Carbon Footprint Tree Planting: Why It Helps Reduce Your Impact?

Trees reduce our carbon footprint
Written by Poppy Stringer
December 5, 2024
7 min read

Every day you hear so many conflicting stories when it comes to tree planting, reforestation, and carbon reduction. Yes, it's complex, and there are lots of nuances, but in simple terms - trees reduce our carbon footprint.

Photosynthesis: Nature's Carbon Converter

We all remember one of the first lessons taught in science; trees take in carbon dioxide, use the sun's energy to convert carbon dioxide into sugars, use the sugars for food, and release oxygen in the process. They've done this for about 350 million years, and if we start acting more responsibly, there's no reason why Mother Nature won't continue doing it for another 350 million.

The Urgency of Reducing Carbon Dioxide Emissions

According to the Intergovernmental Panel on Climate Change (IPCC), the only way we can keep global warming below 2°C is by reducing CO2 emissions from human activities, which means reducing your carbon footprint, it's that simple.

Tree Planting: A Simple Yet Powerful Solution

Planting trees is one of the simplest ways you can help ease the impact that human activity has on our planet. All the trees planted in our projects are carefully selected to maximize their carbon sequestration potential. Not only do they convert CO2 to oxygen, but they are also the ultimate carbon capture and storage machines. Tree planting is a key strategy for carbon offsetting, helping to balance out carbon emissions from other sources. As the trees grow and absorb atmospheric carbon dioxide, they lock the carbon in the wood of their trunks in the form of carbohydrates until the tree dies, decays, or is burnt. Planting more trees is essential to combat climate change and enhance biodiversity. By carefully selecting the right trees for carbon sequestration, we can enhance the effectiveness of tree planting projects and make a significant impact on reducing carbon dioxide levels in the atmosphere through the trees planted.

Choosing the Right Trees for Carbon Sequestration

When it comes to choosing the right trees for carbon sequestration, several factors need to be considered to maximize their impact. The species of the tree, the climate, soil type, and available space all play crucial roles in determining how effectively a tree can absorb and store carbon dioxide.

Native tree species are often the best choice for carbon sequestration. These trees are well adapted to the local climate and soil conditions, which means they require less maintenance and are more likely to thrive. Additionally, native species support local biodiversity, creating a more resilient ecosystem.

Trees with a high growth rate, such as eucalyptus and willow, can absorb more carbon dioxide from the atmosphere than slower-growing trees. However, it’s important to note that fast-growing trees may not store carbon for as long as their slower-growing counterparts, as they often have shorter lifespans.

On the other hand, trees with a high density, such as oak and beech, can store more carbon per unit of volume. This makes them excellent choices for long-term carbon storage. The age and size of the trees also play a crucial role in their carbon sequestration potential. Younger trees tend to absorb more carbon dioxide as they grow and develop their root systems, while larger, mature trees can store more carbon due to their greater biomass.

By carefully selecting the right trees for carbon sequestration, we can enhance the effectiveness of tree planting projects and make a significant impact on reducing carbon dioxide levels in the atmosphere.

Calculating CO2 Absorption

It is difficult to generalize how much CO2 trees can absorb and store in one year as it depends on a whole host of factors such as the type of tree or the age of the tree. The amount of CO2 absorbed by trees can be quantified and used to issue carbon credits, which can be traded to offset carbon emissions. But at SKOOT, we make it simple. We simply take the first year of the tree (5.9kg for a mangrove sapling) and only take that first year’s carbon removal. This means we say a tonne of carbon is removed by planting 170 trees.

The Gift to Mother Nature

Every year thereafter, we say it is a gift back to Mother Nature, which means the 170 trees are likely to remove one tonne in the first year but by the end of their lives, could have removed 85 tonnes.

The Superpowers of Mangroves

We plant what can be considered as one of the world’s supertrees; Mangroves. Mangroves play a crucial role in the global carbon cycle by capturing and storing large amounts of carbon dioxide. Mangroves can store up to 10 times more carbon per hectare than other terrestrial forests and they are 5 times better at removing carbon than North Hemisphere trees.

Supporting Sustainable Tree Planting Practices

Sustainable tree-planting practices are essential for ensuring that tree-planting projects have a positive impact on the environment and local communities. One of the key principles of sustainable tree planting is to plant trees in areas where they will have the greatest impact on carbon sequestration. This often involves planting trees in regions with high levels of carbon dioxide emissions, such as near industrial sites or in urban areas.

Another important principle is to plant a diverse range of tree species. This diversity helps ensure that the trees are resilient to disease and pests and can adapt to changing environmental conditions. A diverse forest is a healthy forest, capable of providing a range of ecosystem services beyond just carbon sequestration.

Sustainable tree planting practices also involve working closely with local communities. It’s crucial to ensure that the trees are planted in a way that benefits these communities and that they are involved in the decision-making process. This might include providing training and employment opportunities for local people and ensuring that the tree planting respects local customs and traditions.

Additionally, sustainable tree planting practices involve ongoing monitoring and evaluation. This means measuring the amount of carbon dioxide absorbed by the trees and assessing their impact on local biodiversity and ecosystems. By continuously evaluating the success of tree planting projects, we can ensure that they are having the desired effect and make any necessary adjustments to improve their outcomes.

By supporting sustainable tree planting practices, we can create lasting benefits for the environment and local communities, helping to mitigate climate change and promote ecological resilience.

Addressing Concerns of Greenwashing

The concerns over tree planting and greenwashing really centre around whether the trees are planted, whether are they protected, is the land protected, and are they protected from forest fires. Adhering to the Woodland Carbon Code ensures that our tree-planting projects are credible and effective in sequestering carbon. It’s for all these reasons that we work with Eden Reforestation in Kenya to plant our trees, helping to alleviate the extreme poverty within the local communities. We have a designated site at Tudor Creek in Mombasa in Kenya, where our land is protected by government agreements in perpetuity. A site where we help employ a community to not only reforest the site but to maintain it, protect it, and ensure that both the community flourishes alongside the mangrove forest.

Making Carbon Footprint Reduction Simple

We also believe that it should be simple to reduce your carbon footprint. By planting Mangroves or any other type of tree, you are helping to mitigate climate change by reducing carbon emissions in the atmosphere. Reducing reliance on fossil fuels is also crucial in our efforts to combat climate change. Although trees are only part of the solution and there are many other changes that need to be made to reduce our greenhouse gas emissions, planting trees can be an easy first step for individuals who want to begin to make a difference. It is important to note that while trees capture carbon, they can also release carbon back into the atmosphere due to factors such as disease or environmental conditions.

Written by Poppy Stringer
December 5, 2024
7 min read
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