Strategies to Drive Change in Agriculture

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.

A fun conversation with Alexander Prinsen on the new Dutch podcast Nieuw Vore about how we made Denmark a leader in organic food and farming. Lessons replicable in other nations. Some great questions about our approach and theory of change. About how we positioned organics in political, market and farm ecosystems, creating an upward spiral of action, motivating all actors and growing organics in farming and in the market. We covered many key elements in how we: ✅ Partnered with retailers to achieve organic market shares of 30-60% for staple foods such as milk, eggs, flour and many fruits and veggies ✅ Democratized organics and communicated value to consumers making organics visible, affordable and meaningful. Organics are for everyone! ✅ Built capacity in Organic Denmark and the organic ecosystem at large to drive change in the market, in policy and in farming. This catalytic piece is missing in most countries across continents, hampering growth in the organic sector and achievement of key goals like the EU goal of 25% organic. Governments and food companies need to see the importance of investing in organic associations as motors for change. ✅ Focused on motivation factors for all actors needed to drive change, from farmers and food companies to retailers and kitchen workers. And politicians across the political spectrum of the 12 parties in the parliament. Highlighting how organic delivers to diverse agendas--their agendas-- in farming, nature, rural livelihoods, climate, animal welfare and for soil, drinking water and food without pesticide residues. ✅ LISTENED to supply chain actors, politicians and leaders in the environmental, farming, animal welfare, consumer, plant-based and climate organizations in order to improve organics, solve problems and gain allies. ✅ Built on the strong cooperative movement in farming, Denmark’s (often) collaborative culture and activist tradition in agricultural policy, challenging dominant thinking while mobilizing these strengths to grow organics I also shared: ➡️ The need for gamechangers that level the playing field for prices in the market where the cheapest products have high costs for people and planet. We need lower VAT on organic products and fees for use of damaging pesticides, and excessive use of nitrogen and antibiotics. ➡️ Some lessons from recent work on policy development in Africa and in the Netherlands, where I collaborated with BioNederland and the Government on a Dutch strategy for a new policy framework and market development strategy, as well as the national Organic Action Plan and market development policies. Organic policy, market partnerships and strong organic associations can drive change! #organic #organicfarming IFOAM - Organics International, IFOAM Organics Europe https://lnkd.in/dYPsqp4n

The agricultural chemical industry, much like the broader chemical sector, is at the forefront of a seismic shift. We are no longer talking about incremental change, this is a wholesale transformation driven by technology and evolving market needs. In my journey within this sector, I’ve witnessed how digital tools are reshaping what’s possible, not just in terms of efficiency but in how we create value for our stakeholders and contribute to sustainability. The trends emerging today are redefining our future. Take precision agriculture, for example. The integration of IoT, AI, and GPS is empowering farmers with unprecedented precision. Real-time data from fields now guides decisions, ensuring that fertilizers and pesticides are applied exactly where and when they’re needed. The result? Less waste, better yields, and a step forward in sustainable farming. Generative AI and data analytics are accelerating innovation in ways we couldn’t have imagined a decade ago. Designing agrochemical formulations is no longer a slow, linear process, AI can now generate chemical structures with desired properties in record time. Meanwhile, predictive analytics are helping us stay ahead of pest outbreaks and optimize supply chains. Then there’s the rise of digital marketplaces, which are transforming how we connect with our customers. Farmers now have direct access to products, services, and expertise at their fingertips. It’s about more than convenience, it’s about building relationships and empowering communities. One of the most exciting developments is blockchain technology. Transparency and traceability are no longer aspirations; they are realities. By tracking products from farm to fork, we are enhancing food safety, building consumer trust, and strengthening the integrity of our supply chains. Automation and robotics are not just about efficiency, they’re about resilience. From material handling to predictive maintenance, these technologies are reducing downtime and ensuring we meet demand, even in the face of challenges. And we can’t overlook the power of digital twins. These virtual replicas of physical systems are giving us real-time insights into our operations, enabling better decision-making and fostering deeper collaboration with our partners and customers. The common thread in all these advancements is customer-centricity. The best technology is meaningless unless it solves real problems. By developing platforms that allow real-time feedback and communication, we’re not just selling products, we’re co-creating solutions with our customers. As I reflect on these shifts, one thing is clear: digital transformation is no longer optional. It’s an imperative for survival and growth in a competitive, resource-constrained world. The question I often ask myself is: How can we ensure that these advancements don’t just serve us today but leave a legacy for the generations to come? I’d love to hear your thoughts. #AgricultureInnovation

Why is regenerative agriculture the best strategy for the future of farming? 🌱 👏 The planet doesn’t care about the environment. It will survive. It has four billion years behind it... and just as many ahead. It’s not the planet we need to “save” — it’s our civilization. Our ability to produce food that is healthy, sustainable, and accessible. Our sovereignty. Our stability. We are going through an adolescent crisis in our relationship with life, performance, and the true nature of progress. And agriculture — the foundation of all civilizations — is showing the most visible symptoms. I still hear people say: “Yes, soils are degraded... but we must stay competitive.” But how would restoring soil health make us less competitive? Another common objection: “We don’t know if regenerative techniques are risky… they require changing farmers’ habits.” So… continuing to degrade soils and deplete their natural fertility is less risky? We’ve disconnected yield from resilience, productivity from ecosystem health, supply chains from long-term sustainability. We’ve accepted the destruction of entire ecosystems to produce low-value raw materials — without seeing this destruction as a risk factor. Yet regenerative agriculture projects offer a different path. They bring meaningful disruption, putting soils back at the center of technical, economic, and even moral discussions. Reducing fertilizers and pesticides is no longer enough. We need to revisit the fundamentals of agronomy — and put plants, soils, and living systems back at the heart of technical decisions. This systemic (or holistic) approach is no longer a utopia. It’s becoming self-evident on the ground. Farmers are rediscovering their fields as living ecosystems that give back: natural fertility, soil porosity, climate resilience... The promise is clear: ✅ Less nitrogen and synthetic fertilizers ✅ Less tillage ✅ Lower mechanization and fuel use ✅ Healthier plants ✅ Equal or even better margins Is this a profound shift? Yes. Is it spectacular in the short term? Not always. But in the long run, it’s revolutionary. The challenge is as human as it is technical: We must move from short-term thinking to long-term strategy. From technocratic management to coherent, profitable, and resilient systems. And above all: regenerative agriculture is possible everywhere — from broadacre crops to vineyards, orchards, and livestock. Systems richer in vegetation that dramatically increase photosynthetic yield per hectare. It’s an opportunity for farmers. For value chains. For rural communities. And for our future. What role do regenerative supply chains play in your vision of the future? Risk or opportunity?

🌿 Role of Biodiversity in Climate-Smart Agriculture (CSA) 🌱 1. Introduction Biodiversity refers to the variety of life forms on Earth — plants, animals, microorganisms, and the ecosystems they form. In Climate-Smart Agriculture (CSA), biodiversity acts as a natural insurance system, supporting resilience, productivity, and sustainability. ⸻ 🌾 2. Biodiversity for Productivity Enhancement • Genetic diversity in crops and livestock provides farmers with varieties adapted to drought, salinity, and pests. • Diverse cropping systems (intercropping, crop rotation) enhance soil fertility and pollination. • Microbial diversity improves nutrient cycling and soil health. • Example: Rice–fish farming systems in Asia boost productivity and reduce pest pressure. ⸻ 🌳 3. Biodiversity for Climate Adaptation • Biodiverse farms are more resilient to floods, droughts, and heatwaves. • Agroforestry systems buffer temperature, conserve moisture, and prevent erosion. • Habitat diversity supports beneficial insects and birds for natural pest control. • Example: Shade-grown coffee and cocoa plantations protect soil and provide wildlife habitat. ⸻ 🌍 4. Biodiversity for Climate Mitigation • Forests, pastures, and agroforestry trees capture and store atmospheric carbon. • Diverse root systems enhance soil organic carbon and reduce greenhouse gas emissions. • Legume-based systems fix nitrogen naturally, reducing fertilizer needs. • Example: Mixed legume–cereal systems lower carbon footprints. ⸻ 🐝 5. Biodiversity and Ecosystem Services • Pollination: Bees and insects increase yields of pulses, fruits, and oilseeds. • Pest control: Predators like ladybirds and spiders regulate pest populations. • Nutrient cycling: Earthworms and microbes decompose organic matter. • Water regulation: Vegetative cover improves infiltration and watershed stability. ⸻ 🍀 6. Strategies to Enhance Biodiversity in CSA • Crop diversification (mixed cropping, crop rotation). • Agroforestry (trees with crops and livestock). • Conservation agriculture (minimum tillage, residue retention). • Livestock–crop integration (manure recycling, fodder balance). • Pollinator-friendly landscapes (flowering strips, reduced pesticides). • Community seed banks (preserving local varieties). ⸻ ⚖️ 7. Challenges and the Way Forward • Overuse of chemicals and monocropping reduce biodiversity. • Habitat loss threatens pollinators and soil life. • Solutions: Promote agro-biodiversity policies, farmer training, and nature-based farming. ⸻ 🌈 Conclusion Biodiversity forms the foundation of Climate-Smart Agriculture. It improves resilience, enhances productivity, and helps mitigate climate change. Protecting biodiversity ensures food security and climate stability for generations to come. 🌿🌍🌾

Soil Regeneration Strategies Soil regeneration is crucial for maintaining ecosystem health, improving crop yields, and mitigating climate change. Here are some detailed strategies for regenerating soil: 1. Cover Cropping - Plant cover crops between crop cycles to: - Reduce erosion - Increase organic matter - Enhance soil biodiversity - Improve soil structure 2. Crop Rotation - Rotate crops to: - Break disease and pest cycles - Improve soil fertility - Enhance soil structure - Increase crop yields 3. Organic Amendments - Add organic matter like: - Compost - Manure - Green manure - Mulch - to improve soil fertility, structure, and biodiversity 4. Conservation Tillage - Reduce tillage to: - Minimize soil disturbance - Preserve soil organic matter - Enhance soil biota - Reduce erosion 5. Agroforestry - Integrate trees into agricultural landscapes to: - Enhance soil fertility - Improve soil structure - Increase biodiversity - Provide shade and shelter 6. Integrated Pest Management (IPM) - Use a holistic approach to manage pests and diseases, reducing the need for chemical pesticides and maintaining soil health. 7. Soil Testing and Analysis - Regularly test soil to: - Determine nutrient levels - Identify pH imbalances - Detect contaminants - Inform management decisions 8. Reduced Chemical Use - Minimize 0r eliminate the use 0f synthetic fertilizers and pesticides to: - Reduce soil pollution - Protect soil biota - Promote ecosystem services 9. Grazing Management - Implement rotational grazing and 0ther sustainable grazing practices to: - Improve soil health - Increase pasture productivity - Enhance biodiversity 10. Education and Extension Services - Provide training and support for farmers and land managers to: - Adopt regenerative practices - Improve soil health - Enhance ecosystem services

Great guide released by Unilever to guide the transformation of agricultural supply chains through a structured, principles based sustainability framework. The 2026 Sustainable Agricultural Principles mark a shift away from internal codes toward a model built on third party standards, benchmarking, and alignment across suppliers operating in different contexts. The framework is built around six core areas that define how agriculture is managed across environmental, social, and governance dimensions: • Integrity and responsible business practices • Protection and regeneration of nature • Climate action and resilience • Human rights and social impact • Animal welfare • Continuous improvement across all areas Implementation is structured around external standards: • Suppliers adopt recognized third party certifications • Unilever benchmarks those standards against its principles • Verification relies on existing third party systems Traceability is treated as a core capability: • Chain of custody from origin to delivery • Supply chain mapping to identify risks • Use of geolocation data to improve visibility On the environmental side, the direction is clear: • Soil management, biodiversity protection, and water stewardship • Zero deforestation requirements for key commodities • Stronger controls on pollution and waste Climate is integrated into operations through: • GHG reduction plans and energy management • Adoption of practices such as agroforestry and climate smart agriculture The social dimension focuses on how conditions are implemented: • Elimination of forced and child labor • Fair wages, contracts, and working conditions • Inclusion of smallholders through access to training and markets A key feature is the progression model: • Expected requirements as the baseline • Leading practices to drive continuous improvement For companies sourcing agricultural inputs, this translates into clearer expectations on traceability, standard alignment, and measurable performance across supply chains.

As the agriculture industry shifts towards sustainability, incentivizing this transition is key to driving meaningful changes in both supply chains and the environment. For the AcresUSA September issue of Acres Magazine, I explore how regenerative practices can not only enhance environmental quality and soil carbon stocks but also transform supply chains as a whole: https://lnkd.in/gKqkH7BS. In addition to increasing per-acre profits by decreasing inputs and diversifying income streams, offering market incentives through certifications, such as Regenerative Organic Certification (ROC) or Regenified, can encourage wider adoption of practices such as cover cropping, crop rotation, reduced tillage, and livestock integration. Key Takeaways: 🌱 Economic and Environmental Benefits: Adopting regenerative practices leads to reduced input costs, improved crop yields, and strengthened brand reputation, ensuring both the economic viability and environmental sustainability of supply chains. 🏷️ Incentivizing Regenerative Practices: Certifications such as ROC and EOV play a crucial role in encouraging producers to adopt sustainable farming methods by providing access to premium markets and higher price points. 🌍 Soil Carbon and Supply Chains: Increasing soil carbon through regenerative practices directly impacts supply chains by reducing greenhouse gas emissions, improving soil health, and ensuring the sustainability of agricultural products from farm to consumer. 💰 Premium Pricing and Profitability: Farmers who embrace regenerative practices can command higher prices for their products—up to 30% more for regeneratively farmed goods—while also seeing a 20-30% increase in profitability over five years. By linking soil health to supply chain sustainability, regenerative agriculture offers a critical pathway to creating resilient, profitable, and environmentally sound food systems for the future. I hope you find the information useful! Check out this and other articles at www.acresusa.com #supplychains #soilcarbon #regenerativeagriculture #soilhealth #environmentalquality #whyward

Six pillars currently driving Nutrient Use Efficiency solutions. Why is this still a scientific challenge and Industrial priority! Across global agriculture, one challenge continues to define productivity, profitability, and sustainability is nutrient use efficiency (NUE). Despite decades of progress, a significant portion of applied nutrients never reach the plant. This gap represents both a scientific challenge and Industrial Priority. Major six pillars driving current NUE solutions - #1. Enhanced‑Efficiency Fertilizers (EEFs): Engineered to synchronize nutrient release with crop demand. Urease and nitrification inhibitors reduce nitrogen losses. Slow‑release and controlled‑release coatings improve nutrient availability over time. #2. Materials Science - Delivery Systems (MSDS): New materials are redefining how nutrients move through soil and plant tissues. High‑surface‑area carriers improve solubility and controlled release. Molecular‑scale delivery systems reduce fixation and enhance mobility and uptake. #3. Microbial & Biological Solutions: Biology remains central to nutrient cycling and plant metabolism. Nitrogen‑fixing bacteria supplement N availability. Phosphate‑solubilizing microbes unlock bound P. Mycorrhizal fungi expand the effective root zone. Enzyme‑producing microbes release nutrients trapped in organic or mineral complexes. Biostimulants, including plant‑derived extracts and animal‑derived extracts enhance root growth, nutrient uptake pathways, chelation and stress tolerance. #4. Precision Agriculture & Digital Tools: Data‑driven nutrient management is transforming decision‑making. Variable‑rate application aligns fertilizer doses with spatial variability. Remote sensing and optical crop sensors detect nutrient stress early. Decision support systems integrate weather, soil, and crop models to optimize timing and rates. #5. Agronomic Practices & Soil Health: The foundation of all nutrient efficiency strategies. 4R Nutrient Stewardship (right source, rate, time, place). Split applications to match crop demand. Band placement and deep placement to reduce losses. Foliar feeding, especially when root uptake is limited. Soil pH correction, organic matter enhancement, and structure improvement to increase nutrient retention and root access. #6. Genetic & Breeding Innovations: Plant traits are increasingly recognized as part of the NUE equation. Improved root architecture enhances nutrient foraging. Enhanced transporter proteins increase uptake #efficiency. Stress‑tolerant varieties maintain nutrient acquisition under drought, cold, or salinity. #NUE is no longer just a #fertilizer challenge, it is a systems engineering challenge across the entire soil–plant–environment continuum. #Question: What are the most impactful solutions you are prioritizing to bridge the #nutrient efficiency gap and help close the loop in #sustainable crop nutrition. Your perspective shapes the future of global #agriculture.

Agriculture has always been a cornerstone of civilization, but the tools and methods we use are rapidly evolving. Today, the fields of farming are not just tilled by traditional machinery but shaped by advanced technologies that are redefining how we grow, manage, and harvest food. Some examples of how technology is transforming agriculture: 🔍 Targeted Agriculture Gone are the days of blanket approaches to farming. Precision agriculture uses satellite imagery, GPS, and sensor data to pinpoint exactly where resources are needed. This means: - Reducing water, pesticide, and fertilizer waste. - Minimizing environmental impact while maximizing yields. - Allowing real-time decision-making with insights from field-level data. 🤖 Smart Farming Equipment Automation is not just a buzzword, it helps with efficiency: - GPS enabled tractors ensure perfect rows with no overlap, saving time and fuel. - Drones monitor crops, identify diseases, and assess soil conditions, offering a bird’s-eye view of fields in a fraction of the time manual inspections would take. - Robots are now even capable of planting and harvesting with precision, reducing reliance on manual labor. 📊 In modern farming, data is king. Advanced tools allow farmers to collect and analyze information like: - Soil health metrics for optimized planting strategies. - Weather patterns to plan irrigation and prevent losses. - AI powered predictive models that help forecast challenges and improve crop yields. 🌍 With climate change introducing new uncertainties, technology helps mitigate risks: - Precision irrigation systems save water in drought-prone areas. - Climate modeling tools guide farmers in selecting the right crops for shifting weather conditions. - Innovations like vertical farming and hydroponics are enabling food production in places where traditional agriculture struggles. What’s your take? Could these advancements make agriculture one of the most exciting industries to innovate in? #innovation #technology #future #management #startups