jane marsh

Renewable Energy and Regenerative Agriculture: A Synergistic Approach to Soil Conservation and Pollution Reduction

As the climate crisis accelerates and soil conservation efforts fall short, the need to implement sustainable solutions has never been greater. Replacing non-renewable energy with clean energy can reduce pollution, while regenerative agriculture can reclaim the land. However, together they can provide a more effective solution to these problems. 
Renewable Energy and Regenerative Agriculture: A Synergistic Approach to Soil Conservation and Pollution Reduction
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95% of the Earth’s Soil Could Be Degraded by 2050

The soil sustains all life on Earth, yet around 30% is moderately to highly degraded. If the trend continues, 95% of the world’s soil will be significantly degraded by 2050, which is almost as large as South America. 

Food systems are the largest culprit behind biodiversity loss on land. They also account for 80% of deforestation, 70% of freshwater use and 29% of greenhouse gas emissions. Food systems cover all activities involved in food production, transport, storage, consumption and disposal.

 Healthy soil has a natural body, which means it has several layers, and biodiversity that’s teeming with countless microorganisms, insects and fungi. When it degrades, it loses these qualities, making it unable to support plants and animals. 

While soil naturally degrades over time, human activities can speed it up. Extreme agricultural practices, like intensive farming, deforestation, overgrazing, excessive fertilization or irrigation and monocropping, can damage its complex system.

Increased Emissions Leave 3 Years to Limit Global Warming

The 2015 Paris Agreement aims to cap global warming at 1.5°C or at least below 2°C. Unfortunately, due to the rapidly increasing emission levels in the atmosphere, the world is on track to overshoot the agreement within the next three years. 

Food systems constitute at least 15% of fossil fuel emissions worldwide. The majority happens during food processing and packaging (42%), followed by retail, consumption and waste (38%). Meanwhile, agriculture, forestry and land use are responsible for 18.4% of greenhouse gases worldwide. 

Agriculture contributes around 10% of total emissions in America. The emissions come from complex natural processes, such as methane from livestock manure management and nitrous oxide from fertilizer and pesticide use. Farming practices like monoculture also indirectly generate carbon emissions and accelerate soil erosion.

Converting land for farm use also produces significant carbon dioxide emissions. Biomass burning significantly contributes to ozone, while deforestation generates 2.6 billion metric tons of CO2 annually. 

Renewable Energy Reduces Pollution

Renewable energy or clean energy comes from natural sources that replenish faster than they are consumed. Common sources include the following:

  • Solar energy
  • Wind energy 
  • Geothermal energy
  • Hydropower 
  • Ocean energy 
  • Bioenergy

Fossil fuels, such as coal, oil and gas, take millions of years to form. When burned, they produce harmful emissions, which account for almost 90% of all CO2 emissions and over 75% of greenhouse gas emissions worldwide. 

Producing renewable energy also generates emissions, but they are never as high as those from fossil fuels. For example, the activities involved in constructing wind turbines will create greenhouse gases, but they will not have operational emissions.

Clean Energy is Cheaper, Safer and More Sustainable

Sources of renewable energy are available in all countries, and depleting them is almost impossible. Harnessing them removes the need to import fossil fuels, which gives countries opportunities to diversify their economies. Consider how wind and solar energy are more cost-effective than the cheapest fossil fuels worldwide.

Also, unlike fossil fuels, clean energy does not generate pollution associated with life-threatening health conditions and seven million premature deaths annually. 

Renewable Energy for Agriculture and Food Systems 

 Using clean energy to power food processing, transport and storage can significantly reduce greenhouse gases. However, replacing non-renewable energy with clean energy is not enough to achieve net-zero emissions. Energy use must be reduced altogether. 

Energy systems powered by clean energy would require changes in their grid and storage infrastructure to operate efficiently. They must also account for the source’s availability and the ability to “harvest” it. Also, when using decarbonized energy systems, it is necessary to reduce the demand for energy and shift when and how it is used.

Regenerative Agriculture for Soil Conservation

Regenerative farming involves using holistic agricultural practices that run on several principles:

  • Reduce soil disturbance: Limit tillage, grazing and pesticide use and plan when to use mineral-enhanced fertilizers to diminish carbon release, maintain soil structure and foster healthy soil systems. 
  • Keep the soil covered: Plant vegetation or cover crops to facilitate sustainable crop rotations, improve soil health, reduce bare ground and supplement organic matter. 
  • Increase plant diversity: The more diverse the plants in an environment are, the healthier its over and underground ecosystem will be. 
  • Nurture roots in the soil: Root systems cycle water and nutrients and stabilize the soil. Maintaining them throughout the seasons keeps soil biology processes going. 
  • Integrate animals: Livestock are essential to healthy ecosystems. For example, permanent pastures can trap carbon, while rotational grazing gives plants in the pasture time to regenerate. 

Most regenerative agriculture principles revolve around improving soil quality, from fostering nutrients through plant diversity to nurturing root systems for stability. When applied on a global scale, these efforts can reduce the effects of soil degradation. 

How Regenerative Farming Fights Climate Change

Regenerative farming reduces the need for agricultural practices that produce greenhouse gases. For example, it can eliminate the need for fossil fuel-based fertilizers and pesticides, as increasing plant diversity naturally improves soil fertility and pest resistance. 

Practices that improve water retention, like cover cropping, remove the need for irrigation and its associated fuel and energy consumption. They also capture and store carbon dioxide, reducing the amount of emissions in the atmosphere. Moreover, farms with enhanced biodiversity can better survive environmental stresses and thrive afterward. 

A Two-Pronged Solution for Long-Term Sustainability

Soil degradation and pollution are problems that build on each other. Soil degrades due to intensive practices that generate greenhouse gases, while efforts to reverse the degradation, such as using fertilizers, also contribute to pollution. 

Achieving long-term sustainability will require significant changes in how food systems work. Adopting renewable energy and regenerative agriculture are great starting points. 

 

Baterías con premio en la gran feria europea del almacenamiento de energía
El jurado de la feria ees (la gran feria europea de las baterías y los sistemas acumuladores de energía) ya ha seleccionado los productos y soluciones innovadoras que aspiran, como finalistas, al gran premio ees 2021. Independientemente de cuál o cuáles sean las candidaturas ganadoras, la sola inclusión en este exquisito grupo VIP constituye todo un éxito para las empresas. A continuación, los diez finalistas 2021 de los ees Award (ees es una de las cuatro ferias que integran el gran evento anual europeo del sector de la energía, The smarter E).