Climate proofing crops - what scientists say based on evidence-based research (and what actually indigenous traditional farmers for generations have practiced for thousands of years.) The UN Food and Agriculture Organization (FAO) "warns that more than 90% of Earth’s soils are at risk of becoming degraded by 2050; this could lead to a rise in famine." The primary driver of this is industrial agriculture which "usually relies on fertilizers, pesticides and mechanical equipment to produce high-yielding monocultures — single crops such as maize (corn) or wheat." The situation is getting worse due to climate change related issues... Scientists say things can be improved by boosting the "soil microbiome" — that is, its microbial community present in the soil. By improving soil health "crops can be made more resilient to drought and extreme weather." Adapting #regenerativeagriculture practices is showing positive results. The general goal of regenerative agriculture is to rebuild healthy soil. That starts with increasing the proportion of organic matter — including living roots and manure — to feed the soil microbiome and recycle nutrients for plants. Some methods used by farmers that are showing significant positive results are: #covercropping - One practice that is considered regenerative is cover cropping: planting species that typically won’t be harvested. "Researchers polled roughly 700 farmers, and found an average 9.6% greater maize yield and 11.6% greater soya bean yield during the drought on fields in which cover crops had been grown." #croprotation is generally understoid as "rotating different crops, including cover crops, on the same field over time, or by planting several crops on the same field at the same time"..."Swapping out crops, rather than growing the same monoculture on the same field for years on end, can improve soil health without sacrificing productivity," Rich Smith, an agricultural ecologist at the University of New Hampshire in Durham. "A review of 20 studies that analysed the effects of crop rotation on soil life found that rotating various species increased the amount of microorganisms in soil by about 15% compared with monoculture fields, and boosted microbial diversity by more than 3%." The conclusion: soil health is important to enrich biodiversity in our #foodsystems and biodiverse farms are a critical to improve #foodsecurity. #whatiamreading #foodforthought #learningfocus #farmimprovement #climatechange #climateresilience #climateresilientagriculture
Dola Mohapatra’s Post
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It's been nearly a month since we hosted the 3rd annual Soil Health Forum here at Bona Gård, Munsö Sweden. Attended by conventional, organic, conservation and regenerative farmers alike, the salient conversations pivoted around the practical elements of design, innovation and execution of best soil care practices. We hosted Joel Williams of Integrated soils, Sarah Singla (famous for her 10% SOM) through cover cropping, George Sly of Horizon drills, and Josef Appel, the innovative Swedish farmer. The takeaway for me pivoted around cover cropping, this almost seems like a lost art, to the detriment of our soils and farms. As I'm sure the most of you know, diverse cover crops, deliver a whole host of benefits to our soils and ecosystems, contributing vastly to the improved capacity of soil carbon cycling, improving soil porosity whilst mobilising and delivering bioavailable nutrition to plants whilst also suppressing pathogens. I don't think I could ever over emphasise how vital cover cropping is to the restoration of our soils. Mastering the art of farming, we must acquire a significant volume of knowledge, everything from biophysics, systems dynamics, economics, soil science, chemistry, mechanics and machine operation, plant physiology and a whole host more. I think it's this complex nature of farming, which has led us to a specialist driven approach which doesn't readily harmonise with a generalists profession such as farming. The conference is aimed to equip farmers with powerful tools and knowledge that can be applied at scale to tired, agricultural soils. Bona Gård is a working example of how we can accelerate and mediate in this process. I presented and instructed farmers on the ins and outs of production and application of Compost Extracts, discussing their remarkable capacity to inoculate soils and more specifically the spermosphere of seeds (an important microbial habitat that contributes to the plant-microbe interactions, suppressing soil pathogens whilst improving seedling vigour). Compost extracts are considered the low hanging fruit, and the biggest bang for the buck for farmers to adopt into their working models. In summary, it was a pleasure to attend, and to work with other professionals in their field (no pun intended), who aim to move the industry from our heavy handed approach to soil care that ensures their productivity increases through time and space. When our baseline moves from seeing soil as a static medium to a process oriented, dynamic, living, breathing medium, requiring consistent flows of sunlight energy, and minimal disturbance only then can we build "real" fertility, and adjust our management practices accordingly. The conference was aimed at achieving this as quickly as possible. The hunger for information was tangible, and it was a real pleasure to participate. Thanks to Cilla Kristoffersson, Adam Gierrta and all the crew who made the event possible.
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🌱 #Organic Farming vs. #Regenerative #Agriculture🌱 I personally have witnessed arguments asserting the superiority of one over the other. Is that true? In this post, I'll cover both, define them, explore differences, delve into costs, and discuss why one might choose each. 🔍 Definitions: 🌱Organic #Farming: #Organic farming prioritizes natural methods to cultivate crops and raise livestock, eschewing synthetic pesticides, #fertilizers, and GMOs. It focuses on maintaining soil health, biodiversity, and ecosystem balance through practices such as crop rotation, composting, and biological pest control. 🌱Regenerative Agriculture: Regenerative agriculture goes beyond organic practices by actively restoring and enhancing the health of agricultural ecosystems. It emphasizes soil regeneration, #biodiversity promotion, water conservation, and #carbon sequestration as integral components of farming systems. By mimicking natural processes, regenerative agriculture aims to improve soil health, mitigate climate change, and foster resilience in the face of environmental challenges. 👨🔧 Technical Differences: 🌿Approach to #Soil Health: While both approaches prioritize soil health, regenerative agriculture places greater emphasis on rebuilding soil organic matter, enhancing soil structure, and fostering microbial diversity through techniques like cover cropping, #no_till #farming, and holistic #grazing. 🌿Carbon Sequestration: Regenerative agriculture actively sequesters carbon dioxide from the atmosphere into the soil, helping #mitigate #climate change, whereas organic farming may also contribute to carbon storage but to a lesser extent. 🌿Biodiversity Conservation: Both approaches promote biodiversity, but regenerative agriculture often integrates agroforestry, multi-species cover #cropping, and habitat restoration to enhance #ecological resilience and #ecosystem services. 💰 Cost and #Benefits Considerations in #Europe, applicable to both North #America and Europe: The initial #investment for regenerative agriculture typically falls between €900 and €2200 per acre, while for organic farming, it ranges from €750 to €1900 per acre. However, the long-term benefits per acre are notably higher for regenerative agriculture, ranging from €1900 to €5200 annually, compared to €1000 to €2800 annually for organic farming. 🤔 Why Choose Each Approach? 🌿Organic Farming: Ideal for reducing synthetic inputs, fostering biodiversity, and meeting consumer demand for organic goods. It provides certification and a market niche for transparency and credibility. 🌿Regenerative Agriculture: Optimal for rejuvenating depleted landscapes, improving ecosystem services, and fortifying against climate challenges. It takes a holistic approach to farming, addressing environmental, social, and economic sustainability, in line with broader ecosystem and community regeneration goals. Now, which one do you prefer now? #RegenerativeAgriculture #OrganicFarming
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The Vital Role of Earthworms in Agroecology Earthworms are crucial for soil health and sustainable agriculture, acting as detritivores that consume decaying organic matter. They form symbiotic relationships with beneficial bacteria, aiding nutrient breakdown and availability for plants. Key bacteria include nitrogen-fixing, phosphate-solubilizing, and potash-mobilizing species, which enhance soil fertility and suppress pathogens. Earthworms improve soil structure, nutrient cycling, and organic matter incorporation, while promoting soil aggregation and pest control. Their interactions with beneficial bacteria significantly contribute to agroecological systems, making them essential for sustainable farming practices. Encouraging earthworm populations can lead to more resilient agricultural landscapes.
Earthworms: Unsung Heroes of Agroecology
vksnf.geoscientifix.com
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Tree crops—for example, apple, cherry, olives, nuts, coffee, and cacao—cover more than 183 million hectares worldwide, yet remain largely overlooked in agricultural policies, despite their critical role in achieving the United Nation's Sustainable Development Goals (SDGs). https://lnkd.in/gA-EifSE
Overlooked tree crops are crucial for sustainable development, researchers say
phys.org
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Interesting to learn about #regenerative #agriculture in the US, it's current low adoption despite it's huge potential. 🤯🌍 Abstract of the study by McKenzie Group Consulting: "The following sections focus primarily on no-till and cover-cropping practices because these tend to yield more crops for farmers growing corn and soy on land in the Corn Belt.5 No-till farming grows crops without digging, disrupting, or overturning the soil, which helps reduce #soil #erosion. Cover crops are planted to protect and revitalize soil rather than being harvested or consumed. This improves #microbial activity, enhances #nitrogen availability, and reduces pollution risks. Corn and soy are two of the largest crops in the United States, covering nearly 180 million acres across the country.6 By achieving 80 percent adoption of no-till and cover cropping regenerative practices, American corn and soy farmers could reap an incremental economic value of up to $250 billion7 over a decade because of the potential for net income increase, land value appreciation resulting from higher productivity, and ecosystem payments (such as carbon credits and biodiversity credit payments). According to McKinsey analysis, farmers who implement both no-till and cover cropping can anticipate yields that are 10 to 30 percent higher, on average, than those of their conventional peers, which means that the same amount of food can be produced using 10 to 25 percent less land." https://lnkd.in/gdMFsmn4
Revitalizing fields and balance sheets through regenerative farming
mckinsey.com
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AQUAPONIC PEOPLE STORIES #2 This week we have a triple interview: Cristina Pablos, Cristina Ramírez and Mariló Molina, respectively Assistant Professor, Lab technician and PhD student at Univesity Rey of Juan Carlos, located in Spain and partner of AWARE. 🎤️ How would you describe your day-to-day tasks at the aquaponic farm? The tasks begin with the maintenance of the system, the care of the fish and the conservation of the lettuce. This is the most dynamic part of the project. On the other hand, we continue with the analysis and monitoring of the different parts of the aquaponic farm 🎤️ What kind of fish and plants are grown at your aquaponic farm? Tilapia and Lettuce 🎤️ What types of aquaponic systems are used at your farm? RAS (Recirculation Aquaponic System) 🎤️ What are the biggest challenges that you are facing in working at an aquaponic farm? Cristina R: Ensuring fish welfare and fish survival. Mariló: Early detection of any anomaly or change in the system. 🎤️ What makes your aquaponic farm different from others? It is part of a research study to evaluate if reclaimed wastewater may be acceptable to be used to grow fish, reducing water consumption. Our main challenge is to investigate about different photooxidation technologies able to reduce antibiotic resistance and other micropollutants to try to generate a reclaimed wastewater with water quality equal to drinking water 🎤️ What would you like to improve in your aquaponics system? To reduce its water footprint and to enhance water quality within the RAS 🎤️ What do you think are the skills and knowledge required to be successful in this field? Some chemistry fundamentals, e.g. parameters in water quality which may negatively affect fish As aquaponics are free from chemical fertilizers and crop protection chemicals, with fish waste serving as the prime nutrients for plants, the demand for organically grown crops holds high potential. Not only higher quality in produce but also local, resilient and sustainable produce may be produced without compromising soil and water sources.. And also basic knowledge to identificate how fish behaviour may be used as welfare indicator. 🎤️ What is the future outlook for the aquaponics industry? As aquaponics are free from chemical fertilizers and crop protection chemicals, with fish waste serving as the prime nutrients for plants, the demand for organically grown crops holds high potential. Not only higher quality in produce but also local, resilient and sustainable produce may be produced without compromising soil and water sources. 🎤️ What advice would you give to someone interested in working in aquaponics? We encourage them, it must be something that should be even taught when you are a kid, and prototypes should be implemented in school and universities #aquaponics, #aquaculture, #circularity, #EUresearch #awareponics #interview Universidad Rey Juan Carlos Cristina Pablos Carro Cristina Ramirez Marilo Molina
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The Hidden Costs of Bare Soil: In agriculture, every decision impacts the intricate systems that sustain crop production and ecosystem health. One practice that continues to demand scrutiny is leaving soil bare. While seemingly benign, bare soil introduces a cascade of challenges that compromise both short-term productivity and long-term sustainability. Why are bare soils costly: 1. Erosion: A Silent Soil Thief Bare soil is highly susceptible to erosion, with rain and wind as the primary culprits. Without plant roots to anchor the soil, water runoff accelerates, stripping away nutrient-rich topsoil at alarming rates. According to studies, it takes 500 years to form just 2.5 cm of topsoil under natural conditions. Yet, bare soil can lose this layer in a single storm event, depleting one of our most vital resources for food security. 2. Soil Organic Matter Depletion Exposed soil is a fast track to organic matter loss. Microbial communities that contribute to nutrient cycling thrive under cover. When soil is bare, increased oxidation leads to the release of carbon into the atmosphere as CO₂, exacerbating climate change and reducing soil fertility. Research shows that fields with continuous cover can increase organic carbon stocks by 25-40% over a decade compared to bare soil systems. 3. Water Infiltration and Retention Challenges Bare soil leads to surface crusting, which reduces water infiltration. The resulting compaction further limits the soil's ability to hold water, making crops more vulnerable to drought stress. Conversely, soils under vegetative cover or with cover crops maintain better porosity and water-holding capacity. 4. Microbial and Biological Diversity Loss The soil microbiome thrives in shaded, moisture-stable environments provided by plant cover. Bare soil disrupts this balance, reducing microbial diversity and impairing key processes such as nitrogen fixation and pathogen suppression. A rich soil microbiome underpins crop health, and its loss has a direct economic impact on yields. 5. Increased Weed Pressure and Herbicide Dependence Exposed soil is a haven for weeds, leading to increased herbicide applications. This not only elevates production costs but also contributes to herbicide resistance. Integrated weed management practices, including cover crops, can suppress weed growth naturally while enriching the soil. The Solution: Keep yours soil covered Transitioning to practices such as cover cropping, intercropping, and reduced tillage can dramatically reduce the negative impacts of bare soil. These strategies protect the soil surface, foster biological activity, and sequester carbon. As stewards of the land, we must challenge traditional practices and embrace regenerative solutions. The science is clear: bare soil is an unsustainable legacy we can no longer afford to pass on. #SoilHealth #RegenerativeAgriculture #SustainableFarming #CarbonSequestration
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What Are Cover Crops and How Do They Benefit the Environment? Cover crops are plants grown primarily to improve soil health and prevent erosion, rather than for harvest. They play a crucial role in sustainable agriculture by enhancing soil structure and fertility. Benefits of Cover Crops: 1. Soil Erosion Prevention: Cover crops protect soil from wind and water erosion by stabilizing the soil with their root systems. This helps maintain soil integrity and reduces the loss of valuable topsoil. 2. Soil Health Improvement: These crops enrich the soil by adding organic matter, which improves soil structure, water-holding capacity, and nutrient availability. This leads to healthier plants and better crop yields. 3. Weed Suppression: By covering the soil, these plants inhibit weed growth by blocking sunlight and competing for resources. This reduces the need for chemical herbicides. 4. Nutrient Management: Some cover crops, like legumes, fix nitrogen from the air into the soil, reducing the need for synthetic fertilizers. This process enriches the soil and supports plant growth. 5. Erosion Control: The roots of cover crops help bind the soil together, preventing it from being washed away during heavy rains. This is particularly important for maintaining fertile topsoil. Types of Cover Crops: - Legumes (e.g., clover, vetch): Add nitrogen to the soil. - Grasses (e.g., rye, oats): Improve soil structure and reduce erosion. - Brassicas (e.g., radishes): Break up compacted soil and add organic matter. At our self-sustainable city project, we use cover crops to enhance soil health and promote sustainable farming practices. Learn more about how we're implementing these strategies by visiting Self-Sustainable City. Join us in nurturing the land for a greener future! #CoverCrops #SoilHealth #SustainableFarming #EcoFriendly #SelfSustainableCity https://lnkd.in/gNuxR6ED
What are Cover Crops?
ramakrishnasurathu.blogspot.com
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What Is Biodynamic Agriculture and How Does It Benefit Us? Biodynamic agriculture is an advanced method of farming that goes beyond organic practices. It’s rooted in a holistic approach that views the farm as a self-sustaining ecosystem. This method emphasizes the interconnection between soil, plants, animals, and cosmic rhythms to create a balanced and productive farm. Key Principles of Biodynamic Agriculture: 1. Soil Health: Biodynamic farming prioritizes soil vitality. It uses compost and natural fertilizers to enhance soil fertility and structure. These practices promote microbial activity and soil health, leading to better crop yields and resilience. 2. Cosmic Rhythms: A unique aspect of biodynamic agriculture is its focus on celestial influences. Farmers plan their activities based on lunar and planetary cycles, believing that these cosmic rhythms impact plant growth and soil conditions. 3. Biodiversity: Biodynamic farms incorporate a variety of plants and animals to create a balanced ecosystem. This diversity supports natural pest control, reduces disease, and improves overall farm resilience. 4. Sustainable Practices: This method avoids synthetic chemicals and genetically modified organisms. Instead, it relies on natural methods to manage pests and diseases, conserving resources and protecting the environment. 5. Farm as a Living Organism: The farm is seen as a living system, with every part contributing to the whole. This holistic view ensures that all elements of the farm work together harmoniously, from the crops and soil to the livestock and composting systems. By integrating these principles, biodynamic agriculture fosters a more resilient and sustainable farming system. It not only produces high-quality, nutritious food but also supports environmental health and biodiversity. At our self-sustainable city project, we are embracing biodynamic agriculture to enhance our farming practices. Our approach ensures that our community benefits from nutritious, eco-friendly food while contributing to a healthier planet. Discover more about how we’re implementing these principles and how you can get involved by visiting our website. #BiodynamicAgriculture #SustainableFarming #EcoFriendly #SoilHealth #FarmToTable #OrganicFarming #SelfSustainableCity #GreenLiving https://lnkd.in/gq_aQTk6
What is Biodynamic Agriculture?
ramakrishnasurathu.blogspot.com
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What Is Crop Rotation and Why Is It Essential? Crop rotation is the practice of growing different types of crops in the same area across a sequence of seasons. This agricultural strategy improves soil health, boosts crop yields, and helps manage pests and diseases. Key Benefits of Crop Rotation: 1. Soil Fertility: Rotating crops helps replenish soil nutrients that specific plants may deplete. For instance, legumes like beans and peas fix nitrogen in the soil, benefiting subsequent crops. 2. Pest and Disease Management: Different crops can break the life cycles of pests and diseases, reducing their prevalence. By avoiding monoculture (growing the same crop year after year), you disrupt the habitat for pests. 3. Weed Control: Changing crops can prevent the dominance of specific weeds, as different plants have varying growth patterns that compete differently with weeds. 4. Soil Structure and Erosion Control: Different root structures help improve soil aeration and reduce erosion. Deep-rooted plants can break up compacted soil, while ground cover crops protect against erosion. 5. Increased Biodiversity: Crop rotation promotes a diverse ecosystem, which enhances soil health and resilience. Biodiversity supports a balanced environment, benefiting the entire farm system. How to Implement Crop Rotation: - Plan Your Rotation: Develop a plan that includes a variety of crops, considering their nutrient needs and growth habits. - Follow a Cycle: Typically, a 3-4 year cycle is effective, where you rotate among legumes, cereals, and root crops. - Monitor Soil Health: Regularly check soil conditions and adjust your rotation plan based on observed needs. At our self-sustainable city project, we incorporate crop rotation to maintain soil vitality and ensure productive, sustainable agriculture. Discover how we're using this practice to build a resilient community by visiting Self-Sustainable City. Join us in fostering a greener future! #CropRotation #SustainableFarming #SoilHealth #Agriculture #SelfSustainableCity https://lnkd.in/gZbBGw2H
What is Crop Rotation?
ramakrishnasurathu.blogspot.com
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