be designed to prioritize social and environmental well-being rather than luxury or excess. This could include designing smaller, more efficient houses that make better use of space and resources. Smaller houses can also encourage more community-oriented lifestyles by promoting shared spaces and resources.

However, the focus on house size alone is not sufficient for managing degrowth. Housing is just one aspect of a larger system of production and consumption that needs to be re-evaluated and transformed to promote more sustainable and equitable outcomes. Therefore, a holistic approach to managing degrowth is needed, which takes into account the broader socio-economic and environmental factors that contribute to unsustainable growth.


is a small house is more sustainable than a larger house, then how small does a house need to be to meet the basic needs of a family of 4? how many square meters?

...and what are the advantages of a small house in relation to energy use, resource consumption, waste production?

The size of a house needed to meet the basic needs of a family of four would depend on various factors, including cultural norms, lifestyle choices, and the availability of resources. However, studies have shown that smaller houses can be more sustainable than larger houses because they typically require less energy, materials, and resources to construct and maintain.

In terms of size, a small house that meets the basic needs of a family of four could be anywhere from 50 to 100 square meters, depending on the layout and design of the house. For example, a small house could have an open-plan living area that doubles as a dining and workspace, which can help to reduce the overall footprint of the house. Bedrooms could be designed to be multifunctional, such as using bunk beds or fold-out beds that can be tucked away during the day.

Advantages of a small house in relation to energy use, resource consumption, and waste production include:

Energy Use: Small houses typically require less energy to heat and cool because they have less space to maintain. Additionally, smaller houses are often designed to maximize natural light and ventilation, reducing the need for artificial lighting and air conditioning.

Resource Consumption: Small houses typically require less building materials and construction resources than larger houses. This can help to reduce the overall environmental impact of the house.

Waste Production: Smaller houses can generate less waste because they have less space for unnecessary items and materials. Additionally, a smaller house can encourage a more minimalist and intentional lifestyle, which can help to reduce consumption and waste.

Affordability: A smaller house can be more affordable than a larger house, which can help to reduce the financial burden of homeownership and increase accessibility for a wider range of people.

Overall, a small house can be a more sustainable and affordable option for meeting the basic needs of a family of four. However, it's important to note that the design and layout of the house are crucial for ensuring that it meets the needs of the occupants in a comfortable and functional way. Additionally, managing degrowth requires a systemic shift in the way societies operate, which includes changes in production and consumption patterns, social norms, and governance structures.


A small house (50-100 square meters) also allows for more vegetation and food production on a typical house block (400 square meters).

... How could the landscape be better used to create habitat, increase local food production and reduce stormwater runoff, for example


The landscape of a small house block (400 square meters or less) can be used to create habitat, increase local food production, and reduce stormwater runoff in several ways. Here are a few examples:

Native landscaping: Planting native trees, shrubs, and flowers can create habitat for local wildlife and help to restore ecological balance to the area. Native plants are adapted to the local climate and require less water and maintenance than non-native species, which can help to reduce water consumption and maintenance costs.

Edible landscaping: Incorporating edible plants into the landscape can increase local food production and reduce the need for transportation and packaging of food. Edible landscaping can include fruit trees, berry bushes, and vegetable gardens, which can be incorporated into the design of the landscape to create an aesthetically pleasing and functional space.

Rain gardens: Creating a rain garden can help to reduce stormwater runoff and improve water quality. A rain garden is a landscaped area that collects and filters rainwater runoff from roofs, driveways, and other impervious surfaces. The rain garden can be planted with native plants that can tolerate wet and dry conditions, providing additional habitat and ecological benefits.

Green roofs and walls: Installing a green roof or wall can help to reduce energy consumption, improve air quality, and provide additional habitat. Green roofs and walls are covered with vegetation, which can help to insulate the house and reduce the heat island effect in urban areas.

Composting: Composting can help to reduce waste production and provide nutrient-rich soil for plants. A compost bin can be placed in the landscape to collect food scraps and yard waste, which can be used to fertilize plants and improve soil health.

By incorporating these landscape strategies into a small house block, it is possible to create a more sustainable and functional living space that benefits both the occupants and the environment. Additionally, these strategies can help to promote a more resilient and self-sufficient community by increasing local food production and reducing the reliance on external resources.

what metrics can easily be used to show that today's society is in overshoot and environmental resources are being depleted and that the natural environment cannot assimilate current pollution loads

There are several metrics that can be used to show that today's society is in overshoot and that the natural environment cannot assimilate current pollution loads. Here are some examples:

Ecological Footprint: The Ecological Footprint is a measure of the amount of land and water needed to produce the resources that people consume and absorb the waste that people produce. If the Ecological Footprint exceeds the biocapacity of the planet, it indicates that society is in overshoot and is depleting natural resources.

Carbon Footprint: The Carbon Footprint is a measure of the greenhouse gas emissions generated by human activities. If the Carbon Footprint exceeds the capacity of the planet to absorb and sequester carbon, it contributes to climate change and indicates that society is in overshoot.

Biodiversity Loss: Biodiversity loss is a measure of the decline in the number and variety of plant and animal species. If biodiversity loss exceeds natural rates of extinction, it indicates that society is depleting natural resources and contributing to ecological imbalance.

Water Scarcity: Water scarcity is a measure of the availability of freshwater resources. If the demand for freshwater exceeds the available supply, it indicates that society is depleting natural resources and contributing to water stress.

Air Quality: Air quality is a measure of the concentration of pollutants in the atmosphere. If the concentration of pollutants exceeds natural levels, it indicates that society is polluting the environment and contributing to air pollution.

These metrics can be used to track changes over time and to compare the environmental impact of different regions and sectors. By monitoring these metrics, it is possible to identify areas where improvements can be made to reduce the environmental impact of human activities and to promote a more sustainable society.

if there is an ambitious target of zero new extinctions, how can this be measured and how can this metric be communicated to communities?

The target of zero new extinctions can be measured using a combination of ecological and conservation metrics. Here are some examples:

Red List Index: The Red List Index is a measure of the trend in the extinction risk of a group of species. It takes into account the population size, range, and trends in population and habitat loss. A zero new extinction target could be measured by tracking the change in the Red List Index over time, with the goal of achieving a stable or increasing trend.

Protected Area Coverage: Protected areas are areas of land or sea that are managed for conservation purposes. The extent and effectiveness of protected areas can be measured using metrics such as the percentage of land or sea protected, the level of management and enforcement, and the presence of key species and habitats. A zero new extinction target could be measured by tracking the increase in the coverage and effectiveness of protected areas, with the goal of protecting the habitats of all threatened species.

Habitat Restoration: Habitat restoration involves the restoration of degraded or destroyed ecosystems. The success of habitat restoration can be measured using metrics such as the area restored, the increase in biodiversity and ecosystem function, and the sustainability of the restored ecosystem. A zero new extinction target could be measured by tracking the increase in the area and effectiveness of habitat restoration, with the goal of restoring the habitats of all threatened species.

To communicate this metric to communities, it is important to make it accessible and relevant to the local context. This can be done by using visual aids such as graphs, maps, and infographics to illustrate the trends and progress towards the target. It is also important to engage with local stakeholders such as conservation groups, community organizations, and indigenous communities to ensure that their perspectives and priorities are taken into account in the monitoring and reporting of progress towards the target. Finally, it is important to celebrate successes and milestones along the way to build momentum and encourage continued action towards the goal of zero new extinctions.