Agriculture Management Practices

Our current food production system, with agriculture at its core, is the single largest driver of planetary boundary transgression. The same system, however, can become part of the solution. In our new review in Global Sustainability, we assess the global evidence on Conservation Agriculture, based on 3 principles: no soil disturbance, permanent soil cover, and diversified crop rotations. The evidence is clear: Conservation Agriculture has expanded from ca. 100 to 200 million hectares in just a decade and now covers about 15% of global cropland. It could reach 50% by 2050. Converting cropland to Conservation Agriculture can sequester around 0.5 to 0.9 tonnes of carbon per hectare per year, potentially about 0.4–0.8 gigatonnes of carbon annually at global scale, while cutting fuel use by up to 70%. Healthier soils mean higher water retention, less erosion and greater resilience to droughts and floods. Conservation Agriculture on its own will not solve all food system challenges, but it is difficult to find a more ready-to-scale transformation in land management that addresses climate, biodiversity, freshwater, and soil degradation at once. It can be adopted at scale and speed, i.e., across all agro-ecological zones within the coming 1–2 decades. To operate within planetary boundaries, we need both an energy transition and a soil transition. Healthy soils are foundational to food security and Earth system stability. https://lnkd.in/dUTG3DSi

🚨 Why Farmers Stay Poor: Are Finance Models Designed to Fail Them? It’s not the weather. It’s not the soil. It’s the system. For decades, financial models in agriculture have appeared to support farmers, yet poverty persists like a crop that won’t die. But why? Because the system is designed to finance the input, not the impact. Farmers are given loans to buy seeds and fertilizer only to sell low and borrow again. This is not empowerment. It’s a financial treadmill. Here’s the uncomfortable truth: > Most agricultural finance schemes were designed for lenders to manage risk not for farmers to build wealth < Three systemic design flaws that keep farmers trapped: 1. Short-term loans for long-term crops: Cash crops like coffee, banana, or avocado need patient capital. But most agri-loans are seasonal, forcing early harvests and losses. 2. Collateral bias: Land titles or assets are demanded, excluding women and youth who ironically are the ones farming most. 3. Profit blindness: No financing model asks: Will this farmer actually make money from this season? It assumes yield = success. But yield doesn’t pay school fees. Profits do. We don’t need more credit. We need credit designed for context. So what’s the solution? 📌 Agri-finance products co-designed with farmer groups. 📌 Flexible repayment systems linked to harvest cycles, not calendar months. 📌 Data-informed risk scoring using real-time climate and market data. 📌 Incentives for banks to finance regenerative and value-adding models, not just inputs. In 2025, agricultural finance must go beyond transactions to build transformation. If you're building a new finance product, running an agri-startup, or investing in food systems and you’re not thinking about this you’re building on sand. Let’s create capital that liberates, not entraps. National Agricultural Research Organisation - NARO FAO M-Omulimisa Enimiro Uganda Avotein Farms Limited Amabanda Uganda Limited Emata Shambapro AgriLink Uganda AgriProFocus Uganda Solidaridad East and Central Africa AGRA Are you curious on how I can redesign your agri-finance approach to actually build farmer wealth? Let’s connect. #Agribusiness #Agrifinance #InclusiveFinance #UgandaAgriculture #Agritech #SmallholderFarmers #Agripreneurs #AgriPolicy #FintechForFarmers #TheAgrithinkersTimes #AgriWealthStrategies #ClimateSmartFinance

How do you identify trends in your herd? And how crucial data management has become? Dairy farms today generate vast amounts of data, crucial for refining herd management and operational efficiency. With a mix of manual and automated data collection, dairy farmers rely heavily on systems that monitor animal health, feed intake, reproductive status, and environmental conditions. As the volume of information increases, managing this data efficiently becomes essential. To avoid becoming overwhelmed, farms need clear strategies for data organization, integration, and utilization, all while carefully considering the return on any technology investment. Key to effective data use is consistent and standardized data entry, which allows for accurate trend analysis across time. This enables farmers to spot health issues early, monitor productivity, and adjust management practices proactively. Without standardized classifications and consistent record-keeping, trends are hard to identify, potentially leading to missed opportunities for intervention and improvement. System compatibility is another critical factor. If new software or equipment can’t integrate with existing herd management systems, it can create data silos, impeding access to valuable insights. By ensuring compatibility, farms can build a cohesive data environment, linking information from various sources into a single, accessible system. This integration supports seamless data flow and facilitates national data-sharing initiatives, ultimately contributing to herd and industry-wide improvements. Purpose-driven data collection is also vital; collecting information should have a clear goal. Farmers are increasingly selective about adding new data streams, questioning whether additional data will provide actionable insights or if existing systems can be refined to capture necessary information. This approach minimizes wasted resources on redundant data collection and ensures that each data point serves a functional purpose in improving herd management. Lastly, knowing where and how to store data for easy retrieval is crucial. Organized data storage allows farmers to revisit information efficiently, track historical trends, and comply with broader data-sharing programs. Without a structured approach, valuable data may be underutilized, limiting its potential to drive decision-making and improvements at the farm level and within the dairy industry at large. 1. #Agribusiness 2. #DairyFarming 3. #DairyIndustry 4. #LivestockProduction 5. #DairyFarmers 6. #DairyCattle

There is a strong momentum in development of National Agroecology Strategies (NAS) in Africa! In a new brief, the Policy and Advocacy Team at Biovision Foundation has detailed developments in Eastern and Southern Africa, and key lessons learned. This is not desk research. Farmer and civil society organizations and government representatives have a Community of Practice among those working on national strategies and have just completed a second 13 nation peer-to-peer exchange in Dakar, Senegal, bringing together both organic and agroecological movements. In a coming brief, we will summarize these latest lessons learned, also on the issues actors zoomed in on in Dakar: finance mechanisms, implementation pathways and advocacy strategies for domestic and external funding. The 4-pager on current status (see link in comments) covers Kenya and Tanzania, that are 1-2 years into implementation, and gives a status for Ethiopia, Malawi, Uganda, South Africa, Zambia and Zimbabwe that are finalizing or now initiating or doing stakeholder consultations for their own strategies. For each country there are also key features such as: ➡️ Priority focus areas in each country (e.g. smallholder farmer knowledge, access to bio-inputs, market development) ➡️ Degree of government engagement and alignment with national goals ➡️ Where local governments are mobilized in scaling agroecology And there is a graphic (see below) showing the 4 objectives covering the food value chain, and 4 cross-cutting objectives found in most national strategies, despite their many differences. Finally, a one-pager summarizes some lessons already learned about some of the tougher challenges, for example: ✅  Resource mobilization ✅  Creating political will and government engagement ✅  Positioning agroecology as a pillar of policies for food security, climate and biodiversity ✅  Ensuring investments in frontline farmer-led and civil society organisations that are needed catalysts and implementers of national strategies. ✅  Building in cross cutting measures for social equity and inclusiveness. ✅  Securing strong interventions for both production and market development ✅  Making each policy measure truly actionable and impactful. Policy is a key piece for food systems change through agroecology. It's not easy. But stakeholders across Africa are getting traction and are inspiring actors worldwide! #agroecology #organic #organicfarming

Not everything with a “green” label grows trust in the field. Farmers today are told: 🗣Use biopesticides. 🗣Try organic fertilizers. 🗣Switch to microbe-based solutions. 🗣Add biostimulants for better yield. Sounds good, right? Sustainable. Safe. Smart. But here’s the bitter truth: 🔍Many of these so-called “natural” products are just renamed chemicals, diluted microbes, or empty promises. ❌ No proof. ❌ No performance. Just packaging. This isn’t innovation. It’s greenwashing.🗣🟢 And it’s costing farmers their money, their soil, and their faith in science. I’ve seen microbial fertilizers that claim to improve root growth but contain dead microbes. Biopesticides that promise safety but leave crops unprotected. Biostimulants with big words and zero effect. Farming is not a lab experiment. It’s a life’s work. And farmers deserve truth, not trends. So how do we protect ourselves? ✔ Ask for independent validation. ✔ Look for shelf-life data. ✔ Demand transparency—what strains, what carriers, what mechanisms? Because sustainability isn’t about being “natural.” It’s about being honest, effective, and farmer-first. We need fewer buzzwords and more trust in the field. #SoilHealth #SustainableFarming

One of the most pressing issues facing agriculture in the US is the rapid and continued depletion of ground water in our most important food producing regions. Compounding this is the degradation of farmland's ability to capture, store and cycle rainwater. The Ogallala Aquifer supports 30% of US irrigation and has lost 286 million acre-feet since agricultural development. Portions of Kansas and Texas are on pace for complete depletion in 20-50 years. Natural recharge is under one inch annually and full replenishment would take 6,000 years. California's Central Valley, producing 25% of national food supply, pumps groundwater 5x faster than its rate of recharge. The land has subsided up to 28 feet, permanently destroying aquifer storage capacity. Yet this damage pales in comparison to the disruption of the small water cycle. The small water cycle depends on vegetation recycling moisture through evapotranspiration, which generates over 50% of precipitation in most river basins. This "green water" accounts for 4-5x more agricultural water use than the "blue water" drawn from aquifers and rivers. When soil is disturbed and left bare, this pump fails. Bare agricultural soil reaches temperatures 24°C higher than vegetated areas, creating heat islands that repel rainfall and eliminate evaporative cooling. US agricultural soils have lost 50% of original organic matter over that last century. Each 1% increase in organic matter allows soil to hold 20,000 additional gallons of water per acre. Losing 3-4% organic matter means farmland now stores tens of thousands fewer gallons per acre, reducing drought resilience and increasing runoff. Conventional agriculture accelerates this by collapsing soil aggregates through excessive tillage, leaving fields bare, applying synthetic fertilizers that accelerate organic matter decomposition, disrupting soil microbiology with pesticide applications and compacting soil with heavy machinery. Unlike aquifer depletion, the small water cycle can be repaired rapidly. Continuous living roots maintain the pore structure for infiltration. Growing roots open channels, decaying roots leave voids, and root exudates feed aggregate-building microorganisms. A functional and diverse soil microbiome produces biological glues that create water-stable aggregates. These networks increase hydraulic conductivity while enhancing water storage. Permanent soil cover reduces evaporation, prevents raindrop impact from sealing surfaces, and maintains biological activity. Integrated biological diversity drives the feedback loops between soil carbon, water retention, and climate regulation. Diverse rotations, livestock integration, and perennial crops restore landscape-scale water cycling. Aquifer depletion, in large part, cannot be undone. But restoring the small water cycle offers an immediate opportunity to rebuild and maintain agricultural water security.

🌱 Agroecology in Action: Smart Intercropping for Sustainable Productivity This is a practical example of agroecology at work — integrating papaya trees with chili production in a well-planned, diversified farming system. Instead of monocropping, this system demonstrates how ecological principles can improve productivity, income stability, and soil health simultaneously. ### 🌿 Why This System Works 1️⃣ Vertical Layering (Multi-Strata Farming) Papaya occupies the upper canopy while chili grows below. This maximizes sunlight use and increases productivity per unit area without competing aggressively for resources. 2️⃣ Soil Health Management The use of mulching: * Conserves soil moisture * Suppresses weeds * Reduces soil erosion * Enhances microbial activity Healthy soils are the foundation of resilient agriculture. 3️⃣ Diversified Income Streams Farmers harvest chili in the short term while waiting for papaya to mature. This improves: * Cash flow * Risk management * Household income stability If one crop faces market or climate challenges, the other cushions the farmer. 4️⃣ Natural Pest & Disease Regulation Crop diversity reduces pest buildup common in monoculture systems. Agroecological farms rely more on ecological balance and less on excessive chemical inputs. **5️⃣ Climate-Smart Agriculture** This system: * Improves water efficiency * Enhances carbon sequestration * Builds resilience against erratic rainfall Diversification is one of the strongest climate adaptation strategies for smallholder farmers. --- ### 📌 Key Takeaway Agroecology is not just theory — it is practical, profitable, and scalable. By integrating crops strategically, farmers can: ✔ Increase productivity per acre ✔ Reduce production costs ✔ Improve soil fertility ✔ Strengthen climate resilience ✔ Promote food and nutrition security This is the future of sustainable farming — productive landscapes that work with nature, not against it. #Agroecology #ClimateSmartAgriculture #SustainableFarming #SoilHealth #Intercropping #FoodSecurity #SmallholderFarmers #RegenerativeAgriculture #laikipia

At the IDB, we are committed to working with data to improve our projects and the technical work we do with countries. A great example is the new standardized and updated database that brings together annual statistics on agricultural productivity and input use, with comparability between 25 countries and across the years 1961–2021. The tool is aimed at researchers, policymakers, and development professionals who seek to monitor the evolution of agricultural productivity, assess efficiency in input use, and inform strategic decisions in the agricultural sector. 🔸The database is innovative because it includes three Total Factor Productivity indices — Hicks-Moorsteen, Fare-Primont, and Lowe — which allow for comparability between different calculation methodologies. 🔸It includes the new Sustainable Productivity Index, developed by International Food Policy Research Institute (IFPRI) and Banco Interamericano de Desarrollo, which analyzes productivity from an environmental sustainability perspective by considering unwanted outputs from the agricultural process. These advances are complemented by disaggregated data on inputs such as land, labor, machinery, and fertilizers from FAO and USDA, expressed in constant prices, standardized physical units, or as indices. All information is integrated into a platform with replicable methodologies, comparable data, and ready for analysis. In a few months, we will unveil a study on agricultural productivity that crunches the numbers with analysis and policy recommendations. In the meantime, I invite you to use the new database to support decisions that drive more sustainable agriculture in Latin America and the Caribbean. 👇 https://lnkd.in/ebHb7SSi Lina Salazar Pedro Martel Fabrizio Opertti

Transforming Agriculture: Key to Achieving Viksit Bharat by 2047 As we march towards the monumental milestone of India's 100th year of independence, it's imperative to reflect on the path forward. In envisioning a Viksit Bharat by 2047, one crucial aspect stands out: the transformation of agriculture. Recently had an opportunity to address a large gathering of students from across the country as part of the "Transcendence..Xenz: National Conference on Agenda of Viksit Bharat 2047" at the Kadi Sarva Vishwavidyalaya. I thank Dr. Bhavin Pandya and the organizers for the opportunity to engage with the young minds and motivate them to make a career in agriculture. Agriculture has been the backbone of India's economy for centuries, employing a significant portion of our population and contributing significantly to our GDP. However, to propel India into a developed nation status with an anticipated GDP of USD 30 trillion, we must reimagine and revitalize our agricultural sector. Some key points to consider: 1. Modernization and Technology Integration: Embracing modern agricultural practices and leveraging cutting-edge technologies such as precision farming, IoT, and AI can revolutionize productivity and efficiency. Empowering farmers with access to these tools can lead to sustainable growth and increased yields. 2. Infrastructure Development: Enhancing rural infrastructure including irrigation systems, transportation networks, and storage facilities is paramount. Improving connectivity and access to markets will enable farmers to sell their produce at fair prices and reduce post-harvest losses. 3. Diversification and Sustainable Practices: Encouraging crop diversification and promoting sustainable farming techniques can mitigate risks associated with climate change and ensure long-term viability. Embracing organic farming and agroforestry can enhance soil health, conserve water, and preserve biodiversity. 4. Market Reforms and Agribusiness: Implementing policy reforms to liberalize agricultural markets and facilitate private investment can spur growth and innovation. Encouraging the development of agribusinesses and food processing industries can add value to agricultural products and create employment opportunities. 5. Skill Development and Education: Investing in agricultural education and training programs can empower the next generation with the knowledge and skills needed to adopt modern practices. Promoting entrepreneurship in agriculture can unlock the potential for agri-startups and agri-tech ventures. Achieving Viksit Bharat by 2047 necessitates a paradigm shift in how we approach agriculture. By embracing innovation, sustainability, and inclusivity, we can unleash the full potential of our agricultural sector and pave the way for a prosperous and resilient India. Let us embark on this transformative journey together, ensuring that no farmer is left behind, and realizing the vision of a vibrant and thriving Bharat.

Japan is taking a fresh approach to food transparency by adding farmer photos and detailed origin information directly onto food packaging. According to Oh Epic, this initiative is part of the country’s Teikei system, a community-supported agriculture model that connects consumers with local producers. By showing the faces of farmers and sharing how the food was grown, the system builds trust and encourages people to support ethical, local agriculture. This packaging strategy goes beyond marketing. According to LinkedIn, Japan has strict labeling laws that reward honesty and penalize misleading claims, making transparency a cultural and legal priority. Including farmer photos helps consumers feel more confident about what they’re buying and creates a sense of connection to the people behind their food. Technology is also playing a role. Some producers are using QR codes and mobile apps that let shoppers trace the journey of their food from farm to shelf. This digital layer of transparency supports Japan’s broader push for sustainable and traceable food systems, while also helping small farms stand out in a competitive market. There is a pride of their work in product that they made. In Toyota is known as Ji Koutei Kanketsu!