Under the nationwide Jal Sanchay Jan Bhagidari (JSJB) initiative, Raipur (Chhattisgarh) has successfully institutionalized community-led rainwater harvesting. The city has completed the installation of 32,000 groundwater recharge structures in 2025, positioning itself as a leading model for urban water resilience in India.

Major Urban Water Issues in India:

• Rapid Urbanization & Concretization: Excessive use of impermeable surfaces (concrete/asphalt) prevents natural percolation, leading to high surface runoff.
• Declining Groundwater Tables: Over-extraction for domestic and industrial use has outpaced natural recharge.
• Urban Flooding: Inadequate drainage combined with the loss of natural sponges (wetlands/ponds) causes waterlogging during monsoon.
• Climate Variability: Increasingly erratic rainfall patterns necessitate better storage mechanisms to bridge dry spells.

Key Pillars of Raipur’s Model:

• Public-Private-Community Collaboration: * Collaboration with CREDAI to integrate harvesting systems in residential and commercial complexes.
  • Treating water conservation as a “Civic Responsibility” rather than just a government task.
• Technical Innovation & Cost-Effectiveness:
  • Permeable Eco-Blocks: Used in footpaths and parking to allow natural infiltration.
  • Tractor-mounted Auger Drilling: Allows rapid, low-cost construction of recharge structures.
  • Scalable Efficiency: Individual wells recharge up to 3 lakh litres/annum, while injection wells in stressed zones recharge up to 15 lakh litres/annum.
• Policy & Institutional Reform:
  • Mandatory Planning: Town planning now requires 1% of land to be reserved for water harvesting/green spaces.
  • Maintenance Institutionalized: Mechanisms for regular desilting and upkeep are now part of municipal policy.
• Holistic Water Resilience (“Sponge City” Approach):
  • Eco-Bloc Project: A ₹30 crore project on the Kharun River to manage storm runoff.
  • Circular Water Economy: Promoting treated wastewater reuse for industrial applications.
  • Blue Infrastructure: Interconnection of urban ponds and lakes to enhance storage capacity.

Way Forward:

1. Standardization: Use Raipur’s model to create a “National Handbook for Urban Recharge” for other Tier-2 and Tier-3 cities.
2. Smart Monitoring: Integrate IoT-based sensors to monitor groundwater levels and the performance of recharge structures in real-time.
3. Incentivization: Implement tax rebates for commercial or residential properties that achieve verified “net-zero” water usage or high recharge rates.
4. Nature-Based Solutions (NbS): Shift focus from pure “Grey Infrastructure” (pipes/concrete) to “Blue-Green Infrastructure” (urban forests, wetlands, and bio-swales).

Conclusion:

Raipur’s transition from a city struggling with waterlogging and depletion to a model of groundwater recharge exemplifies the “Jan Bhagidari” (People’s Participation) spirit. It demonstrates that urban water security is not merely an engineering challenge to be solved with heavy infrastructure, but a participatory governance mission. By integrating low-cost technical innovation with policy mandates, Raipur provides a scalable template for achieving SDG 6 (Clean Water and Sanitation) and building climate-resilient cities in India.

The Cabinet Committee on Economic Affairs (CCEA), chaired by the Prime Minister, has approved the integration and continuation of two existing schemes under a new umbrella scheme named SARTHAK-PDS (Scheme for Assistance in Ration Transport and Handling-Income with Automation in PDS) for the 16th Finance Commission cycle.

Key Highlights:

• Financial Outlay: ₹25,530 crore (Central share) for the next 5 years (up to March 31, 2031).
• Objective: To strengthen the implementation of the National Food Security Act (NFSA), 2013, ensuring last-mile delivery of foodgrains while enhancing transparency and efficiency.
• Beneficiaries: Supports the food and nutritional security of approximately 35 crore persons covered under the NFSA.

Structure of SARTHAK-PDS:

This umbrella scheme integrates two previously separate schemes:

1. Assistance for Intra-State Movement & FPS Dealers’ Margin: Provides assured financial support to States/UTs for the movement, handling, and distribution of foodgrains, including increased commissions for Fair Price Shop (FPS) dealers.
2. SMART PDS (Scheme for Modernization and Reforms through Technology in PDS): Focused on digital transformation and infrastructure modernization.

Technological Interventions:

SARTHAK-PDS aims to transition from simple digitization to intelligently optimized operations using:

• Advanced Tech: Artificial Intelligence (AI), Machine Learning (ML), Natural Language Processing (NLP), and Blockchain.
• Modern Architecture: * Unified databases for real-time monitoring.
  • State Command Control Centres for data-driven oversight.
  • AI-driven grievance redressal and analytics systems.
  • ISO-certified process frameworks to ensure sustainability.

Evolution of PDS Reforms:

The government has built upon a decade of digital interventions to reach the current stage:

• Foundational Reforms: End-to-End Computerization of Targeted PDS (TPDS) and Integrated Management of PDS (IM-PDS).
• Recent Milestones: Since April 2023, the SMART PDS scheme has achieved:
  • 100% digitization of ration cards.
  • [Aadhaar Redacted] seeding.
  • FPS automation through e-PoS (electronic Point of Sale) devices across all 36 States/UTs.
• Citizen-Facing Applications: Platforms like Mera Ration, Anna Mitra, Rightful Targeting Dashboard, and Anna Sahayata.

Significance:

• Last-Mile Delivery: Ensures that foodgrains reach the intended beneficiaries without leakages.
• Dealer Welfare: Higher commission rates for FPS dealers recognize their role as key frontline workers in food security.
• Transparency: Shifts the PDS towards a more transparent, secure, and sustainable ecosystem by replacing manual oversight with automated, data-driven checks.

Way Forward:

SARTHAK-PDS represents a paradigm shift—moving from mere food distribution to an “intelligently optimized” service delivery model. By leveraging emerging technologies, the scheme aims to uphold the constitutional and statutory commitment of providing a dignified life with assured access to nutritional security for all NFSA beneficiaries.

सार्थक-पीडीएस (SARTHAK-PDS) अंब्रेला योजना:

सुर्खियों में क्यों:

प्रधानमंत्री की अध्यक्षता में आर्थिक मामलों की मंत्रिमंडलीय समिति (CCEA) ने 16वें वित्त आयोग की अवधि के लिए ‘सार्थक-पीडीएस’ (SARTHAK-PDS) नामक एक नई अंब्रेला योजना के तहत दो मौजूदा योजनाओं को एकीकृत और जारी रखने की मंजूरी दी है।

मुख्य विशेषताएं:

• वित्तीय परिव्यय: अगले 5 वर्षों (31 मार्च, 2031 तक) के लिए ₹25,530 करोड़ (केंद्रीय हिस्सा)।

• उद्देश्य: राष्ट्रीय खाद्य सुरक्षा अधिनियम (NFSA), 2013 के कार्यान्वयन को मजबूत करना, ताकि खाद्य दानों की ‘लास्ट-माइल डिलीवरी’ (अंतिम छोर तक वितरण) सुनिश्चित की जा सके और पारदर्शिता बढ़ाई जा सके।

• लाभार्थी: यह योजना NFSA के अंतर्गत आने वाले लगभग 81.35 करोड़ लोगों की खाद्य और पोषण सुरक्षा को मजबूत करती है।

सार्थक-पीडीएस (SARTHAK-PDS) की संरचना:

यह अंब्रेला योजना पूर्व की दो अलग-अलग योजनाओं को मिलाती है:

1. इंट्रा-स्टेट मूवमेंट और डीलर मार्जिन के लिए सहायता: यह राज्यों/केंद्र शासित प्रदेशों को खाद्यान्न के परिवहन, रखरखाव और उचित मूल्य की दुकानों (FPS) के डीलरों के कमीशन के लिए वित्तीय सहायता प्रदान करती है।

2. स्मार्ट पीडीएस (SMART PDS): यह सार्वजनिक वितरण प्रणाली में तकनीकी सुधार और आधुनिकीकरण पर केंद्रित है।

तकनीकी हस्तक्षेप:

सार्थक-पीडीएस का लक्ष्य केवल डिजिटलीकरण से आगे बढ़कर बुद्धिमानी से अनुकूलित (Intelligently Optimized) संचालन की ओर बढ़ना है:

• उन्नत तकनीक: आर्टिफिशियल इंटेलिजेंस (AI), मशीन लर्निंग (ML), नेचुरल लैंग्वेज प्रोसेसिंग (NLP) और ब्लॉकचेन का उपयोग।

• आधुनिक वास्तुकला: * वास्तविक समय (Real-time) निगरानी के लिए एकीकृत डेटाबेस।

  • डेटा-संचालित निरीक्षण के लिए राज्य कमांड कंट्रोल सेंटर।

  • AI-आधारित शिकायत निवारण और विश्लेषण प्रणाली।

पीडीएस सुधारों का विकास:

सरकार ने पिछले एक दशक में कई डिजिटल कदम उठाए हैं:

• बुनियादी सुधार: TPDS का एंड-टू-एंड कंप्यूटरीकरण और एकीकृत प्रबंधन (IM-PDS)।

• स्मार्ट पीडीएस की उपलब्धियाँ (अप्रैल 2023 से):

  • राशन कार्ड का 100% डिजिटलीकरण।

  • आधार सीडिंग और e-PoS (इलेक्ट्रॉनिक पॉइंट ऑफ सेल) के माध्यम से दुकानों का स्वचालन।

  • नागरिक-केंद्रित अनुप्रयोग: मेरा राशन, अन्न मित्र, और अन्न सहायता पोर्टल।

महत्व:

• लास्ट-माइल डिलीवरी: यह सुनिश्चित करना कि खाद्यान्न बिना किसी लीकेज के सीधे लाभार्थियों तक पहुँचे।

• डीलर कल्याण: FPS डीलरों के कमीशन में वृद्धि करना, जो खाद्य सुरक्षा के प्रमुख फ्रंटलाइन वर्कर हैं।

• पारदर्शिता: मैनुअल निगरानी को डेटा-संचालित और स्वचालित प्रक्रियाओं से बदलना।

निष्कर्ष:

सार्थक-पीडीएस केवल खाद्य वितरण से हटकर एक “बुद्धिमान सेवा वितरण मॉडल” की ओर एक बड़ा बदलाव है। यह उभरती हुई प्रौद्योगिकियों का लाभ उठाकर NFSA लाभार्थियों को गरिमापूर्ण जीवन और पोषण सुरक्षा प्रदान करने की संवैधानिक प्रतिबद्धता को पूरा करता है।

Addressing the Eastern Zonal Agriculture Conference 2026 in Bhubaneswar, Odisha, the Union Minister for Agriculture and Farmers’ Welfare highlighted contemporary challenges in Indian agriculture, geopolitical disruptions to inputs, and the strategic policy pivot required for long-term sustainability.

Geopolitical Disrupted Supply Chains & Fertilizer Autonomy:

• International Procurement Constraints: Global geopolitical tensions have severely restricted the international market availability of chemical fertilizers, resulting in sharp price volatility and global supply constraints.
• Fiscal Cushioning via Subsidies: To protect domestic farmers from rising global prices, the Union Cabinet recently approved an additional ₹41,000 crore towards fertilizer subsidies, reaffirming the government’s commitment to absorbing input price shocks.
• Resource Diversion Control: Amid the ongoing supply crunch, the Centre has directed state governments to strictly monitor and eliminate the leakage or diversion of heavily subsidized agricultural fertilizers to non-agricultural or industrial sectors.
• Quality Assurance: States have been urged to crack down on the distribution of duplicate or substandard fertilizers, which deteriorate soil health and compromise crop yields.

The Pivot to Sustainable Agriculture (Organic Farming):

• Ecological and Input Alternative: As a structural response to global supply vulnerabilities and deteriorating soil health, the Centre is strongly promoting the adoption of alternative farming paradigms.
• Micro-Targeted Adoption Strategy: Farmers are being encouraged to shift at least a portion of their land holdings (such as an initial 20%) to organic or natural farming to gradually lower input costs, enhance soil microbiology, and reduce foreign import dependence.

Upcoming Legislative Reforms in Agriculture:

To curb the menace of counterfeit agricultural inputs, which the government classifies as a severe economic offense against farmers, the Centre plans to introduce two critical legislative frameworks in Parliament:

• New Pesticides Management Bill: Aimed at modernizing quality control metrics, checking the proliferation of spurious pesticides, and imposing stringent penalties on fraudulent manufacturers.
• New Seeds Bill: Focused on establishing robust legal frameworks to ensure the domestic availability of certified, high-yielding seed varieties while protecting farmers from market adulteration.

Climate Vulnerability & Contingency Planning:

• The El Niño Threat: Meteorological forecasts for the current crop season indicate a high likelihood of deficient rainfall during the crucial mid-season phase.
• Resilient Crop Diversification: In response to potential dry spells, agricultural advisories are shifting focus toward climate-resilient crop varieties. Farmers are being nudged away from water-intensive monocultures (like paddy) toward low-water-vulnerable alternatives, specifically pulses, oilseeds, and millets.
• Integrated Farming Systems (IFS) for Eastern India: Given the predominance of small and marginal operational land holdings in eastern states, the policy narrative emphasizes combining core crop cultivation with horticulture, poultry, fisheries, and agro-forestry to hedge against climate risks.

Public Outreach and Awareness Drive:

• Campaign Initiative: ‘Save the Farm Campaign’ (Khet Bachao Abhiyan).
• Timeline: Scheduled to run nationwide from June 1 to June 15, 2026.
• Core Objective: To directly engage with farming communities and drive awareness regarding balanced fertilizer applications, modern agritech adoption, climate adaptation methodologies, and central welfare schemes.

Key Mains Value-Addition Takeaways:

• Redefining Self-Reliance: True strategic autonomy in agriculture must transcend mere output volume (foodgrain security) to achieve input security—specifically by accelerating target missions in pulses/oilseeds and scaling organic alternatives to reduce exposure to international geopolitical friction.
• Unlocking Eastern India (Mission Purvodaya): Fostering agricultural resilience in the eastern belt (Odisha, Bihar, Jharkhand, West Bengal, Chhattisgarh) is pivotal to securing India’s second green revolution, driven by sustainable diversification rather than resource-intensive models.

What is Organic farming?

Organic farming is a holistic production management system that avoids the use of synthetic fertilizers, chemical pesticides, genetically modified organisms (GMOs), and growth regulators.

Instead, it relies on ecologically balanced practices like crop rotation, green manures, organic waste recycling, and biological pest control to maintain soil productivity, supply plant nutrients, and control weeds and pests.

Core Principles of Organic Farming:

• Principle of Health: It must sustain and enhance the health of soil, plants, animals, humans, and the planet as one and indivisible.
• Principle of Ecology: It must be based on living ecological systems and cycles, working with them, emulating them, and helping to sustain them.
• Principle of Fairness: It should build relationships that ensure fairness with regard to the common environment and life opportunities.

Principle of Care: It should be managed in a precautionary and responsible manner to protect the health and well-being of current and future generations.Critical Components & Techniques:

Nutrient Management:

• Crop Rotation: Growing different types of crops in a planned sequence on the same land to preserve soil nutrients, break pest cycles, and prevent soil erosion.
• Green Manure: Plowing or turning specific undecomposed green plant tissue (typically legumes like dhaincha or sunn hemp) into the soil to improve organic matter and nitrogen content.
• Biofertilizers: Utilizing living microorganisms (such as Rhizobium, Azotobacter, and Blue-Green Algae) that enrich the nutrient quality of the soil by fixing atmospheric nitrogen or solubilizing phosphorus.
• Composting and Vermicomposting: Converting organic waste matter, plant residues, and animal dung into nutrient-rich humus using earthworms and microbes.

Pest and Weed Management:

• Biological Control: Deploying natural predators, parasites, or beneficial insects (like ladybird beetles or Trichoderma) to keep pest populations below economic injury levels.
• Botanical Pesticides: Using natural plant extracts (such as Neem kernel water extract, garlic, or chili sprays) to repel or manage pests without toxic chemical residues.
• Mechanical Measures: Utilizing manual weeding, mulching (covering soil with organic sheets or straw to suppress weeds), and pheromone traps to physically disrupt pests and weeds.

Significance:

Environmental Benefits:

• Restoring Soil Microbiology: Reverses the soil degradation and compaction caused by decades of excessive chemical inputs.
• Mitigating Water Pollution: Eliminates the chemical runoff and leaching that causes eutrophication in freshwater bodies and contaminates groundwater tables.
• Climate Resilience: Organic soils have higher organic carbon and humus content, which significantly enhances their water-retention capacity, making crops more resilient to climate-induced droughts.

Economic Benefits:

• Reducing Input Costs: Decreases dependency on expensive, imported, and volatile chemical inputs (like urea or DAP), lowering the debt burden on small and marginal farmers.
• Export Potential and Premium Pricing: Taps into growing global and domestic premium markets for certified organic products, offering higher profit margins for farmers.

Key Government Initiatives in India:

• Paramparagat Krishi Vikas Yojana (PKVY): Promotes cluster-based organic farming with a focus on participatory guarantee certification (PGS) and financial assistance for inputs.
• Mission Organic Value Chain Development for Northeastern Region (MOVCDNER): A dedicated scheme aiming to develop certified organic production hubs in the NE region to link farmers with domestic and international value chains.
• National Programme for Organic Production (NPOP): Managed by APEDA under the Ministry of Commerce, it regulates export standards and provides third-party certification required for international markets.
• Bhartiya Prakritik Krishi Paddhati (BPKP): A sub-scheme under PKVY emphasizing traditional indigenous practices, completely eliminating chemical or external inputs, and promoting on-farm biomass recycling.

Structural Challenges & Bottlenecks:

• Initial Yield Drop: Transitioning from chemical to organic methods typically causes a sharp drop in crop yields during the first three years (the conversion period), creating financial strain for smallholders.
• Inadequate Certification Ecosystem: The high cost of formal third-party certification and complex documentation frameworks remain a barrier for small and marginal farmers.
• Supply Chain Deficits: A lack of dedicated cold storage, transport infrastructure, and separate marketing channels leads to organic produce being mixed with conventional crops, depriving farmers of premium pricing.
• High Labor Intensity: Organic techniques, especially mechanical weeding and biomass preparation, demand significantly more labor compared to quick chemical sprays.

Way Forward:

• Targeted Transition Subsidies: The government should provide direct financial support to farmers during the initial three-year conversion phase to cushion the yield drop.
• Decentralized Certification: Scaling up the Participatory Guarantee System (PGS-India) to provide low-cost, peer-reviewed, and locally accessible certification options.
• Integration with Livestock: Re-establishing the traditional crop-livestock symbiotic model to ensure a steady on-farm supply of bio-inputs, organic manure, and draft power.
• Phased Zone Mapping: Identifying and fast-tracking naturally chemical-free zones (such as rainfed regions, tribal belts, and hilly areas like Sikkim and parts of the Northeast) for immediate organic conversion to maximize returns.

अवधारणा एवं परिभाषा:

जैविक खेती (Organic Farming) एक समग्र उत्पादन प्रबंधन प्रणाली है जो कृत्रिम (synthetic) उर्वरकों, रासायनिक कीटनाशकों, आनुवंशिक रूप से संशोधित जीवों (GMOs) और विकास नियामकों (growth regulators) के उपयोग को पूरी तरह से प्रतिबंधित करती है।

इसके विपरीत, यह प्रणाली मिट्टी की उत्पादकता बनाए रखने, पौधों को पोषक तत्व प्रदान करने तथा खरपतवार और कीटों को नियंत्रित करने के लिए फसल चक्र, हरी खाद, जैविक अपशिष्ट पुनर्चक्रण और जैविक कीट नियंत्रण जैसी पारिस्थितिक रूप से संतुलित प्रथाओं पर निर्भर करती है।

‘पूर्वी क्षेत्रीय कृषि सम्मेलन 2026′:

संदर्भ एवं पृष्ठभूमि:

ओडिशा के भुवनेश्वर में आयोजित ‘पूर्वी क्षेत्रीय कृषि सम्मेलन 2026′ (Eastern Zonal Agriculture Conference 2026) को संबोधित करते हुए केंद्रीय कृषि एवं किसान कल्याण मंत्री शिवराज सिंह चौहान ने वैश्विक अनिश्चितताओं के बीच भारतीय कृषि के समक्ष मौजूद समकालीन चुनौतियों और उनके नीतिगत समाधानों को रेखांकित किया।

उर्वरक आपूर्ति संकट और वैश्विक भू-राजनीति:

• आयात संबंधी चुनौतियाँ: वैश्विक स्तर पर (विशेष रूप से पश्चिम एशिया संकट के कारण) रासायनिक उर्वरकों की उपलब्धता सीमित हुई है और इनकी अंतरराष्ट्रीय कीमतों में भारी उछाल आया है। भारत वर्तमान में अपनी आवश्यकताओं को पूरा करने के लिए लगभग 28 देशों के संपर्क में है।
• वित्तीय प्रतिबद्धता: अंतरराष्ट्रीय बाजार में बढ़ी हुई लागत के बावजूद किसानों को सस्ती दरों पर इनपुट प्रदान करने के लिए केंद्रीय कैबिनेट ने हाल ही में ₹41,000 करोड़ की अतिरिक्त उर्वरक सब्सिडी को मंजूरी दी है।
• अपव्यय और डायवर्जन पर रोक: आपूर्ति में कमी को देखते हुए केंद्र सरकार ने राज्यों को सख्त निर्देश दिए हैं कि सब्सिडी वाले कृषि-उर्वरकों का गैर-कृषि या औद्योगिक क्षेत्रों में अवैध डायवर्जन रोका जाए।

नीतिगत विकल्प: जैविक और प्राकृतिक खेती:

• सतत विकल्प: उर्वरकों की वैश्विक कमी और मिट्टी के गिरते स्वास्थ्य (Soil Health Degradation) से निपटने के लिए सरकार ने वैकल्पिक कृषि पद्धतियों को अपनाने पर बल दिया है।
• अपील और रणनीति: प्रत्येक किसान को अपनी भूमि के कम से कम एक हिस्से (लगभग 20%) पर प्रायोगिक तौर पर जैविक या प्राकृतिक खेती की शुरुआत करनी चाहिए। इससे बिना मिट्टी परीक्षण के रासायनिक उर्वरकों के अंधाधुंध उपयोग और इनपुट लागत (Input Cost) को कम करने में मदद मिलेगी।

कृषि क्षेत्र में आगामी वैधानिक सुधार (Legislative Reforms):

नकली कृषि इनपुट (Spurious Inputs) को “किसानों के खिलाफ एक गंभीर अपराध” बताते हुए केंद्र सरकार गुणवत्ता नियंत्रण सुनिश्चित करने के लिए संसद में दो नए विधेयक लाने की योजना बना रही है:

• नया कीटनाशक प्रबंधन कानून (New Pesticides Management Law): यह बाजार में नकली और घटिया कीटनाशकों की बिक्री को रोकने और ऐसा करने वालों के खिलाफ कड़े दंडात्मक प्रावधान करने के लिए लाया जा रहा है।
• नया बीज कानून (New Seeds Law): इसका उद्देश्य किसानों को प्रमाणित और उच्च उपज देने वाले बीजों की उपलब्धता सुनिश्चित कराना और बीज बाजार में धोखाधड़ी को समाप्त करना है।

जलवायु परिवर्तन और आकस्मिक योजना (Contingency Planning):

• एल नीनो (El Nino) का खतरा: चालू फसल सीजन के मध्य में ‘एल नीनो’ के प्रभाव के कारण मानसून की वर्षा में कमी/कमी की भविष्यवाणी (Deficient Rainfall Forecast) की गई है।
• फसल विविधीकरण (Crop Diversification): सरकार ने किसानों को पारंपरिक धान और गेहूं के चक्र से हटकर ऐसी फसलें उगाने की सलाह दी है जो वर्षा के उतार-चढ़ाव के प्रति कम संवेदनशील हों (जैसे मोटे अनाज/मिलेट्स, दलहन और तिलहन)।
• पूर्वी भारत के लिए एकीकृत कृषि मॉडल: पूर्वी राज्यों में छोटे और सीमांत खेतों की प्रधानता को देखते हुए फसलों के साथ-साथ बागवानी, मत्स्य पालन, पशुपालन, मधुमक्खी पालन और कृषि-वानिकी (Agro-forestry) को मिलाने की वकालत की गई है ताकि जोखिम को कम कर आय बढ़ाई जा सके।

जागरूकता एवं लोक आउटरीच अभियान:

• अभियान का नाम: ‘खेत बचाओ अभियान’ (Save the Farm Campaign)।
• अवधि: 1 जून से 15 जून 2026 तक देशव्यापी स्तर पर संचालित किया जाएगा।
• उद्देश्य: किसानों को संतुलित उर्वरक उपयोग, मिट्टी के स्वास्थ्य के संरक्षण, आधुनिक कृषि प्रौद्योगिकियों को अपनाने और विभिन्न कल्याणकारी सरकारी योजनाओं के बारे में सीधे जागरूक करना।

मुख्य परीक्षा (Mains) के लिए मुख्य टेकअवे (Value Addition):

उत्तर लेखन में इन मुख्य बिंदुओं का उपयोग किया जा सकता है:

• कृषि में आत्मनिर्भरता: आत्मनिर्भरता का दायरा केवल ‘अनाज उत्पादन’ तक सीमित नहीं होना चाहिए, बल्कि इसमें इनपुट आत्मनिर्भरता (उर्वरकों पर विदेशी निर्भरता को कम करना) और दलहन-तिलहन मिशन (जैसे 2030-31 तक केंद्रीय एजेंसियों द्वारा पूरी अरहर, उड़द और मसूर की सुनिश्चित खरीद) शामिल होनी चाहिए।
• मिशन पूर्वोदय (Purvodaya Mission): पूर्वी राज्यों (ओडिशा, बिहार, झारखंड, छत्तीसगढ़, पश्चिम बंगाल) में कृषि क्षेत्र का विकास भारत की खाद्य सुरक्षा और ग्रामीण अर्थव्यवस्था के विविधीकरण के लिए गेम-चेंजर साबित हो सकता है।

जैविक खेती के मुख्य सिद्धांत:

• स्वास्थ्य का सिद्धांत: जैविक खेती को मिट्टी, पौधों, जानवरों, मनुष्यों और पूरे ग्रह के स्वास्थ्य को एक और अविभाज्य मानकर उसे संवर्धित और सुदृढ़ करना चाहिए।

• पारिस्थितिकी का सिद्धांत: यह जीवित पारिस्थितिक तंत्र और चक्रों पर आधारित होनी चाहिए, उनके साथ मिलकर काम करने वाली, उनका अनुकरण करने वाली और उन्हें बनाए रखने में सहायक होनी चाहिए।

• न्यायसंगतता का सिद्धांत: इसे ऐसे संबंधों का निर्माण करना चाहिए जो साझा पर्यावरण और जीवन के अवसरों के संबंध में निष्पक्षता और न्याय सुनिश्चित करें।

• देखभाल का सिद्धांत: वर्तमान और भावी पीढ़ियों के स्वास्थ्य और कल्याण की रक्षा के लिए इसका प्रबंधन एहतियाती और जिम्मेदार तरीके से किया जाना चाहिए।

प्रमुख घटक एवं तकनीकें:

पोषक तत्व प्रबंधन (Nutrient Management):

• फसल चक्र (Crop Rotation): मिट्टी के पोषक तत्वों को सुरक्षित रखने, कीट चक्रों को तोड़ने और मृदा अपरदन (soil erosion) को रोकने के लिए एक ही भूमि पर नियोजित अनुक्रम में विभिन्न प्रकार की फसलें उगाना।

• हरी खाद (Green Manure): मिट्टी में जैविक पदार्थ और नाइट्रोजन की मात्रा बढ़ाने के लिए विशिष्ट न सड़े-गले हरे पौधों के ऊतकों (आमतौर पर ढैंचा या सनई जैसी फलदार फसलें) को खेत में ही जोतकर मिट्टी में मिला देना।

• जैव उर्वरक (Biofertilizers): ऐसे जीवित सूक्ष्मजीवों (जैसे राइजोबियम, एज़ोटोबैक्टर और नील-हरित शैवाल) का उपयोग करना जो वायुमंडलीय नाइट्रोजन को स्थिर करके या फास्फोरस को घुलनशील बनाकर मिट्टी की पोषक गुणवत्ता को समृद्ध करते हैं।

• कम्पोस्ट और केंचुआ खाद (Vermicomposting): केंचुओं और रोगाणुओं की मदद से जैविक अपशिष्ट पदार्थों, पौधों के अवशेषों और गोबर को पोषक तत्वों से भरपूर ह्यूमस (humus) में बदलना।

कीट और खरपतवार प्रबंधन (Pest and Weed Management):

• जैविक नियंत्रण (Biological Control): कीटों की आबादी को आर्थिक नुकसान के स्तर से नीचे रखने के लिए प्राकृतिक शिकारियों, परजीवियों या लाभकारी कीटों (जैसे लेडीबर्ड बीटल या ट्राइकोडरमा) का उपयोग करना।

• वानस्पतिक कीटनाशक (Botanical Pesticides): बिना किसी जहरीले रासायनिक अवशेषों के कीटों को दूर भगाने या प्रबंधित करने के लिए प्राकृतिक पौधों के अर्क (जैसे नीम के बीज का अर्क, लहसुन या मिर्च का स्प्रे) का उपयोग करना।

• यांत्रिक उपाय (Mechanical Measures): खरपतवारों को दबाने के लिए मैन्युअल रूप से निराई-गुड़ाई करना, मल्चिंग (मृदा को सूखी घास या जैविक चादरों से ढकना) और कीटों को शारीरिक रूप से आकर्षित कर नष्ट करने के लिए फेरोमोन ट्रैप (pheromone traps) का उपयोग करना।

भारत के लिए महत्व एवं उपयोगिता:

पर्यावरणीय लाभ:

• मृदा सूक्ष्म जीव विज्ञान की बहाली: दशकों से अत्यधिक रासायनिक इनपुट के कारण हुए मृदा क्षरण और मिट्टी के कड़ेपन की समस्या को उलट देता है।

• जल प्रदूषण में कमी: रासायनिक अपवाह (runoff) और रिसाव को समाप्त करता है, जो जल निकायों में सुपोषण (eutrophication) का कारण बनता है और भूजल तालिकाओं को दूषित करता है।

• जलवायु सुदृढ़ता (Climate Resilience): जैविक मिट्टी में जैविक कार्बन और ह्यूमस की मात्रा अधिक होती है, जो उनकी जल-धारण क्षमता (water-retention capacity) को काफी बढ़ा देती है, जिससे फसलें जलवायु-प्रेरित सूखे के प्रति अधिक लचीली बनती हैं।

आर्थिक लाभ:

• इनपुट लागत में कमी: महंगे, आयातित और अस्थिर रासायनिक इनपुट्स (जैसे यूरिया या डीएपी) पर निर्भरता को कम करता है, जिससे छोटे और सीमांत किसानों पर कर्ज का बोझ कम होता है।

• निर्यात क्षमता और प्रीमियम मूल्य निर्धारण: प्रमाणित जैविक उत्पादों के लिए बढ़ते वैश्विक और घरेलू प्रीमियम बाजारों तक पहुंच स्थापित करता है, जिससे किसानों को अधिक लाभ मार्जिन मिलता है।

भारत सरकार की प्रमुख पहलें:

• परंपरागत कृषि विकास योजना (PKVY): क्लस्टर-आधारित जैविक खेती को बढ़ावा देती है जिसमें भागीदारी गारंटी प्रमाणन (PGS) और इनपुट के लिए वित्तीय सहायता पर ध्यान केंद्रित किया जाता है।

• पूर्वोत्तर क्षेत्र के लिए मिशन जैविक मूल्य श्रृंखला विकास (MOVCDNER): पूर्वोत्तर क्षेत्र में प्रमाणित जैविक उत्पादन हब विकसित करने के उद्देश्य से एक समर्पित योजना, ताकि किसानों को घरेलू और अंतर्राष्ट्रीय मूल्य श्रृंखलाओं से जोड़ा जा सके।

• राष्ट्रीय जैविक उत्पादन कार्यक्रम (NPOP): वाणिज्य मंत्रालय के तहत एपीएडीए (APEDA) द्वारा प्रबंधित, यह निर्यात मानकों को नियंत्रित करता है और अंतर्राष्ट्रीय बाजारों के लिए आवश्यक तृतीय-पक्ष (third-party) प्रमाणन प्रदान करता है।

• भारतीय प्राकृतिक कृषि पद्धति (BPKP): PKVY के तहत एक उप-योजना जो पारंपरिक स्वदेशी प्रथाओं पर जोर देती है, रासायनिक या बाहरी इनपुट को पूरी तरह से समाप्त करती है और ऑन-फार्म बायोमास पुनर्चक्रण को बढ़ावा देती है।

संरचनात्मक चुनौतियाँ एवं बाधाएँ:

• शुरुआती पैदावार में गिरावट: रासायनिक से जैविक पद्धतियों की ओर बढ़ने पर आमतौर पर पहले तीन वर्षों (रूपांतरण अवधि/conversion period) के दौरान फसल की पैदावार में भारी गिरावट आती है, जिससे छोटे किसानों पर वित्तीय दबाव पड़ता है।

• अपर्याप्त प्रमाणन पारिस्थितिकी तंत्र: औपचारिक तृतीय-पक्ष प्रमाणन की उच्च लागत और जटिल दस्तावेज़ीकरण प्रक्रियाएं छोटे और सीमांत किसानों के लिए एक बड़ी बाधा बनी हुई हैं।

• आपूर्ति श्रृंखला का अभाव: समर्पित कोल्ड स्टोरेज, परिवहन बुनियादी ढांचे और अलग विपणन चैनलों की कमी के कारण जैविक उत्पाद पारंपरिक फसलों के साथ मिल जाते हैं, जिससे किसान प्रीमियम मूल्य निर्धारण से वंचित रह जाते हैं।

• अत्यधिक श्रम-गहनता: जैविक तकनीकें, विशेष रूप से यांत्रिक निराई और बायो-इनपुट (जीवामृत, बीजामृत) तैयार करना, त्वरित रासायनिक स्प्रे की तुलना में काफी अधिक श्रम की मांग करते हैं।

आगे की राह:

• लक्षित संक्रमण सब्सिडी (Transition Subsidies): पैदावार में शुरुआती गिरावट के प्रभाव को कम करने के लिए सरकार को प्रारंभिक तीन साल के रूपांतरण चरण के दौरान किसानों को प्रत्यक्ष वित्तीय सहायता (DBT) प्रदान करनी चाहिए।

• विकेंद्रीकृत प्रमाणन: कम लागत वाले, सहकर्मी-समीक्षित (peer-reviewed) और स्थानीय रूप से सुलभ प्रमाणन विकल्प प्रदान करने के लिए भागीदारी गारंटी प्रणाली (PGS-India) का बड़े पैमाने पर विस्तार करना।

• पशुधन के साथ एकीकरण: जैव-इनपुट, जैविक खाद और श्रम शक्ति की निरंतर ऑन-फार्म आपूर्ति सुनिश्चित करने के लिए पारंपरिक फसल-पशुधन सहजीवी मॉडल (crop-livestock symbiotic model) को पुनर्जीवित करना।

• चरणबद्ध क्षेत्र मानचित्रण: स्वाभाविक रूप से रसायन मुक्त क्षेत्रों (जैसे वर्षा आधारित क्षेत्रों, आदिवासी पट्टियों और सिक्किम व पूर्वोत्तर के पहाड़ी क्षेत्रों) की पहचान कर उन्हें तत्काल जैविक क्षेत्रों के रूप में अधिसूचित करना ताकि न्यूनतम लागत में अधिकतम लाभ प्राप्त किया जा सके।

• Location: West Singhbhum district, Jharkhand.

• Significance: One of India’s largest Sal (Shorea robusta) forest landscapes; crucial biodiversity hotspot and a critical elephant habitat/corridor.

• The Crisis: Rampant deforestation and iron ore mining have fragmented the habitat, triggering intense Human-Elephant Conflict (HEC) and forcing elephant herds to migrate to neighboring states (Odisha/West Bengal).

• Mineral Wealth: Hosts approximately 26% of India’s iron ore reserves.

 Timeline of Judicial Intervention:

• Origin: The region was originally designated as the Saranda Game Sanctuary in 1968 under undivided Bihar.

• 2022–2024: National Green Tribunal (NGT) and Supreme Court (SC) pushed the state to upgrade its status under the Wildlife Protection Act (WPA), 1972.

• Late 2025 (The SC Ultimatum): After the state repeatedly changed its stance and attempted to shrink the boundary from 575 sq km to 249 sq km, the SC ordered the notification of a 292 sq km sanctuary within 3 months (by Feb 2026).

• Current Status (2026): Jharkhand bypassed the deadline, citing tribal displacement and development concerns, and filed a delayed Review Petition in April 2026.

Key UPSC Mains Themes & Arguments:

Theme A: Environment vs. Development (Mining vs. Conservation):

• State’s Perspective: Halting mining in Saranda impacts the state’s economy and mineral output.

• Judicial/Ecological Perspective: The SC invoked the Justice M.B. Shah Commission (2013) report on illegal mining, stating that pristine, climax forests that take millions of years to grow cannot be sacrificed for a mine with a lifespan of just 12–13 years.

Theme B: Tribals Rights vs. Wildlife Conservation:

• State’s “Bogey” Argument: Jharkhand argued that declaring a sanctuary in a Fifth Schedule Area would infringe upon Adivasi land rights and lead to the demolition of public infrastructure (schools, roads).

• The Legal Reality: The SC clarified that the Forest Rights Act (FRA), 2006 and the Wildlife Protection Act (WPA), 1972 coexist harmoniously. The District Collector, in consultation with the Chief Wildlife Warden, holds the legal power to protect and continue the traditional rights of forest dwellers inside a sanctuary.

Theme C: Judicial Enforcement & Executive Laxity:

• Coercive Judicial Tools: The apex court used strict terminologies like “clear contempt,” warning against “dilly-dallying,” and summoned senior-most bureaucrats (Forest Secretary and Chief Secretary) in person to counter institutional delay.

Theme D: Internal Security Linkage:

• Left-Wing Extremism (LWE): The state argued that leaving massive forest tracts un-administered/restricted might allow Naxalite groups to exploit the dense canopy.

Introduction to Sal (Shorea robusta) Forest Landscapes:

The Sal forest landscape is one of the most ecologically and economically significant tropical forest ecosystems in South Asia. Dominated by a single tree species, Sal (Shorea robusta), these forests form a continuous canopy across the sub-Himalayan belt and the central Indian plateau.

Sal is a semi-deciduous tree, meaning it seldom goes completely leafless; it sheds old leaves in early spring (February–March) and simultaneously sprouts fresh, pale green foliage, followed by masses of cream-colored flowers.

Forest Classification of Sal Landscapes:

In India’s standard forest classification system (championed by Champion and Seth), Sal forests fall under the broad category of Tropical Moist Deciduous Forests and Tropical Dry Deciduous Forests. They are further divided based on climate, soil, and geographical location:

1. Moist Sal Forests:

These forests thrive in regions with high rainfall ($1500\text{ mm}$ to over $3000\text{ mm}$ annually) and deep, moisture-retaining alluvial soils.

• Moist Bhabar Sal: Located in the sub-Himalayan boulder-strewn tracts (e.g., Uttarakhand, foothills of Uttar Pradesh).

• Moist Terai Sal: Found in the low-lying, water-rich plains immediately below the Bhabar belt (e.g., Dudhwa National Park).

• Moist Peninsular Sal: Spread across the high-rainfall zones of the central plateau (e.g., parts of Jharkhand, Odisha, and Chhattisgarh). These areas feature rich undergrowth and support massive bamboo thickets.

2. Dry Sal Forests:

These forests adapt to lower rainfall zones ($1000\text{ mm}$ to $1500\text{ mm}$) and well-drained, sandy-loam, or lateritic soils.

• Dry Siwalik Sal: Thrives on the dry, rugged outer hills of the Himalayas.

• Dry Peninsular Sal: Prevalent across the drier parts of Madhya Pradesh, Chhattisgarh, and Jharkhand. The canopy here is more open, trees are shorter, and the undergrowth is prone to seasonal forest fires.

Key Ecological Characteristics of the Sal Landscape:

1. The Concept of “Climax Forest”:

Sal forests are classic examples of an ecological climax community. This means the forest has reached a stable, mature stage through natural succession, balancing perfectly with the regional climate and soil. Unless disrupted by heavy human intervention or severe climate shifts, the Sal community remains self-perpetuating.

2. Micro-Climate and Canopy Density:

Sal trees grow exceptionally straight and tall, often reaching heights of $30\text{ to }40\text{ meters}$. They form a dense, uniform canopy that blocks out intense sunlight, creating a cool, humid micro-climate on the forest floor. This structural density serves as a natural windbreak and retains high soil moisture.

3. Edge Effects and Eco-corridors

Because Sal landscapes cover contiguous geographical belts, they create vast wildlife corridors. The edges where Sal forests meet grasslands or rivers (eco-tones) exhibit high edge effects, supporting an exceptional diversity of birds, insects, and ungulates.

Major Geographical Landscapes in India:

┌────────────────────────────────────────────────────────────────────────┐
│                      MAJOR SAL FOREST LANDSCAPES                       │
└──────────────────────────────────┬─────────────────────────────────────┘
                                   │
         ┌─────────────────────────┴─────────────────────────┐
         ▼                                                   ▼
┌─────────────────────────────────┐               ┌─────────────────────────────────┐
│     SUB-HIMALAYAN & TERAI       │               │        CENTRAL PENINSULAR       │
├─────────────────────────────────┤               ├─────────────────────────────────┤
│ • Belt: UK, UP, Bihar, WB, Assam│               │ • Belt: JH, OD, CG, MP          │
│ • Key Areas: Corbett, Dudhwa,   │               │ • Key Areas: Saranda (JH),      │
│   Buxa, Jaldapara               │               │   Similipal (OD), Kanha (MP)    │
│ • Features: High rainfall,      │               │ • Features: Lateritic soils,    │
│   alluvial plains, megafauna    │               │   mineral-rich, fragmented      │
└─────────────────────────────────┘               └─────────────────────────────────┘

1. The Sub-Himalayan & Terai Landscape:

Spanning from Uttarakhand through Uttar Pradesh, Bihar, West Bengal, and into Assam.

• Ecology: Fed by Himalayan rivers, these plains host a mix of tall Sal trees, marshy tall grasslands, and riverine forests.

• Keystone Species: It provides prime habitat for the Asian Elephant, One-horned Rhinoceros, and Bengal Tiger.

2. The Central Indian Peninsular Landscape:

Spanning the Chota Nagpur Plateau and the Eastern Ghats hinterlands across Jharkhand, Odisha, Chhattisgarh, and Madhya Pradesh.

• Ecology: Characterized by rolling hills, lateritic soils, and a blend of moist and dry peninsular Sal.

• The Saranda Example: The Saranda Forest in Jharkhand is historically celebrated as one of the largest continuous blocks of Sal forests in Asia. It acts as a vital watershed and a major elephant migration corridor between East-Central states.

Threats to the Sal Ecosystem

• Mining vs. Ecology (The Resource Curse): The central Indian Sal belt sits directly atop India’s richest iron ore, coal, and bauxite reserves. Mining leases lead to massive, irreversible clear-felling and fragmentation.

• Monoculture Tendency & Natural Regeneration Issues: While Sal dominates naturally, its seeds have a incredibly short viability period (often less than a week) and must drop precisely with the onset of the monsoon to germinate. Soil compaction from mining or cattle grazing halts this delicate process.

• Sal Borer Outbreaks: The Hoplocerambyx spinicornis (Sal Borer Beetle) poses a severe biological threat. Massive outbreaks kill thousands of mature trees, destabilizing the entire canopy structure.

High-Yield Points for UPSC Mains & IFS

• Environmental Law Linkage: Conservation of Sal landscapes frequently involves invoking the Forest (Conservation) Act, 1980 and the Wildlife (Protection) Act, 1972 to counter rampant infrastructure fragmentation.

• Livelihood Security: Sal is an invaluable Non-Timber Forest Produce (NTFP) source. Tribal communities depend heavily on collecting Sal seeds (for oil/cosmetics), Sal leaves (for making traditional plates/plates), and Sal resin (known as Dammar, used in incense and medicines).

• Constitutional Angle: Many peninsular Sal landscapes overlap with Fifth Schedule Areas, where forest conservation policies must align with the Panchayats (Extension to Scheduled Areas) Act (PESA), 1996 and the Forest Rights Act (FRA), 2006.

• The 2026 NISAR Data: Newly released imagery from the NASA-ISRO Synthetic Aperture Radar (NISAR) satellite (launched in 2025) has provided the most precise maps to date of Mexico City’s descent.
• Critical Findings: Data from October 2025 to January 2026 confirms that parts of the city are sinking by more than 2 cm every month (approx. 25 cm per year), threatening vital infrastructure.

 Reasons for Sinking (Land Subsidence):

The crisis is a result of a centuries-old “man vs. nature” conflict:

• Historical Geography: The city is built on the soft, clay-rich bed of the former Lake Texcoco.
• Aquifer Over-extraction: To sustain 20 million people, the city pumps vast amounts of groundwater. As the water is removed, the clay soil collapses and compacts (the “Sponge” effect).
• Urban Weight: The sheer mass of skyscrapers and heavy urban development further accelerates the compaction of the soft lakebed.

Impacts of Subsidence:

• Infrastructure Failure: Constant ground movement cracks sewer lines, water pipes, and building foundations.
• The Metro Crisis: The city’s massive rapid transit system faces frequent track misalignments and structural cracks.
• The “Rising” Monument: The Angel of Independence monument, built on solid rock pillars, appears to “grow” as the surrounding city sinks. Engineers must periodically add extra steps to its base.
• Increased Flood Risk: As the city sinks below its original drainage level, it becomes harder to pump out rainwater, leading to chronic flooding.

Other Global Examples of Sinking Cities:

Mexico City is a “hot spot,” but it is not alone. NISAR is currently tracking:

• Jakarta, Indonesia: One of the fastest-sinking cities in the world, leading the government to move its capital to Nusantara.
• Venice, Italy: Facing the “double whammy” of sinking land and rising sea levels.
• Joshimath, India: Closer to home, this Himalayan town faced a “sinking” crisis in 2023-24 due to geological instability and unplanned construction.

Use of NISAR Technology:

NISAR (NASA-ISRO Synthetic Aperture Radar) is a game-changer for environmental monitoring because:

• All-Weather Vision: It uses L-band and S-band radar frequencies that can “see” through clouds, smoke, and even thick forest canopies.
• Millimeter Precision: It can detect surface movements as small as a few millimeters from an altitude of over 700 km.
• High Frequency: It maps the entire Earth every 12 days, allowing scientists to track changes (like a sinking road or a moving glacier) in near real-time.
• Global Coverage: Beyond cities, it is used to track cropland growth, glacier melt in the poles, and volcanic activity.

Key Highlights :

• The Prediction: The IMD has forecast “below normal” rainfall at 92% of the Long Period Average (LPA), with a 5% margin of error.
• The “El Niño” Factor: A primary reason for this pessimistic outlook is the expected development of El Niño during the second half of the monsoon (August–September). Historically, El Niño is notorious for suppressing rainfall in the Indian subcontinent.
• The Offset: On a slightly positive note, the IMD mentioned a possible Positive Indian Ocean Dipole (IOD), which could partially counter El Niño’s drying effect, though its strength remains uncertain.
• Economic & Food Security: Coming at a time of geopolitical tension in West Asia (impacting gas and fertilizer prices), a weak monsoon threatens Kharif crop yields (paddy, pulses, oilseeds), which could spike food inflation and hurt the rural economy.

Summary of IMD Rainfall Categories:

Long Range Forecast (LRF):

The LRF is a seasonal prediction issued by the IMD to provide early signals about the upcoming monsoon (June to September). It is crucial for food security and economic planning.

• Two-Stage Strategy: * Stage 1 (April): Provides a quantitative and probabilistic forecast for the country as a whole.
  • Stage 2 (Late May): Provides updated data, including monthly forecasts and regional distributions (Northwest, Central, South Peninsula, and Northeast India).
• The 2026 Outlook: The current forecast predicts “Below Normal” rainfall at 92% of the Long Period Average (LPA).
• The Baseline (LPA): The LPA for the 1971–2020 period is 87 cm. Anything between 90–95% of this value is categorized as “Below Normal.”
• Scientific Tools: The IMD uses the Monsoon Mission Climate Forecast System (MMCFS), a dynamic coupled model, alongside statistical models to arrive at these numbers.

Indian Ocean Dipole (IOD):

Often called the “Indian Niño,” the IOD is an ocean-atmosphere phenomenon in the tropical Indian Ocean. It is defined by the difference in sea surface temperatures (SST) between the western part (Arabian Sea) and the eastern part (south of Indonesia).

The Three Phases

Pink Bollworm (PBW) – Pectinophora gossypiella

The Pink Bollworm is one of the most destructive pests for cotton globally. Unlike other pests, it is monophagous, meaning it feeds almost exclusively on cotton.

• Mechanism of Damage: The larvae bore into the cotton bolls (the fruit). Once inside, they feed on the seeds and destroy the lint (fiber).
• The “Invisible” Threat: Because the larvae stay inside the boll, they are protected from external chemical pesticide sprays. This makes them much harder to control than the American Bollworm.
• Impact on Quality: It causes “stained” lint and premature dropping of bolls, significantly reducing the market value of the crop.

Bt Cotton: India’s Only Commercial GM Crop:

Bt Cotton is a genetically modified variety developed to provide in-built resistance against specific pests (primarily the Bollworm complex).

• The Science: It involves the insertion of genes from the soil bacterium Bacillus thuringiensis (Bt).
• The Toxins: These genes produce Cry proteins (Crystal proteins), specifically Cry1Ac and Cry2Ab.
• Mode of Action: When a larva ingests the Bt protein, it is activated in the alkaline environment of the insect’s midgut. It binds to the gut wall, creating pores that cause the insect to stop feeding and eventually die of starvation/sepsis.
• Evolution in India: * Bollgard-I (2002): Contained a single gene (Cry1Ac).
  • Bollgard-II (2006): Contained two genes (Cry1Ac and Cry2Ab) to provide better protection and delay resistance.

The Breakdown: Why is the Technology Failing?

By 2014-15, reports from Gujarat and later Haryana/Punjab confirmed that PBW had developed resistance to Bollgard-II.

• Genetic Resistance: Constant exposure to the same toxins led to the survival of “resistant” mutant pests, which then bred and passed on the resistance.
• Refugia Failure: The government mandated a “Refuge” policy (planting non-Bt cotton around the Bt field). The goal was to allow non-resistant pests to survive and mate with any resistant ones, diluting the resistance gene. In India, small landholdings and lack of awareness led to poor compliance.
• Long-duration Hybrids: Indian farmers often extend the cotton season. This provides a continuous food supply to the PBW, allowing it to complete multiple life cycles and build a larger population.

Socio-Economic Repercussions:

The failure of Bt technology has led to a “Double Whammy” for farmers like those in Hisar and Sirsa:

1. Rising Input Costs: Farmers are now forced to use expensive chemical sprays on top of the high cost of Bt seeds.
2. Stagnant Yields: Average yields have dropped by nearly 50% in several districts of Haryana over the last 5 years.
3. Ecological Shift: Farmers are shifting to Paddy (Rice), which is catastrophic for the water table in semi-arid regions.

Way Forward: Integrated Pest Management (IPM);

• Short-term: Use of Pheromone Traps to disrupt mating and Light Traps for mass trapping of moths.
• Mid-term: Promoting Desi Cotton (G. arboreum) varieties, which are naturally more hardy and pest-resistant. The Haryana government’s ₹3,000/acre incentive for Desi cotton is a step in this direction.
• Long-term: Expediting the approval of Bollgard-III (which adds a third gene, Vip3A) or moving towards Hereditary Biotechnology (Gene Drive) to control pest populations.
• Policy: Strengthening the “Mera Pani-Meri Virasat” scheme to make non-paddy alternatives (like pulses) more profitable than rice.

The article draws a parallel between Brazil’s “Proalcool” program (started after the 1970s oil shocks) and India’s current trajectory.

• Massive Scaling: India has increased ethanol supply to Oil Marketing Companies (OMCs) from 38 crore litres in 2013-14 to an estimated 1,039 crore litres in 2024-25.
• Blending Success: The average blending ratio in petrol has jumped from 1.6% to 19.2% over the same period.
• Feedstock Diversification: Production has shifted from just “C-Heavy” molasses to “B-Heavy” molasses, sugarcane juice, and increasingly to grains like maize and surplus rice.
• Energy Security: The push is driven by the need to reduce dependence on imported crude oil, especially during times of geopolitical tension (like the Iran-Israel or Russia-Ukraine conflicts).

Key Concerns & Challenges:

Despite the growth, several bottlenecks remain:

• Taxation Inconsistency: Currently, ethanol for blending is under GST (5%), but petrol remains outside of it, creating a complex tax structure for fuel.
• Infrastructure Gaps: To reach “Brazil-level” success, India needs separate dispensing units at fuel stations for different blends like E30 or E100 (pure ethanol).
• Vehicle Compatibility: Most current Indian vehicles aren’t designed for high-ethanol blends. There is a need for Flex-Fuel Vehicles (FFVs) that can run on any mix of petrol and ethanol.
• Feedstock Limits: While there is a surplus of sugar and grain now, long-term supply must be managed to ensure it doesn’t impact food security.

Steps to be Taken:

To “step on the gas” with ethanol, the article suggests the following actions:

1. Uniform Taxation: Bring all ethanol fuels (E20, E30, E100) under a unified GST framework to simplify costs.
2. Incentivize Flex-Fuel: The government must nudge or mandate auto manufacturers to produce engines capable of handling 100% hydrous alcohol.
3. Retail Expansion: OMCs need to invest in “dual-pump” stations—one for blended petrol and one for pure ethanol.
4. Conversion Kits: Provide incentives for citizens to use conversion kits to modify existing petrol vehicles to run on ethanol.

Way Forward & Conclusion:

The Way Forward lies in replicating Brazil’s success by moving beyond just “blending” to a “fuel-choice” economy. Since India imports nearly 90% of its crude oil but has a surplus of sugar and grain, ethanol is the most logical path to economic and energy sovereignty.

Conclusion: India has already built the production capacity (over 1,800 crore litres). The final hurdle is not making the fuel, but creating the demand by ensuring vehicles can run on it and consumers can easily buy it. If India transitions to Flex-Fuel Vehicles, it can insulate its economy from global oil price volatility forever.

The topic is trending because the Indian government is preparing to launch PM-KUSUM 2.0. As the original scheme’s deadline (March 2026) approaches, the Ministry of New and Renewable Energy (MNRE) has proposed a National Agri-photovoltaics Mission. This mission aims for a dedicated 10-GW target for AgriPV, signaling a transition from small-scale pilots to a major national infrastructure goal.

Key Points of the Transition:

• Solving the Land Conflict: India needs $300\text{ GW}$ of solar by 2030, but land is scarce. AgriPV allows solar expansion without taking land away from food production.
• Economic Synergy: Farmers shift from being just “Annadatas” (food providers) to “Urjadatas” (energy providers). They can earn from three sources: crop sales, electricity sales to the grid, and land leasing.
• Climate Resilience: The panels act as a “physical shield” against extreme heatwaves, unseasonal rain, and hail—threats that are increasing due to climate change.
• Water Efficiency: Shading from panels can reduce water loss (evapotranspiration) by $20\%$ to $40\%$, making it a “blue-green” solution for water-stressed states like Rajasthan.

About AgriPV:

AgriPV (or Agrivoltaics) is the co-development of the same land area for both solar PV power and agriculture.

1. Technical Configurations:

To ensure crops get enough sunlight and tractors can still move, AgriPV uses specialized setups:

• Stilt/Elevated Mounting: Panels are raised $2$ to $5$ meters high.
• Inter-row Spacing: Wide gaps between panel rows for larger machinery.
• Vertical Bifacial Panels: Thin vertical panels that catch sunlight from both sides and take up minimal ground space.

2. Crop Compatibility:

| Highly Compatible | Ginger, Turmeric, Spinach, Lettuce, Medicinal plants (Tulsi) |

| Moderate/Adaptable | Tomatoes, Onions, Garlic, Chillies, Brinjal |

| Low Compatibility | Sun-loving cereals (Wheat, Paddy) — these usually require wider panel spacing. |

3. Current Barriers:

• High Cost: Raising panels on stilts increases capital expenditure (CAPEX) by $15\%$ to $30\%$ compared to ground-mounted solar.
• Regulatory Gaps: Current laws often require “Non-Agricultural” (NA) land conversion for solar, which can make farmers lose their agricultural subsidies.
• Yield Risk: Poorly designed shading can lead to “leggy” plants or reduced grain weight.

The Policy Pathway: PM-KUSUM 2.0:

The proposed National Agri-photovoltaics Mission aims to solve these hurdles by:

1. Viability Gap Funding (VGF): Providing government grants to cover the extra cost of elevated structures.
2. Dual-Use Classification: Creating a new land category so farmers can keep their agricultural status while generating power.
3. Feeder-Level Solarization: Connecting entire rural grids to these farm-based plants to ensure the power actually reaches the community.

The Issue: A “Strange Contradiction”:

India faces a paradox where water is revered culturally but managed poorly. Key challenges include:

• Scarcity: India holds 18% of the world’s population but only 4% of its freshwater.
• Declining Availability: Per capita water availability dropped from 1,816 cubic metres in 2001 to roughly 1,486 in 2021. By 2050, it is expected to hit the “scarcity threshold” of 1,000 cubic metres.
• Climate Change: Erratic monsoons and extreme weather events (floods/droughts) cost India approximately ₹5 lakh crore between 2019 and 2023.
• Agricultural Inefficiency: Agriculture consumes nearly 90% of India’s water, yet productivity is low (about one-third of China’s).

The Solutions: Four Strategic Shifts:

The authors propose four pillars to transform water management:

• Recognize “Green Water”: Move beyond “blue water” (rivers/lakes) to focus on water stored in soil. Protecting upstream forests and promoting regenerative farming (mulching, no-till) helps soil retain moisture.
• Fix Agricultural Distortions: Shift subsidies away from water-intensive rice and wheat toward millets and pulses. Diversifying just 3.6 million hectares could save 29 billion cubic metres of water annually.
• Launch a National Circular Water Economy: Treat wastewater as a resource rather than waste. Currently, only 28% of urban used water is treated. Proper reuse could unlock a market worth ₹3.2 lakh crore by 2047.
• Reimagine “Sponge Cities”: Use blue-green infrastructure (wetlands, urban forests, permeable surfaces) to allow cities to absorb rainwater and recharge aquifers rather than letting it cause floods.

Steps Taken & Implementation:

The article mentions the need for specific governance and infrastructure shifts:

• Swachh Bharat Mission 3.0: Expanding focus to peri-urban areas for decentralized waste treatment.
• Digital Public Infrastructure: Using real-time water accounting and bulk water trading to ensure transparency.
• Governance Reform: Moving toward “cost recovery” tariffs for those who can pay, while maintaining subsidies for the vulnerable.

Conclusion:

The authors conclude that water is a finite resource that can no longer be planned for poorly. If India strengthens its governance and adopts these four shifts, water can become a catalyst for economic transformation rather than a constraint on growth. The collective response will determine not just India’s environment, but its economic destiny.

n common sense terms, think of Green Water as the water that is “hidden” inside the soil and plants, while Blue Water is the water you can actually see and pour.

If you imagine a sponge sitting in a shallow puddle:

• Blue Water is the liquid in the puddle. You can pump it out, swim in it, or pipe it to a city.
• Green Water is the moisture trapped inside the holes of the sponge. You can’t “pump” it out easily, but if you plant a seed in that sponge, it’s the only water the roots can reach to grow.

A Simple Comparison:

Why the “Green” name?

It is called “Green” because it is the lifeblood of greenery. Rain falls, and before it can run off into a river (becoming blue water), it stays in the dirt. This soil moisture is what allows crops and forests to survive between rainfalls.

Why it matters for India (Common Sense)

Most of our farming doesn’t use fancy pipes or pumps (irrigation); it relies entirely on the rain that stays in the dirt. If the soil is healthy (like a good sponge), it holds onto that “Green Water” for a long time. If the soil is degraded (like a piece of hard plastic), the rain just bounces off, causing floods and leaving the crops thirsty.