Content
- Wetlands as a national public good
- Budget 2026–27 & Capex-led Growth
Wetlands as a national public good
Why in News — World Wetlands Day 2026 ?
Global & Indian Context
- World Wetlands Day 2026 themed “Wetlands and traditional knowledge” highlights community-led conservation; relevant for India where cultural practices historically sustained tanks, floodplains, mangroves, and village ponds.
- Theme gains relevance amid rapid wetland loss, climate risks, and water stress, positioning wetlands as nature-based solutions for water security, disaster resilience, biodiversity conservation, and livelihood sustainability.
Relevance
GS I — Geography & Society
- Wetlands regulate floods, groundwater, and microclimate, making them critical for questions on Indian physical geography, resource distribution, and human–environment interaction.
- Community-managed tanks, fisheries, and cultural linkages help enrich answers on society–environment relations and traditional knowledge systems.
GS III — Environment & Disaster Management
- Wetlands as nature-based solutions for floods, droughts, and climate adaptation directly relevant for environment, conservation, and disaster-risk-reduction themes.
- Links to biodiversity conservation, pollution control, and sustainable development.
Practice Question
- “Wetlands are ecological assets but governance liabilities.” Examine with reference to India’s conservation framework and discuss the role of traditional knowledge in wetland conservation in India.(250 Words)
Basics — Understanding Wetlands
Definition & Types
- Wetlands are ecosystems where land remains saturated with water seasonally or permanently, including marshes, lakes, mangroves, floodplains, lagoons, and human-made tanks supporting rich biodiversity and hydrological functions.
- India hosts diverse wetlands—freshwater, coastal, riparian, urban, and high-altitude systems—providing ecological services across climatic zones, from Himalayas to coastal deltas.
Ecological Functions
- Wetlands regulate hydrological cycles by storing floodwater, recharging groundwater, filtering pollutants, stabilising shorelines, and moderating microclimates, making them critical natural infrastructure for climate adaptation.
- They serve as biodiversity hotspots supporting fish, migratory birds, amphibians, and aquatic flora, contributing to food security, nutrient cycling, and genetic diversity conservation.
Traditional Knowledge & Community Linkages
Indigenous Systems
- Tamil Nadu’s kulam tank cascades historically ensured irrigation, groundwater recharge, and drought resilience through community maintenance, illustrating decentralised water governance embedded within local ecological knowledge.
- Kerala’s kenis in Wayanad, over two centuries old, demonstrate sustainable groundwater access systems supporting drinking needs, rituals, and cultural continuity without ecological over-extraction.
- Andhra Pradesh’s wetland-linked fishing traditions show how livelihoods evolved in harmony with seasonal hydrology, sustaining both income and aquatic biodiversity through customary norms and community regulation.
Cultural–Economic Value
- Wetlands function simultaneously as ecology, economy, and heritage, supporting agriculture, fisheries, fodder, and crafts while reinforcing cultural identity and social cohesion in rural landscapes.
Policy & Legal Framework
Regulatory Architecture
- Wetlands (Conservation and Management) Rules, 2017 provide identification, notification, and regulation mechanisms restricting reclamation, pollution, and encroachment through State Wetland Authorities.
- NPCA guidelines promote science-based planning, monitoring, and outcome-oriented management, integrating ecological restoration with livelihood considerations.
- Coastal Regulation Zone (CRZ) norms safeguard coastal wetlands like mangroves and lagoons by regulating development and maintaining ecological buffers.
- India’s 98 Ramsar Sites entail global recognition and obligations for “wise use,” ecological character maintenance, and periodic reporting.
Data & Evidence
Status Trends
- Nearly 40% of India’s wetlands lost in three decades due to urbanisation, infrastructure, and land conversion, indicating large-scale ecological transformation.
- Around 50% of remaining wetlands show degradation from pollution, altered hydrology, and encroachments, reducing ecosystem service delivery.
Key Challenges
Land & Hydrology Pressures
- Encroachment, real estate expansion, and road networks convert wetlands into built-up areas, while outdated cadastral maps obscure original wetland boundaries and legal status.
- Dams, embankments, channelisation, sand mining, and groundwater overuse disrupt natural flow regimes, undermining wetland hydrology and ecological character.
Pollution & Climate Risks
- Untreated sewage, industrial effluents, agricultural runoff, and solid waste cause eutrophication, biodiversity collapse, and loss of flood-buffering capacity.
- Coastal wetlands face combined stress from sea-level rise, cyclones, tourism, ports, and aquaculture, limiting natural inland migration space.
Institutional Constraints
- State Wetland Authorities often face staffing, funding, and skill shortages in hydrology, GIS, ecology, and legal enforcement, weakening implementation quality.
Governance Gaps
Implementation Deficit
- India’s challenge lies less in legal absence and more in weak enforcement, fragmented coordination, and project-driven approaches rather than long-term ecosystem management programmes.
- Departmental silos prevent watershed-scale governance, ignoring ecological connectivity between wetlands, rivers, and catchments.
Way Forward
Regulatory & Planning Measures
- Ensure clear notification and demarcation with public maps, participatory ground-truthing, and grievance mechanisms to reduce disputes and encroachments.
- Integrate wetlands into basin-scale planning by restoring feeder channels, regulating extraction, and protecting catchments.
Pollution & Urban Management
- Treat wastewater before discharge; wetlands should not replace sewage plants. Constructed wetlands may complement but not substitute primary treatment.
- Recognise urban wetlands as flood buffers and blue-green infrastructure in city master plans.
Capacity & Technology
- Launch a national capacity mission for wetland managers in hydrology, restoration ecology, GIS, and community governance.
- Use remote sensing, drones, and time-series analytics for real-time monitoring of encroachment and vegetation changes.
Community & Knowledge Integration
- Combine traditional ecological knowledge with modern science to enhance compliance, restoration success, and local stewardship.
RAMSAR SITES IN INDIA
Total: 98 Sites | 13.6 lakh+ hectares
Andhra Pradesh (1)
• Kolleru Lake
Assam (1)
• Deepor Beel
Bihar (6)
• Gogabeel Lake
• Gokul Reservoir
• Kanwar Lake (Asia’s largest oxbow lake)
• Nagi Bird Sanctuary
• Nakti Lake
• Udaypur Lake
Chhattisgarh (1)
• Kopra Reservoir
Goa (1)
• Nanda Lake
Gujarat (5)
• Chhari-Dhand
• Khijadiya
• Nalsarovar (largest wetland bird sanctuary in Gujarat)
• Thol Lake
• Wadhvana Wetland
Haryana (2)
• Sultanpur National Park
• Bhindawas Wildlife Sanctuary
Himachal Pradesh (3)
• Chandra Taal (high-altitude lake)
• Pong Dam Lake
• Renuka Lake
Jammu & Kashmir (5)
• Hokersar Wetland
• Hygam Wetland
• Shallabugh Wetland
• Mansar–Surinsar
• Wular Lake (one of India’s largest freshwater lakes)
Jharkhand (1)
• Udhwa Lake
Karnataka (4)
• Ranganathittu Bird Sanctuary
• Ankasamudra Bird Conservation Reserve
• Aghanashini Estuary (free-flowing river estuary – rare case)
• Magadi Kere Conservation Reserve
Kerala (3)
• Ashtamudi Wetland
• Sasthamkotta Lake (largest freshwater lake in Kerala)
• Vembanad-Kol Wetland
Ladakh (2)
• Tso Kar
• Tsomoriri (high-altitude Ramsar sites – climate sensitive)
Madhya Pradesh (5)
• Bhoj Wetland
• Sakhya Sagar
• Sirpur Lake
• Yashwant Sagar
• Tawa Reservoir
Maharashtra (3)
• Lonar Lake (meteorite crater lake – geology favourite)
• Nandur Madhameshwar
• Thane Creek (urban wetland example)
Manipur (1)
• Loktak Lake (phumdis – floating vegetation concept)
Mizoram (1)
• Pala Wetland
Odisha (6)
• Ansupa Lake
• Bhitarkanika Mangroves
• Chilika Lake (India’s largest brackish lagoon)
• Hirakud Reservoir
• Satkosia Gorge
• Tampara Lake
Punjab (6)
• Beas Conservation Reserve
• Harike Wetland
• Kanjli Wetland
• Keshopur-Miani Community Reserve
• Nangal Wildlife Sanctuary
• Ropar Wetland
Rajasthan (5)
• Keoladeo National Park (UNESCO site)
• Sambhar Lake (largest inland salt lake)
• Khichan Wetland
• Menar Wetland Complex
• Siliserh Lake
Sikkim (1)
• Khecheopalri Wetland (sacred lake)
Tamil Nadu (20)
• Chitrangudi Bird Sanctuary
• Gulf of Mannar Marine Biosphere Reserve (marine Ramsar – rare)
• Kanjirankulam
• Karaivetti
• Karikili
• Koonthankulam
• Longwood Shola
• Pallikarnai Marsh (urban wetland example)
• Pichavaram Mangrove
• Point Calimere
• Suchindram-Theroor Complex
• Udhayamarthandapuram
• Vadavur
• Vedanthangal (oldest bird sanctuary in India)
• Vellode
• Vembannur Complex
• Nanjarayan
• Kazhuveli
• Sakkarakottai
• Therthangal
Tripura (1)
• Rudrasagar Lake
Uttar Pradesh (11)
• Patna Bird Sanctuary
• Bakhira Sanctuary
• Haiderpur Wetland
• Nawabganj
• Parvati Arga
• Saman
• Samaspur
• Sandi
• Sarsai Nawar
• Sur Sarovar
• Upper Ganga River (riverine Ramsar site – rare category)
Uttarakhand (1)
• Asan Barrage
West Bengal (2)
• East Kolkata Wetlands (sewage-fed aquaculture model – case study)
• Sundarban Wetland (mangrove ecosystem)
Budget 2026–27 & Capex-led Growth
Why in News ?
Fiscal Signal
- Budget 2026–27 guides fiscal deficit to 4.3% of GDP and raises public capex to ₹12.2 lakh crore, signalling shift from pandemic relief to infrastructure-led, borrowing-supported growth strategy.
- Capex and MSME support now framed as structural growth pillars rather than temporary stimulus, aligning with long-term vision of Viksit Bharat and productivity-led expansion.
Relevance
GS III — Indian Economy
- Capex-led growth model directly fits topics of fiscal policy, public expenditure, growth strategy, and infrastructure financing.
- Employment elasticity and jobless growth are core to questions on inclusive growth and labour markets.
GS II — Governance
- Fiscal prioritisation shows policy trade-offs between growth, welfare, and employment—useful for governance and policy-design answers.
Practice Question
- What is employment elasticity? Discuss its relevance in evaluating growth quality.(250 Words)
Basics — Capex-led Growth Model
What is Capital Expenditure (Capex)?
- Capex refers to government spending on asset creation—roads, railways, logistics, energy, digital infrastructure—that enhances long-term productive capacity instead of short-term consumption support.
- Theoretical rationale: capex crowds in private investment, raises productivity, and generates jobs through multiplier effects across construction, manufacturing, and services.
Post-Pandemic Fiscal Shift
- Since 2020–21, capex moved from counter-cyclical tool to core fiscal doctrine, becoming primary driver of growth, even during periods of fiscal consolidation.
- Capex share in total expenditure rose from ~12% (2020–21) to over 22% recently, indicating structural reorientation toward asset-led growth.
Economic Analysis — Growth vs Employment
Labour Market Disconnect
- Despite capex surge, youth NEET rate (15–29 years) remains 23–25%, meaning nearly one-fourth of youth are outside education, employment, or training.
- Indicates weak labour absorption even as GDP and capital formation accelerate, pointing to a jobless or job-light growth pattern.
Employment Elasticity Trends
- Construction elasticity fell from 0.59 (2011–20) to 0.42 (2021–24), implying each rupee of infrastructure now generates fewer jobs than before.
- Agriculture elasticity rose from 0.04 to 1.51, showing labour returning to low-productivity farming instead of exiting it—sign of distress-driven fallback.
Structural Issues
Capital Intensity Bias
- Current capex configuration favours capital-intensive sectors, where productivity rises but labour demand grows slowly, weakening employment multipliers.
- Gap between net value added per worker and wages shows productivity gains captured more as profits than labour income.
Industrial Structure Constraints
- Annual Survey of Industries shows most factories employ under 100 workers; small firms dominate numerically but contribute limited output and struggle to scale.
- Large firms capture value from new infrastructure networks but remain labour-light and automation-driven.
Dual Economy Concern
Emerging Pattern
- Economy exhibits dualism: a capital-intensive formal sector driving GDP growth alongside a large informal sector absorbing surplus labour with low productivity.
- Informality, self-employment, and disguised agricultural labour act as buffers for inadequate formal job creation.
Governance & Policy Perspective
Fiscal Doctrine Shift
- Employment increasingly treated as by-product of growth rather than explicit policy target, reflecting prioritisation of macro-stability and capital formation.
- Inclusion depends on skills, urban location, and automation compatibility, marginalising low-skilled labour.
Data & Evidence
Key Numbers
- Fiscal deficit target: 4.3% of GDP.
- Public capex: ₹12.2 lakh crore.
- Capex share: ~12% → 22% of expenditure.
- Youth NEET: 23–25%.
- Construction elasticity: 0.59 → 0.42.
- Agriculture elasticity: 0.04 → 1.51.
Challenges
Development Risks
- Persistent jobless growth risks demographic dividend turning into demographic burden.
- Wage stagnation may suppress consumption demand, weakening long-term growth sustainability.
- Labour displacement into informality reduces tax base and social security coverage.
Way Forward
Policy Corrections
- Complement capex with labour-intensive manufacturing push—textiles, food processing, electronics assembly.
- Align industrial policy with employment-linked incentives, not just production-linked incentives.
- Expand skilling aligned to infra, green jobs, and local manufacturing clusters.
- Strengthen MSME formalisation, credit access, and technology adoption.