Home EU Diesel Consumption and Price Quotas: Weekly Updates and Statistics

EU Diesel Consumption and Price Quotas

Fuel consumption is a critical issue in the European Union, affecting not only energy security and transportation but also the environment and the economy. At fuel-prices.eu, we provide up-to-date statistics on diesel and petrol consumption in all EU countries, including daily, monthly, and yearly figures. Our page also offers weekly updates on current fuel prices, helping you stay informed and make informed decisions about your fuel needs. Discover trends and patterns in fuel consumption and explore the complex dynamics of energy, transportation, infrastructure, and the environment in the EU

It's important to note that the consumption of diesel and petrol can vary greatly depending on several factors, such as the size of the country, the population, the transportation infrastructure, and the economic activity.

Eurostat provides data on the consumption of petroleum products in the European Union. According to the latest available data from 2020:
The **monthly consumption** of
**diesel** in the EU-27 countries would be approximately **22,890,390 tonnes** per month
The **daily consumption** of
**diesel** in the EU-27 countries would be approximately **763,013 tonnes** per day
**How many liters of diesel are consumed in a year in the EU?**
**How many liters of diesel are consumed per month in the EU?**

** Sources:**

The total consumption of **diesel** in the EU-27 countries was **278,500,000 tonnes** per year

The total consumption of **petrol** in the EU-27 countries was **99,200,000 tonnes** per year

and the daily consumption of **petrol** would be approximately **8,153,400 tonnes** per month

and the daily consumption of **petrol** would be approximately **271,780 tonnes** per day

To convert the consumption of diesel in tonnes to liters, we need to know the density of diesel, which is **approximately 0.835 grams per cubic centimeter (g/cm**^{³}) at room temperature.

Using this density value, we can convert the **278.5 million tonnes** of diesel consumed in the EU per year to liters using the following calculation:
** 278,500,000 tonnes * 1000 kg/tonne * 1,000 L/0.835 m³ = 333,174,349,398 liters of diesel / year**

Approximately **333.1 billion liters of diesel are consumed in a year in the EU**.

We know that the annual consumption of diesel in the EU is approximately **333,174,349,398 liters**, and the average diesel price per liter this week is

At the current price, EU-27 member states pay approximately / year for the diesel they consume

The combustion of **333,174,349,398** liters of diesel would release approximately **19.8 billion kilograms (or 19.8 million metric tons) of CO2** into the atmosphere. (Click here to show more)
**C12H23 + 18.5O2 → 12CO2 + 11H2O**
**333,174,349,398 liters x 0.832 kg/liter = 277,513,192,386 kg**
**(277,513,192,386 kg x 0.86) / 12 = 19,838,693,120 kg of CO2**

To calculate the amount of CO2 released into the atmosphere from the combustion of diesel fuel, we need to know the carbon content of diesel and the combustion reaction that takes place during its use. The carbon content of diesel is approximately 86% by weight. When diesel is combusted, it reacts with oxygen to produce carbon dioxide (CO2) and water vapor (H2O).

The balanced chemical equation for the combustion of diesel is:

From this equation, we can see that for every mole of diesel combusted, 12 moles of CO2 are produced.

Assuming that all 333,174,349,398 liters of diesel are combusted, we can calculate the amount of CO2 produced as follows:

1 liter of diesel has a mass of approximately **0.832 kg** (source: US Department of Energy). Therefore, the total mass of diesel consumed is approximately:

The amount of CO2 produced by combusting this amount of diesel can be calculated as follows:

Therefore, the combustion of 333,174,349,398 liters of diesel would release approximately **19.8 billion kilograms (or 19.8 million metric tons) of CO2 **into the atmosphere.

To determine the number of trees required to offset the 19.8 billion kilograms of CO2 emitted from the combustion of 333,174,349,398 liters of diesel, we need to consider several factors, such as the type of trees, their growth rate, and the length of time they will sequester carbon.

According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 19.8 billion kilograms of CO2 as follows:

**Number of trees = (19.8 billion kg of CO2) / (21.77 kg of CO2 per tree per year)**

**Number of trees = 908,417,755 trees**

Therefore, we would need to plant approximately 908 million trees, assuming they are able to sequester carbon indefinitely and can grow fast enough to absorb the carbon emitted from the diesel fuel combustion. It is important to note that this is a very rough estimate, as factors such as tree species, location, and growth rate can significantly impact the actual amount of carbon sequestered. Additionally, planting trees alone may not be sufficient to address the climate crisis, and reducing greenhouse gas emissions through sustainable practices and alternative energy sources remains a critical component of mitigating climate change.

According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 19.8 billion kilograms of CO2 as follows:

Therefore, we would need to plant approximately 908 million trees, assuming they are able to sequester carbon indefinitely and can grow fast enough to absorb the carbon emitted from the diesel fuel combustion. It is important to note that this is a very rough estimate, as factors such as tree species, location, and growth rate can significantly impact the actual amount of carbon sequestered. Additionally, planting trees alone may not be sufficient to address the climate crisis, and reducing greenhouse gas emissions through sustainable practices and alternative energy sources remains a critical component of mitigating climate change.

Using this density value, we can convert the **22,890,390 tonnes** of diesel consumed in the EU per year to liters using the following calculation:
** 22,890,390 tonnes * 1,000,000 grams/tonne * 1/0.835 grams/mL
= = 27,069,854,020 liters of diesel / month**
**How many liters of diesel are consumed per day in the EU?**

Approximately **27,069,854,020 liters of diesel are consumed in a month time in the EU**.

We know that the annual consumption of diesel in the EU is approximately **333,174,349,398 liters**, and the average diesel price per liter this week is

At the current price, EU-27 member states pay approximately / month for the diesel they consume

The combustion of **27,069,854,020** liters of diesel would release approximately **1.6 billion kilograms (or 1.6 million metric tons) of CO2** into the atmosphere. (Click here to show more)

According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 1.6 billion kilograms of CO2 as follows:

**Number of trees = (1.6 billion kg of CO2) / (21.77 kg of CO2 per tree per year)**

Number of trees =**73,522,914 trees**

Therefore, we would need to plant approximately 73.5 million trees, assuming they are able to sequester carbon indefinitely and can grow fast enough to absorb the carbon emitted from the diesel fuel combustion. It is important to note that this is a very rough estimate, as factors such as tree species, location, and growth rate can significantly impact the actual amount of carbon sequestered. Additionally, planting trees alone may not be sufficient to address the climate crisis, and reducing greenhouse gas emissions through sustainable practices and alternative energy sources remains a critical component of mitigating climate change.

To calculate the amount of CO2 released into the atmosphere from the combustion of diesel fuel, we need to know the carbon content of diesel and the combustion reaction that takes place during its use. The carbon content of diesel is approximately 86% by weight. When diesel is combusted, it reacts with oxygen to produce carbon dioxide (CO2) and water vapor (H2O).

The balanced chemical equation for the combustion of diesel is:

**C12H23 + 18.5O2 → 12CO2 + 11H2O**

From this equation, we can see that for every mole of diesel combusted, 12 moles of CO2 are produced.

Assuming that all the diesel consumed in a year is combusted, we can calculate the amount of CO2 produced as follows:

1 liter of diesel has a mass of approximately 0.832 kg (source: US Department of Energy). Therefore, the total mass of diesel consumed in a year is approximately:

**27,404,012,048 liters x 0.832 kg/liter = 22,805,305,774 kg**

From this equation, we can see that for every mole of diesel combusted, 12 moles of CO2 are produced.

Assuming that all the diesel consumed in a year is combusted, we can calculate the amount of CO2 produced as follows:

1 liter of diesel has a mass of approximately 0.832 kg (source: US Department of Energy). Therefore, the total mass of diesel consumed in a year is approximately:

The amount of CO2 produced by combusting this amount of diesel can be calculated as follows:

**(22,805,305,774 kg x 0.86) / 12 = 1,637,125,408 kg of CO2**

Therefore, the combustion of 27,404,012,048 liters of diesel in a year would release approximately 1.6 billion kilograms (or 1.6 million metric tons) of CO2 into the atmosphere.

To determine the number of trees required to offset the CO2 emitted from the combustion of diesel, we need to consider several factors, such as the type of trees, their growth rate, and the length of time they will sequester carbon.
According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 1.6 billion kilograms of CO2 as follows:

Number of trees =

Therefore, we would need to plant approximately 73.5 million trees, assuming they are able to sequester carbon indefinitely and can grow fast enough to absorb the carbon emitted from the diesel fuel combustion. It is important to note that this is a very rough estimate, as factors such as tree species, location, and growth rate can significantly impact the actual amount of carbon sequestered. Additionally, planting trees alone may not be sufficient to address the climate crisis, and reducing greenhouse gas emissions through sustainable practices and alternative energy sources remains a critical component of mitigating climate change.

Using this density value, we can convert the **763,013 tonnes** of diesel consumed in the EU per year to liters using the following calculation:
** 763,013 tonnes x 1,180 L/tonne
= 900,739,140 liters of diesel / month**

Approximately **900,739,140 liters of diesel are consumed in a month time in the EU**.

We know that the annual consumption of diesel in the EU is approximately **333,174,349,398 liters**, and the average diesel price per liter this week is

At the current price, EU-27 member states pay approximately / month for the diesel they consume

The combustion of **900,739,140** liters of diesel would release approximately **53.2 thousand kilograms (or 53.2 metric tons) of CO2** into the atmosphere. (Click here to show more)
**C12H23 + 18.5O2 → 12CO2 + 11H2O**
**900,739,140 liters x 0.832 kg/liter = 749,146,462.88 kg**
**(749,146,462.88 kg x 0.86) / 12 = 53,239,180.41 kg of CO2**

To determine the number of trees required to offset the CO2 emitted from the combustion of diesel, we need to consider several factors, such as the type of trees, their growth rate, and the length of time they will sequester carbon.

According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 53.2 thousand kilograms of CO2 emitted per day as follows:
**Number of trees = (53,239,180.41 kg of CO2 per day) / (21.77 kg of CO2 per tree per year)**
**Number of trees = 2,444,679 trees**

To calculate the amount of CO2 released into the atmosphere from the combustion of diesel fuel, we need to know the carbon content of diesel and the combustion reaction that takes place during its use. The carbon content of diesel is approximately 86% by weight. When diesel is combusted, it reacts with oxygen to produce carbon dioxide (CO2) and water vapor (H2O).

The balanced chemical equation for the combustion of diesel is:

From this equation, we can see that for every mole of diesel combusted, 12 moles of CO2 are produced.

Assuming that all the diesel consumed in a day is combusted, we can calculate the amount of CO2 produced as follows:

1 liter of diesel has a mass of approximately 0.832 kg (source: US Department of Energy). Therefore, the total mass of diesel consumed in a day is approximately:

The amount of CO2 produced by combusting this amount of diesel can be calculated as follows:

Therefore, the combustion of **900,739,140 liters of diesel** per day would release approximately **53.2 million grams** (or 53.2 thousand kilograms or 53.2 metric tons) of CO2 into the atmosphere.

To determine the number of trees required to offset the CO2 emitted from the combustion of diesel, we need to consider several factors, such as the type of trees, their growth rate, and the length of time they will sequester carbon.

According to the US Environmental Protection Agency (EPA), a single tree can absorb an average of 21.77 kg of CO2 per year. Based on this figure, we can estimate the number of trees required to offset the 53.2 thousand kilograms of CO2 emitted per day as follows:

Therefore, we would need to plant approximately 2.4 million trees, assuming they are able to sequester carbon indefinitely and can grow fast enough to absorb the carbon emitted from the diesel fuel combustion. It is important to note that this is a very rough estimate, as factors such as tree species, location, and growth rate can significantly impact the actual amount of carbon sequestered. Additionally, planting trees alone may not be sufficient to address the climate crisis, and reducing greenhouse gas emissions through sustainable practices and alternative energy sources remains a critical component of mitigating climate change.

Keep in mind that these are rough estimates based on the latest available data, and the actual consumption may vary from year to year and country to country.

- Eurostat - "Supply, transformation and consumption of petroleum products" dataset: __https://ec.europa.eu/eurostat/ __