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What is the NAP assessment at COP29 and why does it matter?

Climate change adaptation is becoming a key strategy for countries around the world, especially as global temperatures continue to rise. They were created to achieve this goal national adaptation plans (NAP) , which help countries strengthen their resilience and systematically prepare for the consequences of territorial changes. At the 29th Conference of the Parties to the United Nations Framework Convention on Climate Change (COP29), which is being held in Baku, Azerbaijan, one of the main agenda items will be the progress of the NAP process. This process and its assessment are of fundamental importance for accelerating adaptation to climate change and mobilizing the necessary resources for the country, which is most vulnerable to the effects of the climate crisis.


What is the NAP process?

National Adaptation Plans (NAPs) were created within the framework of the United Nations Framework Convention on Climate Change (UNFCCC) in 2010. The main objective of the NAP is to help countries plan and integrate adaptation measures into their national policies and development strategies. they have become a fixed part of decision-making, planning and financing.

Since its inception, the NAP process has undergone considerable development, including the preparation of technical guidelines, capacity building and the opening of special financial instruments to support the development of countries. Supporting initiatives such as NAP Global Network , provide technical assistance and knowledge sharing to help improve the NAP process and help countries move from planning to implementation.


The significance of the NAP assessment at COP29

At the COP26 conference, countries agreed that the evaluation of the NAP process should be completed at COP29. This assessment is an important opportunity for:

  • Knowing the importance of adaptation and the NAP process : Adaptation focuses on preventing the impacts of climate change before its greatest consequences are felt. Evaluation at COP29 to draw attention to the importance of adaptation measures as a basic step in climate policy.
  • Appreciation of the adaptation contexts of developing countries : Developing countries are particularly vulnerable to climate change. However, they are making important progress in adaptation despite limited resources, so it is important to recognize their efforts and disseminate their successes and best practices.
  • Highlighting challenges and needs : The evaluation of the NAP will make it possible to identify obstacles that complicate the effective introduction of adaptation measures. Developing countries face a lack of resources and technical support, which limits their ability to respond to the climate crisis.
  • Providing recommendations for the future : The NAP process is not static – it is a dynamic plan that adapts to needs and experience. The assessment can provide recommendations for improving and scaling up adaptation measures, including financing strategies, and help countries move from planning to implementation.

Current status of the NAP process

In 2015 and 2018, countries faced the task of assessing the progress of the NAP process, as many countries had only just started implementation and the lack of available information. Today, the situation is significantly different – as of November 1, 2024, the NAP has already submitted its documents 59 developing countries and more than 140 countries the NAP process has begun. This significant progress proves that the country is adapting seriously and at the same time that it is sufficiently evaluated which are working best and which areas require further support.

It is important for the country that I gain insight into what is preventing them from adapting more effectively. The COP29 conference offers an opportunity to jointly evaluate results, find where there are gaps and determine priorities for the next period.


Evaluation results: What should the final decision contain?

The final decision on the evaluation of the NAPs at COP29 should be fair and truly balanced, considering their efforts to adapt to climate change. This decision should:

  1. Recognize the adaptation efforts of developing countries over the past decade, particularly the progress it has made despite various obstacles.
  2. Highlight key challenges and needs in the NAP process, including the lack of technical capacity, financial resources and geographical differences in adaptation that make faster implementation difficult.
  3. Signal the urgent need to speed up adaptation measures and transition of countries from planning to implementation of important projects. The NAP process must be inclusive and fair so that no one is left behind, and should also include principles such as gender equality and social inclusion.
  4. Provide recommendations for improving adaptation financing : COP29 will have a strong focus on NAP financing and evaluation by reflecting the current challenges of developing countries in gaining access to adaptation finance.
  5. Focus on exchanging best practices and successful cases of adaptation , which can serve as a model for other countries. Support networks, such as the Global NAP Network, can help leverage best practices and provide countries with better tools for effective adaptation.

Why does the NAP evaluation at COP29 matter?

It is necessary to prepare the evaluation of the NAP at COP29, to improve the effective implementation of national adaptation plans. Adaptation is the only way to reduce countries' vulnerability to climate change and their resilience. While the Paris Agreement aims to mitigate environmental change, adaptation is equally important for countries to manage the impacts they are already experiencing.

This assessment will also provide insight into what is working and what needs to be improved in order for the country to move from planning to implementation. The need to move from strategies to the actual project is more important today than before. COP29 is thus an opportunity to strengthen this commitment and motivate countries to take further steps in the fight against climate change.


Conclusion

The evaluation of the NAP process at COP29 in Baku is a key step to accelerate adaptation measures worldwide. Although the country has made progress in adaptation planning in recent years, implementation itself remains slow and uneven. The final decision of COP29 must provide clear direction to countries on how to use barriers and increase funding to make the transition from planning to implementation as beneficial and efficient as possible.

Adaptation to climate change is key to a sustainable future, and the evaluation of the NAP process will provide a country with important insight that will not only help me manage climate challenges, but also the resilience and prosperity of their societies. Spring

2024: The hottest year on record and a new milestone in global warming

the year 2024 will become the warmest year in the history of measurements, which go back to 1940. After only 10 months, it is virtually certain that this year will break all previous records for average global temperature. The data comes as country representatives are at the 29th UN Conference on Climate Change (COP29) to be held in Baku, Azerbaijan. The new temperature record serves as both a further warning and a catalyst to encourage world leaders to take the final steps in the fight against climate change.


Temperature records in 2024: 1.5°C above pre-industrial levels

According to ERA5 data, the global average surface temperature in October 2024 was 15.25 °C , which is about 0.80 °C more than the average for October between 1991 and 2002. This temperature record also represents an increase of 1.65 °C above pre-industrial only , which is the threshold value set by the Paris Agreement as the maximum limit for maintaining climate stability. October 2024 was already the 15th month in the last 16 months when temperatures exceeded the limit 1.5 °C above pre-industrial values .

Samantha Burgess, Deputy Director of the Copernicus Climate Change Service (C3S), said: "After 10 months of 2024, it is now virtually certain to be the warmest year on record and the first year with an average increase of more than 1.5°C above pre-industrial levels."


Projected global temperature in 2024: The largest anomaly on record

According to ERA5 data, the global average temperature in 2024 is likely to reach 1.55 °C above pre-industrial levels , which is a significant increase from 2023 when the global temperature was level 1.48 °C . In order for 2024 not to eventually surpass the temperature records of 2023, the average temperature anomaly would have to hold for two months and dramatically decrease to almost zero, which is highly unlikely.

Global and European temperature anomalies: October 2024 was exceptionally warm

Data from ERA5 show that October 2024 was the second warmest October in the world after October 2023. In Europe, the average surface temperature 10.83 °C , which is by 1.23 °C more as the average average value for October from 1991–2022. This is the fifth warmest October on record, with the warmest October recorded in 2022, when the temperature exceeded average values by up to 1.92 °C .


Global warming trends and challenges at the COP29 conference

The latest data shows a continuing trend of clear global warming, which is in direct conflict with the goals of the Paris Agreement. The goal of keeping global warming below 1.5°C above pre-industrial levels is getting further and further away. This record year therefore serves as a warning and challenge to countries at COP29 to make equivalent commitments and concrete actions in reducing greenhouse gas emissions, renewable energy sources and protecting ecosystems that help absorb carbon from the atmosphere.

Key actions they expect at COP29 include:

  • Determination of future liabilities in the area of reducing emissions at the national level,
  • increase in financial support for developing countries facing the greatest impact of climate change,
  • support of renewable energy projects and energy efficiency,
  • protection of forests and nature reserves as natural carbon reservoirs.

The year 2024 as a warning signal and a catalyst for future steps

The record temperatures we see in 2024 reveal the urgency of addressing the climate crisis. Experts and country representatives must achieve COP29 measures that will keep the critical temperature below the threshold. As the temperature of action continues to rise and the intensity of extreme climate events increases, it may become increasingly clear that without consistent and immediate action, the consequences of global warming are irreversible.

The year 2024 can thus be seen as a milestone that needs quick and correct measures to protect the planet and mitigate the effects of climate change on the next generation. Spring

Investments in climate change education and infrastructure in Europe and Central Asia

Climate change threatens all of humanity. But for children it is existential. A child born today is likely to live another 70 years or more, a period in which – without significant climate action – Europe and Central Asia will experience more heat, fires, floods, deteriorating water quality and air pollution. 

However, for society and the economy in general, the consequences of climate change go beyond that. Children's bodies and brains are much more vulnerable to the effects of climate change than adults. They also threaten children's physical and mental development in the long term – undermining their ability to reach their full potential as productive, problem-solving members of society. And this damage is already happening: in Europe and Central Asia, more than 100 million children are currently feeling the effects of climate change.

This means that the cost of inaction is huge. It also means that taking action now will reap financial rewards – now and far into the future. One of the most important ways to solve this crisis and ensure children's ability to contribute to society and the economy in both the short and long term is education. (More on unicef.org)

Estimated carbon footprint of Audi Q8 SUV production: Distribution of emissions and their impact on the environment

SUV models are becoming more and more popular, but their environmental impact is a matter of debate due to their fuel consumption and emissions during production. The Audi Q8, a luxury SUV, is a car with advanced technology and high performance, but its production and operation has its own carbon footprint. Let's look at the individual stages of the production of this vehicle and how many species of animals (CO₂) are released into the atmosphere during them.


1. Factory and energy costs for production

The production process of a vehicle such as the Audi Q8 includes parts production, assembly and finalization. When manufacturing a car, energy is consumed in several stages, including forging, welding, painting and testing.

  • Estimated CO₂ emissions for energy production for factories : The Audi Q8 is produced in a factory in Bratislava, where electricity and heat are used. more CO₂ emissions for the factory are estimated at 2-4 tons of CO₂ per vehicle depending on the energy resources and efficiency of the factory.

2. Production of raw materials and components

The Audi Q8 SUV model is made of various materials, including steel, aluminum, plastics, rubber and leather, the production of which has a significant environmental impact.

  • Steel and aluminum : Steel and aluminum are energy-intensive materials. Steel production per vehicle produces approx 1.8 tons of CO₂ , while aluminum production contributes to the carbon footprint around 1.5-2 tons of CO₂ .
  • Plastics and polymers : Plastics used for interior and exterior parts of the vehicle add to the carbon footprint around 0.6 tons of CO₂ .
  • Rubber (tyres) : The production of four tires generates approx 0.3 tons of CO₂ .
  • Leather and other materials for the interior : The use of leather, fabrics and other luxury materials such as wood and metal elements generates approx 0.2 tons of CO₂ .
  • Total emissions for the production of materials and components : 4.4-5 tons of CO₂

3. Transport of raw materials and components

Components and materials are brought to the factory in Bratislava from various parts of the world, which contributes to the emission footprint. Freight transport includes shipping, rail and road transport, each of which has its own environmental impact.

  • more emissions from the transport of raw materials and components : To transport the necessary materials to produce one Audi Q8, it is estimated approx 0.5 – 1 ton of CO₂ .

4. Varnishing and surface treatment

Vehicle painting, protective layers and treatment are demanding on the surface and chemical substances that can have an impact on the environment. The process involves the application of multiple layers of paint and varnish, which increases emissions.

  • Emissions from painting and surface treatment : Painting one vehicle can contribute to the emission footprint of approx 0.6 – 1.2 tons of CO₂ .

5. Logistics of finished vehicles

After production is completed, the finished Audi Q8 is transported to dealers or directly to end customers around the world. Logistics processes include shipping, air transport, which have a significant impact on the overall carbon footprint of the vehicle.

  • more emissions from the transport of finished vehicles : Transportation of finished cars to sales centers or to end users contributes to the carbon footprint of approx 0.3 – 0.5 tons of CO₂ per vehicle.

6. Operational phase: Fuel consumption during the life cycle

During operation, the Audi Q has a high fuel consumption, which makes it a model with high driving emissions. Fuel consumption and emissions depend on the specific model, drive unit and driving style, we cannot estimate any average values:

  • Fuel consumption : The average fuel consumption of the Audi Q8 is approximately 10 l/100 km (petrol) or 8 l/100 km (diesel).
  • Total emissions during the life cycle (200,000 km) : At estimated emissions 2.4 kg of CO₂ per liter of gasoline or 2.7 kg of CO₂ per liter of diesel represent the total emission approximately 48 tons of CO₂ (petrol) or 43.2 tons of CO₂ (diesel) .

7. Disposal and recycling of the vehicle

After the end of the vehicle's life cycle, it comes to its disposal and recycling, which includes the disposal and processing of individual materials. Some parts, such as aluminum and steel, can be recycled, which partially offsets the emissions associated with the production of new materials.

  • four emissions during disposal and recycling of vehicles : Disposal and recycling of one vehicle contributes to the carbon footprint of approx 0.5 – 0.7 tons of CO₂ .

The total carbon footprint of the production and life cycle of the Audi Q8

Based on the individual phases of production and operation, we can estimate the total carbon footprint of the Audi Q8 throughout its life cycle.

Phase Emissions (in tons of CO₂)
Energy production for the factory 2 – 4
Production of materials and components 4.4-5
Transport of raw materials and components 0.5-1
Painting and finishing 0.6 – 1.2
Logistics of finished vehicles 0.3-0.5
Operation (200,000 km) 43.2 – 48
Disposal and recycling 0.5-0.7
Total issue 51.5 – 60.4

Summary and mitigation

The total carbon footprint of the Audi Q8 over its life cycle amounts to approx 51.5 – 60.4 tons of CO₂ . Of this, the largest share is emissions during the operation of vehicles, which correspond to almost 80 % of the total number of emissions. The higher carbon footprint is due to the size of the vehicle's weight, as well as the fuel consumption typical of vehicles in the SUV category.

Audi and automakers working to reduce these emissions benefits:

  • Electrification : Audi introduces electric and hybrid models that maintain emissions during operation.
  • Sustainable materials : Using recycled and sustainable materials in the interior and exterior.
  • Renewable resources in factories : Transition to energy from renewable sources in plants.
  • Reducing the weight of vehicles : Use of lighter materials such as aluminum alloys and composites, which can improve vehicle manufacturing.

These steps can significantly reduce the carbon footprint of vehicle production and operation, as well as contribute to the automotive industry and the industry's environmental impact.

Reducing the carbon footprint of SUVs and the Audi Q8: Opportunities and challenges

Car manufacturers are facing increasing pressure to reduce the carbon footprint of their products. For large SUVs like the Audi Q8, these challenges are even greater. Below we look at specific measures that car companies, including Audi, are implementing or planning to implement to reduce emissions.

1. Electrification and hybrid technologies

One of the most effective ways to reduce emissions during vehicle operation is electrification. Audi has already expanded its range with fully electric models and plans to transform several of its models into electric hybrid versions in the coming years. In some versions, the Audi Q8 model is also available as a plug-in hybrid, which makes it possible to combine an electric drive with a traditional combustion engine and thereby reduce emissions.

  • Plug-in hybrid version : In an urban environment, such a version can run purely on electricity, temporarily reducing CO₂ emissions to zero if it is charged from renewable sources.
  • Full electric SUV : Audi is developing new all-electric models that can confirm the carbon footprint not only during operation, but also during production if they switch to renewable sources.

2. Increasing production efficiency and switching to green energy

Switching to renewable energy sources in factories is an important step in reducing the overall carbon footprint of production. Audi is already currently working on reducing emissions from factories through energy savings and the use of renewable resources. The factory in Bratislava, where the Q8 models are produced, is part of the program for the introduction of solar energy and green technologies.

  • Renewable energy : Audi invests in the installation of solar panels and other technologies in factories that have a direct impact.
  • Optimization of production processes : Improving production efficiency and reducing waste can also reduce emissions in component manufacturing.

3. Use of recycled and low-emission materials

Car manufacturers, including Audi, are exploring the possibility of using recycled materials that have a lower carbon footprint than newly manufactured materials. In the interior and exterior, it is possible to replace some parts with plastics, composites or other ecological materials.

  • Recycled plastics and textiles : Many automakers are focusing on using recycled plastics and textiles, which reduces emissions with the production of new materials.
  • Responsible purchasing of metals : In the production of aluminum and steel, CO₂ emissions are reduced by introducing more sustainable methods and supply chains that adhere to environmental standards.

4. Development of new carbons with a lower footprint

The transition to electric vehicles brings with it the need for the production of which also has a significant impact on emissions. Audi and other manufacturers are investing in the development of batteries with a lower carbon footprint and recyclable battery technologies.

  • Low impact battery development : Currently researching technologies to produce low environmental burdens that emit over the entire life cycle of the battery.
  • Battery recycling : The sustainability of the component is important, which could be part of recycling, which would allow the new ones to also reduce the extraction of raw materials and reduce the carbon footprint of the residents.

5. Responsible logistics and transport

The transport of both finished vehicles and components has a significant impact on the overall carbon footprint. Audi focuses on efficient transportation methods and the use of low-emission alternatives.

  • Ecological logistics : Audi is trying to reduce emissions during transport by using rail instead of road where possible and exploring the possibility of using electric trucks.
  • Optimization of supply chains : It tries to minimize the distance between suppliers and production plants, thereby reducing emissions during the transport of raw materials.

Audi Q8 and the future of low-emission SUVs

For Audi and car brands, further reducing the carbon footprint is becoming a priority. Electrification, the use of recycled materials, the transition to green energy and the optimization of production processes are part of a strategy that aims to reduce overall vehicle emissions. Models like the Audi Q8 may be available in electric and hybrid versions in the future, which will significantly increase emissions during their operation.

The future of sustainable SUVs depends on how quickly automakers can implement new and sustainable production methods. Audi plans to fundamentally increase the share of electric vehicles and ecological models in its offer in the coming years, thereby responding to the demand for vehicles with a lower environmental impact. The challenge reduces emissions in production and transport, where Audi continues to invest in green energy and responsible production as part of a global effort.

Achieving carbon-neutral production and low-energy vehicles is another goal, but pressure from consumers and legislation is driving Audi and the automakers to focus on innovation and long-term sustainability. Although models like the Audi Q8 have a high carbon footprint today, with the right measures and technological advances, this impact can be significantly reduced in the coming decades. Spring

Carbon footprint in Europe: Ranking of countries by emissions per capita

The carbon footprint, i.e. the amount of carbon dioxide (CO₂) emissions per capita, varies significantly between individual countries in Europe. This measure is an important indicator for understanding the environmental impact of each state, as it takes into account not only industrial emissions, but also emissions from transport, heating and energy consumption in households. In this article, we look at the European countries with the largest and smallest carbon footprints per capita and analyze the factors that contribute to these differences.


1. Luxembourg: 15.3 tonnes of CO₂ per inhabitant

Luxembourg it has the highest carbon footprint per inhabitant in Europe, which is mainly related to the high consumption of fuel and transport. The country has an extensive road system and is among the most economically wealthy countries in the world, leading to high consumption in the transport sector and an energy-intensive lifestyle.

2. Estonia: 13.4 tons of CO₂ per inhabitant

High carbon footprint in Estonia it is mainly caused by dependence on fossil fuels, especially oil shale. Estonia has one of the highest energy emission intensities in Europe, which is also reflected in its high carbon footprint per capita.

3. Iceland: 12.2 tons of CO₂ per inhabitant

Despite that Iceland is known for its use of renewable energy sources, high per capita emissions are caused by its energy-intensive aluminum industry. Although most energy comes from geothermal and hydro sources, aluminum production is a strong source of emissions.

4. Ireland: 10.6 tons of CO₂ per capita

Ireland it has a relatively high carbon footprint per capita due to high emissions from agriculture, especially cattle farming. In addition, the country has high household energy consumption, which further contributes to the overall CO₂ footprint.

5. Czech Republic: 9.9 tons of CO₂ per inhabitant

Czech Republic it also has high emissions per capita, which is mainly due to the use of coal for the production of electricity and heat. Despite the gradual transition to renewable sources, coal remains the dominant energy source, increasing the overall carbon footprint.

6. Germany: 9.1 tons of CO₂ per inhabitant

Germany, as one of the largest economies in Europe, has high emissions due to its industrial production and transport. Although the country is investing in renewables and trying to reduce its dependence on coal, the transition is difficult and per capita emissions are still relatively high.

7. Poland: 8.9 tons of CO₂ per inhabitant

IN Poland coal is the main source of energy, especially in the energy sector. Although the government supports the transition to renewable sources, coal remains an important part of Polish energy, leading to high emissions per capita.

8. Slovakia: 7.4 tons of CO₂ per inhabitant

Slovakia is placed in the middle part of the ranking. A significant part of the carbon footprint is made up of industrial emissions and emissions from transport. Slovakia is gradually switching to renewable sources, especially through projects in the field of solar and wind energy, but this is not yet enough to significantly reduce total emissions.

9. Italy: 5.9 tons of CO₂ per inhabitant

IN Italy per capita emissions are relatively lower, thanks in part to the widespread use of renewable resources such as solar and hydropower. In addition, favorable climatic conditions reduce the need for heating, which contributes to a lower carbon footprint.

10. Sweden: 4.2 tons of CO₂ per capita

Sweden it is among the countries with the lowest carbon footprint per capita due to the intensive use of renewable energy sources such as hydro and wind power. At the same time, the country invests in sustainable agriculture and supports ecological transport.

11. France: 4.0 tons of CO₂ per capita

France it has a relatively low carbon footprint due to its dependence on nuclear power, which does not produce direct CO₂ emissions. In addition, the country promotes low-emission technologies in transport and industry, which further contributes to lower emissions per capita.

12. Portugal: 3.9 tons of CO₂ per capita

IN Portugal per capita emissions are low thanks to the use of renewable energy sources, especially wind and sun. Also, a mild climate means lower energy consumption for heating, which is reflected in a lower carbon footprint.

13. Austria: 3.7 tons of CO₂ per inhabitant

Austria it uses a large proportion of renewable resources, especially hydropower, and implements environmental initiatives such as the promotion of public transport and cycling. These measures help reduce total emissions per capita.

14. Denmark: 3.3 tons of CO₂ per capita

IN Denmark the carbon footprint per inhabitant is relatively low thanks to the intensive use of wind energy and the introduction of sustainable transport. Denmark is a leader in renewable energy and is implementing measures that further reduce emissions.

15. Malta: 2.6 tons of CO₂ per inhabitant

Malta it has one of the lowest carbon footprints in Europe, mainly due to its small area and limited industrial activity. In addition, the country is gradually introducing renewable energy sources, especially solar panels.

16. Norway: 2.5 tons of CO₂ per capita

Despite that Norway it is a large producer of oil, has low emissions per inhabitant thanks to the intensive use of hydropower plants and the introduction of electric cars. The government strongly supports sustainable technologies, which significantly reduce overall emissions.

Conclusion: Challenges and opportunities for reducing emissions in Europe

European countries differ in their per capita carbon footprint depending on their economic structure, energy sources and climate conditions. Countries with high emissions, such as Luxembourg, Estonia and Iceland, can be inspired by the success of countries with lower emissions, such as Norway, Denmark or Sweden, which use renewable resources and promote sustainable transport. If Europe wants to move closer to the goal of carbon neutrality, it will be necessary for all countries to increase their efforts and investments in green technologies, emission reduction and sustainable development. Spring

 

Traditional goulash - A recipe with a carbon footprint

Goulash is a hearty and tasty dish that has become a favorite part of Central European cuisine. In addition to the fact that goulash pleases our taste buds, we can also think about its carbon footprint when preparing it. Each ingredient has its own environmental impact, so we will look at what carbon dioxide (CO₂) emissions are produced when preparing a traditional goulash for approximately 6-8 people. This recipe will offer you not only excellent taste, but also an overview of how we can responsibly reduce the impact of our diet on the environment.


Ingredients:

  • 800 g of beef (ideally from the cliche or shoulder)
  • 3 tablespoons of oil or lard
  • 3 large onions, finely chopped
  • 3 cloves of garlic, cut into slices
  • 1 red pepper (optional, diced)
  • 1-2 carrots (optional, cut into rounds)
  • 1 spoon of ground sweet pepper
  • 1/2 teaspoon ground smoked paprika (optional)
  • 1 teaspoon ground cumin
  • 1 spoonful of tomato puree
  • 1 liter of beef broth (or water if you don't have broth)
  • 1-2 bay leaves
  • Salt and black pepper according to taste
  • Fresh parsley for decoration (optional)
  • A slice of bread or a roll for serving

Procedure:

  1. Preparation of meat and onions: Cut the beef into cubes, chop the onions and fry them until golden on a medium flame.
  2. Frying the meat and adding spices: Add the meat, spices and tomato puree. Stir.
  3. Cooking with broth: Add beef broth, bay leaf and reduce heat. Cook for approx 1.5-2 hours.
  4. Serving: Serve the goulash warm, garnished with parsley.

Carbon footprint of goulash

Every food has its own carbon footprint, which varies according to the type and method of production. Here are the carbon emissions estimates (in kg CO₂e) of the individual ingredients used in this recipe, along with their impact on the overall carbon footprint of the goulash.

Ingredient Quantity Carbon footprint per kg (in kg CO₂e) Emissions per recipe (in kg CO₂e)
Beef 800 g 27 21,6
Oil or lard 3 tablespoons (45 g) 3 0,135
Onion 3 pcs (300 g) 0,5 0,15
Garlic 3 pods 1 0,003
Red pepper 1 pc (100 g) 3 0,3
Carrot 1 pc (100 g) 0,25 0,025
Ground paprika 1 tablespoon (10 g) 4 0,04
Caraway seeds 1 teaspoon (2 g) 1,5 0,003
Tomato puree 1 tablespoon (20 g) 2 0,04
Beef broth 1 liter 0,7 0,7
Bread 200 g 1 0,2
Total emissions 23.196 kg CO₂e

Final value

For this traditional goulash, the total carbon footprint is approx 23.2 kg CO₂e. Beef, which is a significant source of emissions, accounts for the largest share of this value. In comparison, the average annual carbon footprint of an individual in the EU is around 8.4 tons of CO₂e, so the preparation of goulash has a relatively large impact, mainly because of the meat component.


Tips for reducing the carbon footprint of goulash

  1. Beef Exchange: The biggest source of emissions is beef. If you replaced it with pork, you would reduce emissions by up to half, or if you chose a mushroom version of goulash, emissions would be even lower.
  2. Location of ingredients: By using local and seasonal ingredients, you can reduce emissions associated with transport. For example, onions, garlic and carrots are often available from local growers.
  3. Plant alternatives: You can try using vegetable oils instead of lard or replace the tomato paste with fresh tomatoes, which will slightly reduce the carbon footprint.
  4. Efficient cooking: Using a pot lid reduces energy consumption during cooking, which has a beneficial effect on emissions.

Conclusion

Goulash is one of the tasty dishes that many of us enjoy. However, even during its preparation, we can take into account the carbon footprint and look for ways to reduce it. By choosing local ingredients, plant-based alternatives or energy-efficient cooking methods, we can contribute to a more environmentally friendly approach while still enjoying the great taste of traditional food. Spring

How to achieve carbon neutrality in a village of up to 1000 inhabitants

Carbon neutrality is a state where the municipality can only take as many measures (CO₂) as it needs to be eliminated or compensated through various measures. Achieving carbon neutrality is an important goal. not in smaller municipalities with less than 1000 inhabitants, this goal is feasible if the whole community is involved in the plan. In the following procedure, we will discuss the specific steps to get closer to the state of carbon neutrality.


1. Evaluation of the current state and calculation of the municipality's carbon footprint

The first step towards carbon neutrality is to understand how much CO₂ emissions the municipality currently uses and from which sources the emissions come.

  • Analysis of emissions : Do a detailed emissions analysis. In a smaller village, the main sources can be household heating, public buildings, transport, waste and electricity consumption.
  • Carbon footprint calculation : Calculate the annual CO₂ emissions for each source. For example, you can calculate home heating emissions based on fuel consumption (wood, coal, natural gas), using conversion factors for CO₂ emissions.
  • Setting goals : Based on the analysis, set a target value for carbon neutrality. Divide the goal into short-term (up to 5 years), medium-term (up to 10 years) and long-term goals (up to 15 to 20 years).

2. Education and community involvement

In order to achieve carbon neutrality, all residents of the village must be involved.

  • Information campaigns : Organize meetings, discussions and workshops for citizens on the benefits and importance of carbon neutrality. simply simple, understandable examples and explanations.
  • Examples of good practice : Show examples of other municipalities that use carbon neutrality. It will support the motivation of residents.
  • Education of children and youth : Collaborate with schools on programs focused on environmental protection and sustainability so that current changes can also be understood.
  • Creating a community group for carbon neutrality : This group can track progress, organize activities and suggest next steps. It should be composed of local volunteers, experts and representatives of the municipality.

3. Transition to renewable energy sources

One of the most effective steps is to replace fossil fuels with renewable energy sources.

  • Installation of solar panels : New solar panels on the roofs of public buildings and households. Solar energy can reduce electricity consumption from non-renewable sources.
  • Use of wind energy : If local conditions allow, consider investing in a small wind turbine. Wind energy is suitable in locations with constant wind.
  • Biomass support : If the village is located in a forested area, you can use biomass as fuel for heating. Biomass boilers can be an alternative for households that used coal or natural gas until now.
  • Use of geothermal energy : If conditions allow, use geothermal energy to heat buildings and heat water. Geothermal heat pumps can significantly reduce energy consumption for heating.

4. Improvement of energy efficiency

Efficient use of energy helps reduce overall consumption and thus CO₂ production.

  • Insulation of buildings : Invest in the insulation of public buildings and support residents to insulate their homes. Insulation can reduce energy consumption for heating by up to 30 %.
  • Replacement of windows and doors : Old windows and doors often let in a lot of heat. In exchange for energy-efficient windows and doors, it is possible to improve the energy balance of buildings.
  • Energetic lighting : Encourage citizens to use energy-saving light bulbs, including switching on LED lighting throughout public spaces.
  • Intelligent management of energy consumption : Introduce intelligent energy management systems in public buildings that regulate heating and lighting as needed.

5. Reduction of emissions from transport

Transport is one of the main sources of emissions in municipalities, and therefore it is important to minimize its impact.

  • Support for bicycle transport and pedestrian zones : Create safe and comfortable bike paths and sidewalks. In this way, you support cycling and pedestrian transport, which is emission-free.
  • Car sharing and public transport support : You can reduce the number of cars in the village by introducing car sharing services or by cooperating with means of transport to manage public transport.
  • Support for electromobility : To a charging station for electric cars and motivate residents to switch to electric cars. The municipality can also invest in electric vehicles to provide services such as municipal waste collection.
  • School and work buses : Provision of a regular bus for children and workers can reduce the number of cars and the total emissions of transport.

6. Reduction, recycling and composting of waste

Waste that ends up in landfills produces greenhouse gases, especially methane, which has a significantly higher warming potential than CO₂.

  • Support for recycling : Implement extensive recycling programs for plastics, paper, glass and metals. Educate residents on the importance of waste sorting.
  • Bio-waste collection and composting : Set up a bio-waste collection system and promote home composting. You can use the compost to fertilize the greenery in the village, thereby reducing the need for industrial fertilizers.
  • Waste reduction in shops and households : In collaboration with local shops, introduce measures to reduce single-use plastics and encourage residents to avoid single-use packaging.

7. Afforestation and protection of natural resources

Natural ecosystems help capture CO₂ from the atmosphere and should therefore be part of a strategy to achieve carbon neutrality.

  • Afforestation : Identify suitable places to plant trees and organize community reforestation events. Trees bind CO₂, improve air quality and support biodiversity.
  • Restoration of wetlands and forest protection : If the municipality includes wetlands, keep them in their natural state. Wetlands can absorb large amounts of CO₂ and at the same time regulate the groundwater level.
  • Support of biodiversity : Support the protection of natural habitats around the village to preserve the ecological first and help the growth of species that also help to bind carbon.

8. Introduction of energy management in public buildings

Public buildings are places with high energy consumption. Their effective management can contribute to a significant reduction in emissions.

  • Energy consumption audit : Regularly monitor energy consumption in all public buildings, identify inefficient areas and take steps to optimize them.
  • Introduction of ecological heating and cooling : Switch to eco-friendly heating and cooling systems, such as heat pumps or solar collectors.
  • Energy efficient devices : Equip buildings with energy-efficient appliances and devices that affect electricity.

9. Cooperation with other municipalities and partners

Cooperation between municipalities enables the exchange of experience and better coordination in achieving carbon neutrality.

  • Sharing experiences : Connect with other municipalities that are also using carbon reduction. Create a network to share best practices and experience.
  • Cooperation with non-governmental organizations : In cooperation with environmental organizations, implement projects to support renewable resources and ecological education.
  • Access to funding and subsidies : Use European and national subsidy programs to finance ecological projects, such as replacing heating systems, planting trees, or ecological transport.

10. Monitoring and evaluating progress

Regular assessment of progress is important so that the municipality knows if it is going in the right direction.

  • Annual progress reports : Prepare an annual report on objectives and publish it to the public. Transparency motivates citizens and adjusts goals according to needs.
  • Checking and updating targets : If goals are not being met as planned, review the goals and see where improvements can be made.
  • Motivation and appreciation of citizens : Involve citizens in the evaluation process and motivate them. Appreciating those who contribute to carbon neutrality can be another motivation.

Conclusion

Carbon neutrality in a small village is achievable if all steps are strictly followed and the community is involved in environmental initiatives. This comprehensive approach will help not only to achieve carbon neutrality, but also to improve the quality of life and protect the natural environment for future generations. (Co2AI)

Carbon footprint of Formula 1: What is its impact and how can it be reduced?

Formula 1, one of the most prestigious and popular motor sports in the world, is also one of the most demanding on the environment. In addition to adrenaline and technological innovation, high-speed racing also produces significant amounts of carbon dioxide (CO₂) emissions, which contribute to global warming. Teams, car companies, as well as the events themselves are very expensive, but also in terms of their environmental impact. In the article, we will look at the carbon footprint of Formula 1, a specific calculation of the emissions of one team per race.


What is carbon footprint and how do we measure it in the context of Formula 1?

Carbon footprint refers to the total amount of CO₂ emissions (and other greenhouse gases) generated by certain activities or events. In the case of Formula 1, the carbon footprint consists of several main areas:

  1. transportation – includes transfers of race teams, equipment, logistics to race venues. This part makes up a significant part of the total carbon footprint.
  2. Race operation – includes the energy needed during the race, including the F1 cars themselves, their engines and technical equipment.
  3. Production and development – emission costs for the development, production and testing of cars and technologies. Team factories are needed to use and use resources to produce carbon fiber parts and other special materials.
  4. Accommodation and support – consumption of energy and resources to provide accommodation, meals and other logistics for team personnel during the race.

These individual parts make up the total carbon footprint of one Formula 1 team for one race. If we calculate the emission footprint of individual factors, we can get a picture of the environmental impact of this sport.


Calculation of the carbon footprint of one team per race

In 2019, Formula 1 published its carbon footprint for the season, which reached approx 256,000 tons of CO₂ . The largest share of it (up to 45 %) was made up transport , while the race itself had only about 0.7 % of the total emissions impact, which corresponds to the highest fuel consumption monitoring and the restrictions it meets.

To illustrate, if we imagine that the average F1 team consists of approx 80 members and the amount of specialized equipment, we can consider the following to calculate the carbon footprint for one race:

1. Transport (approx. 45 % from the total footprint)

Transport of the team, vehicles and equipment is complete. One team can transport up to one event 50 tons of equipment aircraft, trucks and shipping. For example, intercontinental air transport produces approx 500 tons of CO₂ for the entire longer distance (e.g. from Europe to Asia or America).

  • Average estimate for transport of one team per race: 500 tons of CO₂.

2. Team operation during the race (approx. 7 %)

The operation of racing cars and related technical equipment includes emissions from fuels and electricity. The average fuel consumption for one car per race is approx 100 kg , which translates into a production of approx 300 kg of CO₂ per car (each car emits around 2.31 kg of CO₂ per liter of fuel). They will therefore produce two cars for one team 600 kg of CO₂ .

  • Car operation for one event (2 cars): 0.6 tons of CO₂.

3. Production and development (approx. 38 %)

The production and development of car components (especially carbon fiber) are energy intensive. For a season, one can produce up to 10,000 tons of CO₂ only for the production of parts and the preparation of cars. Since the season has approximately 23 races, we can calculate the average carbon footprint per race:

  • Production and development for one race: 435 tons of CO₂.

4. Accommodation and support (approx. 10 %)

Team personnel travel and lodge around the world, using hotels, conference facilities and accommodation facilities. For one event, one team can produce for its entire crew 40 tons of CO₂ .

  • Accommodation and support for one race: 40 tons of CO₂.

Total carbon footprint calculation for one team per race

In summary, after adding up all the factors, we can estimate that the carbon footprint of one F1 team per race looks like this:

Area Emissions (tons of CO₂)
transportation 500
Traffic (cars) 0,6
Production and development 435
Accommodation and support 40
In total 975,6

In this way, the average carbon footprint per race for one team is approximately 975.6 tons of CO₂ .


How does Formula 1 try to maintain its environmental impact?

Formula 1 is aware of its environmental burden and has set interesting targets to reduce its carbon footprint. The goal of F1 is to achieve carbon neutrality by 2030. The main initiative includes:

  1. Reducing consumption and hybrid engines – New hybrid drive units fuel emissions up to 0 % compared to the classic engine. From 2026, the introduction of other ecological technologies is expected, including the transition to 100 % sustainable fuel .
  2. Reduction of emissions from transport – Formula 1 and thus work on optimizing logistics and the use of alternative means of transport, such as trains or ships, and also on the use of fuels with a lower carbon content. When transporting between individual events, possibilities are also being sought to minimize the number of flights.
  3. Carbon neutrality and ecological projects – Teams invest in carbon offset projects such as reforestation and carbon sequestration projects. Companies are also trying to be innovative, such as investing in technologies for capturing carbon directly from the air.
  4. Recycling and material efficiency – Formula 1 and the individual teams try to minimize the amount of waste by recycling parts and reusing materials. They are also introducing new manufacturing processes that make it possible to use less carbon fiber and other demanding materials.
  5. Electrification and clean energy sources – Formula 1 is exploring the possibility of electrifying some parts of its process, although the complete electrification of vehicles in F1 is not yet possible in terms of performance. Supporting the transition of factories to renewable energy sources is another goal that contributes to reducing overall emissions.

Conclusion

Formula 1, as a high-performance sport, has a significant impact on the environment, but at the same time it acts as a technological laboratory for advanced technologies in motoring. Although its carbon footprint is still high, the organization is taking measures to reduce it with the goal of achieving carbon neutrality by 2030. However, it remains to implement these goals and to overcome the environmental obstacles that modern motorsport brings. (Co2AI)

COP16: Key outcomes agreed at the UN Biodiversity Conference

The UN Conference on Biodiversity COP16, held in 2024 in Cali, Colombia, brought important decisions and commitments for the protection of global biodiversity. At this conference, leaders and experts from more than 190 countries met with the aim of a new strategy for dealing with biodiversity, which is becoming more and more relevant. The talks in Cali were held under the theme "Restoring nature for the future", which highlighted the need for rapid action to protect nature and ecosystems threatened by human activity, climate change and deforestation. In this article, we take a closer look at the key agreements and their significance for the future of biodiversity.


The importance of COP16 for biodiversity

Biodiversity is the cornerstone of life on Earth – it supports ecosystems that provide people with food, clean water, pollination, and helps regulate the climate. Yet biodiversity is under threat more than ever. The rapid furniture of species, which is focused on the area of forestry, agricultural expansion, extraordinary, and pollution, has disastrous effects on the world. The COP16 conference therefore set potential targets that are intended to halt and reverse biodiversity losses by 2050.


Key outcomes and agreements from COP16

The Cali conference produced several fundamental commitments that have a major impact on the protection of biodiversity at the global level:

1. Protection of 30 % of the world's land and oceans by 2030

One of the main objectives of COP16 is to protect 30 % of the world's land and oceans by 2030 . This initiative, known as "30×30", aims to create a network of protected areas that provided a safe haven for plants, animals and ecosystems. The move is expected to help improve biodiversity and support the recovery of ecosystems that are key to combating climate change. States have pledged to increase investment in the protection of these areas and to protect ecological and scientific monitoring.

2. Reduction of pollution by plastics and toxic substances

The impact of plastics and toxic substances on ecosystems is considerable, especially in aquatic environments. At COP16, countries agreed on a reduction pollution with plastics and toxic substances on a global level. The agreement includes measures to limit single-use plastics and introduce ecological alternatives. Stricter regulation is also expected of chemicals used in industry and agriculture, which often end up in water and soil, damaging local ecosystems and endangering animal and human health.

3. Program for the restoration of degraded ecosystems

One of the important results of the conference is the regular program on restoration of degraded ecosystems . It is estimated that there are about 20 % and many water bodies are seriously damaged by human activities. This program aims to restore these areas through reforestation, wetland protection and improved soil health. Countries have pledged to invest in projects that support sustainable land and water management and contribute to the restoration of natural habitats for many species.

4. Sustainable agriculture and conservation of native species

Intensive agriculture is one of the main causes of biodiversity loss, which is why COP16 emphasized support of sustainable agriculture . They agreed to support techniques that minimize chemical inputs, improve soil health and use pesticides. this commitment also includes the protection of native and local species that are threatened by the intensive cultivation of commercial crops.

5. Securing the rights of indigenous and local communities

Indigenous communities and local people are key custodians of biodiversity, living close to many important ecosystems and their traditional knowledge of nature is invaluable. At COP16, a commitment was made to secure their rights and guarantee that their voice is valid in nature conservation. This commitment also includes guarantees that local communities will have access to the lands that belong to them and will have the opportunity to participate in the protection of natural resources.


Challenges and the need for cooperation

Despite the possible goals from COP16, the implementation of these measures will not be without challenges. Achieving commitments such as protecting 30 % planets or halting ecosystem degradation requires enormous efforts not only from governments, but also from the private sector, non-profit organizations and society as a whole. Funding is a critical element, especially for the development of countries that often have the most valuable natural resources, but at the same time lack the means to protect them.

Educating the public has the same no value. Awareness of the importance of biodiversity is necessary for people to support an initiative that helps protect nature and remains the impact of human activity on the environment.


Conclusion

The COP16 conference in Cali produced major results and decisions that can help reverse the biodiversity crisis. However, the agreed steps and commitments are only the first step on the long road to a sustainable future. If these plans can be implemented, they can lead to the restoration of ecosystems, the protection of species and the improvement of the quality of life for current and future generations. COP16 sent a clear signal that the world is ready to protect the planet and biodiversity, and showed the way how we can contribute to its preservation. Spring

2024 will be the first year when global warming exceeds 1.5°C

In 2024, the average temperature on Earth is expected to exceed the historical limit of global warming by 1.5 °C above pre-industrial levels. This symbolic milestone is justified by serious concerns, because due to the consequence of the emergence of serious problems, it is necessary to remember that society too. The topic of global warming is as relevant today as ever, and crossing the 1.5°C limit set by scientists and climatologists reminds us of the urgency of the fight against climate change. In this article, we look at why 2024 is so important, what are the causes and consequences of rising global temperatures, and what can be done to mitigate this crisis.

Why is the 1.5°C limit so important?

International climate agreements, in particular the Paris Agreement of 2015, have committed to keeping global warming below 2°C, setting as a target 1.5 °C . This goal was set on the basis of extensive scientific studies, which showed that an increase in temperature of more than 1.5 °C meant a significant worsening of extreme climatic phenomena, such as heat, droughts, floods or forest fires. Many ecosystems, such as coral reefs, would not be able to adapt to the rapid changes and the risk of their extinction would be high. Climatologists therefore warn that crossing this limit will bring not only ecological, but also economic and social consequences that will be felt by millions of people around the world.

Year 2024: Causes of record warming

This exceptionally high rise in temperature is due to several factors:

  • El Niño phenomenon : This climatic phenomenon, which occurs in the Pacific Ocean, causes an increase in the temperature of the oceans and consequently the atmosphere. Combined with increasing greenhouse gas emissions, this phenomenon contributes significantly to the overall increase in global temperature.
  • Growing emissions : World emissions of CO₂ and other greenhouse gases still increasing, mainly due to the burning of fossil fuels, deforestation and intensive agricultural production. These gases trap heat in the atmosphere, leading to a gradual increase in temperature.
  • Urbanization and industrial development : Extensive industrial development in developing countries, urbanization and infrastructure construction further increase the amount of emissions and contribute to overall warming.

Consequences of global warming above 1.5 °C

Exceeding the 1.5°C limit has serious consequences on many levels:

  • Worsening of extreme climatic phenomena : The heat will be even more intense, so longer and most common, and extraordinary new floods affecting the area, which are extensive damage to infrastructure and people's lives.
  • Loss of biodiversity : For many species, especially those that are sensitive to temperature changes, crossing the 1.5°C limit means a serious threat. Animals and plants will be forced to migrate or adapt to new needs, but many of them cannot.
  • Threat to food safety : Changes in weather and climate extremes will worsen harvests in agriculturally active regions. This can lead to food crises, increase food prices and worsen living conditions for the poorest.
  • The rise of climate migrants : Several areas will be uninhabitable due to extreme weather and degraded living conditions, causing millions of people to migrate in search of better conditions.

What can we do to mitigate climate change?

Although 2024 will bring tough news on the state of the climate, there are various steps we can take to mitigate this crisis:

  1. Reduction of greenhouse gas emissions : Promoting renewable energy sources such as solar and wind is key. Efforts to limit fossil fuels and use energy more efficiently can help slow global warming.
  2. Afforestation and biodiversity protection : Reforestation and ecosystem protection contribute to achieving CO₂ in the atmosphere. Nature plays an important role in environmental regulation, and afforestation programs have not only ecological but also social benefits.
  3. Support of sustainable agriculture : Limiting the excessive use of land and water, introducing agricultural technology and reducing emissions from agricultural production are important steps.
  4. Awareness raising and education : In order for society to act, it is necessary to raise awareness about climate change and its consequences. Education in this area is an investment in the future that can help shape the next generation that will be able to face this challenge.
  5. International cooperation : The climate crisis knows no borders and the fight against it requires cooperation at the global level. Solutions must include coordinated efforts, joint investment and support for less developed countries.

Conclusion

The year 2024 is an important year for our planet, which reminds us of the seriousness of the climate situation. Exceeding the limit of 1.5°C of global warming requires immediate and immediate measures to protect our environment. At this time, it is important to find forces and solutions that will not only mitigate climate change, but also protect our health, biodiversity and the future of future generations. Spring

Tackling pollution and energy poverty is key to reducing chronic respiratory diseases in Europe

Chronic respiratory diseases are one of the leading causes of death in Europe and it is estimated that more than a third of these deaths are caused by preventable environmental factors. Key interventions include reducing pollution, energy poverty and exposure to risk at work, according to a European Environment Agency (EEA) report published today. (More on eea.europa.eu)

A new DIY guide enables local authorities to increase citizen involvement in climate change adaptation

MIP4Adapt has launched a new DIY Stakeholder and Citizen Engagement Manual to support local authorities in increasing citizen and stakeholder engagement in climate change adaptation efforts. The handbook provides a practical guide to engaging citizens and stakeholders in every phase of climate change adaptation planning, from land preparation for adaptation to monitoring and evaluation.

By actively involving communities, regional and local authorities can develop strategies that better reflect local needs and interests. Citizen participation also fosters a sense of responsibility and commitment, making adaptation efforts more sustainable in the long term. When stakeholders engage, they contribute valuable knowledge and resources, creating shared ownership and broad support for climate action. (More on climate-adapt.eea.europa.eu)

Download the guide today

"The world must prepare for a climate disaster": UN chief

A UN biodiversity meeting this month failed to reach an agreement on funding. The world is far from ready for the "calamity" caused by climate change and must urgently prepare for even worse in the future, UN Secretary-General Antonio Guterres said on Thursday.

Global efforts to adapt to climate change—from building defensive sea walls to growing drought-resistant crops—have not kept pace as global warming accelerates the frequency and intensity of disasters. (Agence France-Presse, more at ndtv.com)

Reducing the amount of meat could reduce CO2 emissions by billions of tons

Reducing meat consumption is currently coming to the fore as an important strategy in the fight against climate change. The production of meat, especially beef, is associated with significant emissions of greenhouse gases, including carbon dioxide (CO₂), methane (CH₄) and nitrous oxide (N₂O). These gases contribute significantly to the warming of the planet. Reducing meat consumption could therefore represent a fundamental change with global implications for reducing greenhouse gas emissions.

1. Climate footprint of meat: Why is meat production so harmful to the climate?

Meat production is very resource-intensive and causes high greenhouse gas emissions. The main reasons are:

– Cattle feeding and breeding: Cows and other livestock produce large amounts of methane, which is produced during digestion. This gas has a much higher potential for trapping heat in the atmosphere than CO₂ (it is about 28 times more efficient). In addition, the production of livestock feed requires huge areas of land, leading to deforestation and the subsequent release of carbon from the soil into the atmosphere.

– Water and energy consumption: Meat production uses more water and energy compared to plant-based foods. It takes about 15,000 liters of water to produce one kilogram of beef, while it takes about 1,500 liters to produce one kilogram of wheat.

Deforestation: Many areas, including the Amazon rainforest, are being deforested to raise livestock and grow feed, causing the loss of natural carbon stores that would otherwise absorb CO₂ and reduce its concentration in the atmosphere.

2. How could changing eating habits reduce CO₂ emissions?

Reducing meat consumption has the potential to reduce greenhouse gas emissions by up to billions of tons per year. Research shows that if most people switched to a diet with less animal products or an entirely plant-based diet, global emissions would be significantly reduced.

– Switching to a plant-based diet: Research published in the journal *Nature* estimated that a global shift to a diet low in animal products could reduce greenhouse gas emissions by around 8 billion tonnes per year.

– Beef reduction: Beef has the biggest impact on greenhouse gas emissions, so reducing it or replacing it with other types of protein could yield huge savings. According to the Food and Agriculture Organization (FAO), reducing beef consumption in favor of plant-based alternatives would reduce the carbon footprint of the food sector by more than 50 %.

 3. Ecological benefits of reducing meat consumption

The climate benefits of limiting meat consumption are enormous, but a change in diet would also have other ecological benefits:

– Biodiversity protection: Deforestation for livestock and fodder farming threatens many species of plants and animals. Limiting meat production could protect critical ecosystems like the Amazon rainforest and save thousands of endangered species.

– Saving water: Producing meat requires a huge amount of water, while growing crops for human consumption is much more economical. Thus, limiting meat consumption would help conserve water resources, which is especially important in drought-affected areas.

– Improvement of soil quality: Intensive animal breeding and fodder cultivation leads to soil degradation and loss of its quality. A reduction in dependence on animal products would allow some native ecosystems to return and improve the soil's ability to absorb carbon.

4. Social and economic aspects of changes in meat consumption

A change in eating habits can also have a significant impact on society and the economy.

– Health benefits: Reduced consumption of meat, especially red and processed meat, has beneficial effects on health. A diet high in plant protein is associated with a lower risk of heart disease, diabetes and some types of cancer. Improving public health could reduce health care costs.

A more even distribution of resources: Meat production is demanding on land, water and energy, while these resources could be used more efficiently to grow crops for direct food use. This transition could help alleviate world hunger by allowing more resources to be used directly to feed people.

– New job opportunities in the plant alternatives sector: The demand for alternatives to meat, such as plant proteins or cultured meat, brings opportunities for the development of new technologies and businesses. The plant industry is growing at a rapid pace, creating employment opportunities and increasing the value of the sustainable sector.

5. How to support the transition to a diet with a lower proportion of meat?

Because dietary habits are deeply rooted in culture and tradition, transitioning to fewer animal products requires a systematic approach:

Education and awareness raising: The key is to inform the public about the ecological and health benefits of limited meat consumption. Public campaigns, school programs and information on food labels can help raise awareness.

Support for plant-based alternatives: Supporting the development and availability of plant-based alternatives to meat can help consumers embrace change. State subsidies for sustainable foods or tax reductions for plant-based alternatives could increase their availability and attractiveness to consumers.

– Political measures and climate taxes: The introduction of taxes on products with a high carbon footprint, including meat, could discourage their excessive consumption. However, these measures should be accompanied by protection for low-income groups so that they do not lead to social inequalities.

Conclusion

Reducing meat consumption is an effective and affordable way for individuals and companies to contribute to the fight against climate change. Dietary change has the potential to reduce emissions by billions of tons of CO₂ per year, which would have a major impact on climate stabilization. Moreover, it would bring many other ecological, social and health benefits. For individuals, one of the simplest and most effective measures to reduce their carbon footprint may be to reduce meat consumption and include more plant-based foods in their daily diet. In addition, such a transition supports biodiversity conservation, water and soil conservation and will contribute to a more sustainable food system.

The future of sustainable eating

If we want to achieve a sustainable future, it is essential to integrate the reduction of meat consumption into a wider climate policy. It is already clear that the increase in plant-based alternatives to meat on the market shows that consumers are aware of the importance of their dietary choices for the environment. Technological innovations such as cultured meat and new forms of plant protein have the potential to replace traditional meat and reduce the carbon footprint of the food sector.

The next step is to create favorable conditions for this transition through regulatory frameworks, support for agricultural technologies that reduce emissions, and public education. It is these measures that can enable us to move towards more sustainable eating habits in the future and contribute to a more stable climate system. Spring

Nature-based solutions can transform local economies

When we look around us, it is not difficult to see the countless ways in which nature contributes to our existence. However, the value of nature goes far beyond what it seems at first glance - it offers solutions with advantages that are often overlooked.

This is the extraordinary revelation of a group of researchers from the University of Oxford. Experts researched the economic implications of natural solutions (NbS) and what they discovered is like finding a pot of gold at the end of a rainbow. (Sanjana Gajbhiye, more at earth.com)

Greenwashing: When the green facade meets reality

The term "greenwashing" has gained importance in recent years, as more and more companies try to present their products and services as environmentally responsible. However, in many cases behind this green facade hides a reality that is much less flattering. Greenwashing is a deceptive practice designed to give consumers the impression that a product or service is greener than it actually is.

The resources provide valuable insight into this issue and point to various aspects of greenwashing regulation in the EU.

Why is greenwashing a problem?

Greenwashing undermines consumers' trust in environmental claims and makes it difficult for them to make informed decisions. Ultimately, this hinders real progress in sustainability.

  • Misleading claims: Companies may use misleading claims, unsubstantiated evidence, vague wording, or emphasize one environmental aspect while ignoring other, negative impacts.
  • Absence of standards: The absence of clear standards and definitions for environmental claims allows companies to manipulate information and avoid accountability.
  • Green Marketing: Firms may invest more in marketing their environmental activities than in actual changes in their products and processes.

How does the EU fight against greenwashing?

The EU adopts legislative measures to regulate greenwashing and strengthen transparency in the field of sustainability. The sources mention several initiatives:

  • EU Taxonomy: This classification defines which economic activities are considered environmentally sustainable, providing investors with a clear framework for evaluating investments.
  • Regulation on Disclosure of Information on Sustainability in the Financial Services Sector (SFDR): It requires financial institutions to disclose how they consider sustainability risks and opportunities in their investments and advice.
  • Unfair Commercial Practices Directive (UCPD): It prohibits deceptive and misleading practices, including greenwashing, and protects consumers from unfair business practices.
  • Insurance Distribution Directive (IDD): It establishes rules for the transparency and professional competence of insurance and reinsurance intermediaries, which indirectly contributes to the fight against greenwashing in this area.
  • Specific information disclosure requirements: EU legislation also defines specific requirements for publishing information on environmental aspects in various sectors, such as energy, transport, construction and agriculture.

What is the impact of these measures?

These EU legislative initiatives have the potential to reduce the extent of greenwashing and strengthen the credibility of environmental claims. They set clearer rules, definitions and disclosure requirements, making it harder for companies to manipulate information and avoid liability.

  • Increased transparency: The new rules motivate companies to more transparently publish information about their environmental activities and impacts.
  • Clearer definitions: The EU taxonomy and other initiatives provide clearer definitions for terms such as 'sustainable' and 'green', limiting the scope for interpretation and manipulation.
  • Strengthening enforcement: The EU is strengthening mechanisms to monitor and enforce compliance, making companies more accountable.

The future of the fight against greenwashing

Although the EU is taking steps to regulate greenwashing, combating this issue is a long-term process.

  • The evolution of greenwashing: Businesses are constantly looking for new and more sophisticated ways to present their products and services as green.
  • The need for harmonization: There is a need to harmonize standards and definitions at a global level to prevent "greenwashing tourism".
  • Consumer involvement: Consumers play a key role in the fight against greenwashing. Informed and critical consumers can pressure companies to act responsibly and transparently.

In conclusion, greenwashing is a serious problem that undermines consumer confidence and hinders real progress in sustainability. The EU adopts legislative measures to regulate greenwashing and strengthen transparency, but the fight against this issue requires long-term efforts on the part of regulators, companies and consumers. Spring

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