
Current Affairs – March 22, 2026
{GS1 – Geo} Local Winds in India
- Context (TOI): A nor’wester in Odisha, causing deaths and damage, highlights the intense, localised impact of local winds on weather, disasters, and livelihoods.
About Local Winds
- Meaning: It is winds that blow over short distances and are influenced by local geographical features such as mountains, valleys, coastlines, and deserts.
- Characteristics: They are temporary, predictable, and region-specific, formed due to differences in temperature and air pressure within a small area.
Factors Responsible for Local Winds
- Differential Heating: Unequal heating of land and water creates pressure differences that drive winds. E.g., a sea breeze forms when cooler air moves from the sea to the land during the day.
- Pressure Gradient: Air moves from high-pressure to low-pressure areas, determining wind flow. E.g., a land breeze occurs at night as air moves from cooler land to warmer sea.
- Relief Features: Mountains and valleys influence wind direction and movement. E.g., Valley breeze flows uphill during the day in hilly regions.
- Surface Characteristics: Land cover, like deserts, forests, and cities, affects heating and wind patterns. E.g., urban heat islands generate localised winds in cities such as Delhi.
- Seasonal Changes: Seasonal temperature variations create region-specific winds. E.g, Loo blows as a hot, dry wind in North India during summer.
Formation of Local Winds
- Temperature differences: Unequal heating creates pressure differences and local winds. E.g., Sea breeze–land breeze, Loo, Mango showers.
- Topographic influence: Mountains and slopes modify airflow, producing upslope and downslope winds. E.g., Valley breeze, mountain breeze, Foehn-type winds, katabatic winds.
- Urban effects: Cities act as heat islands and generate local air circulation. E.g., Local winds over Delhi and Mumbai.
- Vegetation influence: Forested and cooled surfaces cause cold air drainage and local wind flow. E.g., Forest-valley winds in the Western Ghats and Himalayan valleys.
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Impact of Local Winds
- Local winds significantly influence regional weather, shaping both beneficial conditions and adverse impacts on human life and livelihoods.
Positive Impacts
- Climate Moderation: Local winds regulate temperature and provide relief from extreme heat. E.g., Sea breeze cools coastal cities like Mumbai.
- Agricultural Benefits: They support crop growth, ripening, and seasonal cycles. E.g., Mango showers in Kerala aid mango ripening.
- Rainfall Support: Help in bringing rainfall and maintaining local water cycles. E.g., Nor’westers bring pre-monsoon rains in eastern India.
Negative Impacts
- Health Hazards: Extreme winds can adversely affect human health. E.g., Loo causes heatstroke and dehydration in North India.
- Disaster Damage: Strong winds can damage life, property, and infrastructure. E.g., Aandhi leads to dust storms and destruction in northwestern India.
- Agricultural Loss: Violent winds and storms can destroy crops. E.g., Nor’westers can damage standing crops in eastern India.
Local Winds in India
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{GS1 – IS} India’s Demographic Transition
- Context (TH): India is transitioning from a youthful, fast-growing population to an ageing, urbanised society, presenting both challenges and demographic opportunities by 2051.
Demographic Transition in India
- Slower Growth: Population to rise from 1,355.8 million (2021) to 1,590.1 million (2051) at 0.5% annual growth, slowing expansion.
- Falling Child Population: Pre-primary (0–4 years) numbers drop from 113.5 million (2021) to 8.6 million (2051), affecting school demand.
- Education Shift: Government schools fall from 11.07 lakh (2014–15) to 10.18 lakh (2023–24); private schools rise from 2.88 lakh to 3.31 lakh.
- Ageing Society: Elderly (60+) increase from 130.5 million (9.6%) to 325.3 million (20.5%), straining healthcare and social security.
- Workforce Trends: Working-age population peaks at 1,009 million (65.5%) in 2041, then declines to 998.1 million (62.8%) in 2051, limiting the demographic dividend.
Opportunities for India
- Education Reform: Shrinking pre-primary population from 113.5 million to 8.6 million (mid-century) improves teacher-student ratios and school resource use.
- Healthcare Efficiency: Falling birth rates lower maternity care demand, enabling better resource allocation and quality in maternal health.
- Gender Dividend: Declining working-age population after 2041 can be balanced by higher female workforce participation to boost productivity.
- Silver Economy: Elderly population rising to 20.5% by 2051 offers opportunities in geriatric care and senior-focused services.
Implications of India’s Demographic Transition
- Schooling Impact: Pre-primary population (0–4 years) to drop to 8.6 million by 2050, reducing demand for government schools.
- Private Education: Growing preference for private schools (rose from 2.88 lakh to 3.31 lakh) reflects shifting education demand and quality expectations.
- Workforce Decline: Working-age population peaks at 1,009 million (65.5%) in 2041, then declines to 998.1 million (62.8%) by 2051, shrinking the demographic dividend.
- Policy Challenges: Median age rises to 40 years (2051), requiring reforms in healthcare, pensions, education, and skill development.
Key Challenges
- Falling Child Population: Pre-primary population drops to 8.6 million, reducing school demand and affecting education planning.
- Skill Gap: Youth lack skills and education to use India’s demographic advantage effectively.
- Resource Pressure: Declining fertility and ageing require restructuring healthcare and social support systems.
Way Forward: Demographic Strategy
- Education Upgrade: Strengthen skills and vocational training. E.g., PM Kaushal Vikas Yojana trained 1.64 crore youth.
- Gender Inclusion: Boost women’s workforce participation, shown in rising roles in IT and healthcare sectors.
- Geriatric Support: Expand elderly healthcare and pensions. E.g., Kerala’s senior care programs.
- Silver Economy: Promote senior entrepreneurship and employment, inspired by Japan’s elder entrepreneurship initiatives.
{GS2 – Governance} AI-Powered Tax Governance in India
- Context (TH): India is employing AI and data analytics to address its low tax-to-GDP ratio (16.36% between 2001 and 2022), and tax evasion losses (4.3% of revenue).
Key Initiatives for AI in Tax Governance
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Key Achievements of AI-Driven Tax Governance
- Revenue Gains: AI-driven NUDGE campaigns generated over ₹11,000 crore revenue, prompting disclosures of foreign assets and virtual digital incomes.
- Operational Efficiency: Automated processing has decreased operational delays and shortened refund timelines significantly.
- Evasion Detection: AI models uncovered ₹70,000 crore in concealed restaurant sales through advanced data analysis.
- GST Fraud Detection: AI systems detected about ₹8.86 lakh crore in GST evasion and Input Tax Credit (ITC) fraud during FY 2020–21 to FY 2024–25.
Key Challenges and Associated Risks
- Governance Gaps: Opaque AI models and the absence of an ombudsperson limit transparency, making it difficult to contest automated risk assessments.
- False Positives: AI systems can misread legitimate financial complexity as evasion, creating unnecessary compliance burdens for honest taxpayers.
- Infrastructure Gaps: Integration with legacy systems challenges adoption for small businesses and rural users with limited digital literacy.
- Algorithmic Bias: Models trained on past enforcement patterns may perpetuate socio-economic or regional biases in taxpayer scrutiny.
- Cybersecurity Threats: Centralised taxpayer databases heighten the risk of data breaches and large–scale cyberattacks.
Way Forward
- Institutional Oversight: Establish an AI Tax Ombudsperson to resolve disputes and ensure fair hearings.
- AI Transparency: Mandate human-readable explanations for AI-generated risk flags for transparency and legal defensibility of automated assessments.
- Algorithmic Audits: Mandate regular independent audits to identify bias and require authorities to keep AI decision logs for judicial review.
- Privacy Safeguards: Ensure that algorithms’ tax data practices comply with the Digital Personal Data Protection (DPDP) Act, 2023.
{GS2 – IR} Scientific Collaborations in BRICS
- Context (TH): BRICS has emerged as a significant platform for scientific collaboration, advancing coordinated research and innovation among major emerging economies.
Evolution of Scientific Collaboration in BRICS
- Strategic Birth: Brasilia MoU (2015) transitioned BRICS science cooperation from informal discussions to a formal institutional framework.
- Funding Launch: STI Framework Programme (2016) introduced the virtual pot model and funded the first multilateral R&D grants among member states.
- Commercial Pivot: Hangzhou Action Plan (2017) moved BRICS cooperation beyond academic research toward market-ready innovation and cross-border technology transfer.
- Resource Pooling: Remote Sensing Agreement (2021) allowed BRICS members to use common scientific infrastructure (joint satellite constellation) for the first time.
- Health Integration: Vaccine R&D Centre (2022) brought health security into BRICS cooperation by establishing a shared platform for pandemic preparedness.
- Frontier Governance: Rio AI Declaration (2025) placed Artificial Intelligence at the core of BRICS cooperation to shape global standards in emerging technologies.
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Key Scientific Initiatives under BRICS
| Initiative / Platform | Domain | Core Function |
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iBRICS Network |
Innovation & Startups |
Connects science parks, incubators, and innovation hubs to provide soft-landing support for startups across BRICS markets. |
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Technology Transfer Centre |
Commercialisation & IP |
Supports patent navigation and cross-border commercialisation of intellectual property for startups and labs. |
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Institute of Future Networks |
Telecommunications & ICT |
Develops common standards for 5G, 6G, and industrial IoT technologies. |
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Energy Research Cooperation Platform |
Sustainable Energy |
Conducts joint research on hydrogen, smart grids, and renewable energy transition. |
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TB Research Network |
Public Health |
Aligns clinical protocols and diagnostics to combat tuberculosis and infectious diseases. |
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Astronomy Working Group |
Fundamental Science |
Integrates telescope data for joint deep-space observation and astrophysical mapping. |
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BRICS Network University |
Higher Education |
Enables joint research and academic exchanges across 11 thematic groups spanning energy, ICT, health, and ecology. |
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Young Scientist Forum |
Human Capital |
Connects researchers under 40 to address shared regional challenges. |
Challenges in BRICS Scientific Collaboration
- R&D Asymmetry: China’s dominant R&D expenditure creates uneven project leadership and structural financial dependency.
- Institutional Fragmentation: The absence of a permanent central secretariat weakens long-term strategic planning and administrative coordination
- Funding Disparity: The ‘virtual pot’ model exposes projects to domestic economic volatility, allowing funding disruptions in one member to stall multilateral initiatives.
- Language Barriers: Limited shared scientific language beyond English hinders peer collaboration and the standardisation of technical documentation.
- Valley of Death: Low commercialisation rates prevent the conversion of joint laboratory research into market-ready technological products
Read More> BRICS: Evolution, Expansion & Importance for India
{GS3 – Envi} Blur over India’s Carbon Credit Plan
- Context (TH): The ₹20,000 crore carbon credit programme announced in Union Budget 2026 has led to confusion over whether the scheme targets industrial decarbonisation or agricultural carbon markets.
Focus on Industrial Decarbonisation
- The programme is based on the CCUS (Carbon Capture, Utilisation & Storage) roadmap, which focuses on reducing emissions from hard-to-abate sectors such as power, steel, cement, refineries, & chemicals.
- Exclusion of Agriculture: Agriculture is explicitly excluded from the CCUS because its emissions are biologically generated (methane & nitrous oxide), and unsuitable for point-source capture technologies.
- CCUS & CDR: The policy distinguishes between CCUS (prevents new industrial emissions) & Carbon Dioxide Removal, where agriculture contributes through soil carbon sequestration & agroforestry.
- Policy Gap: While India has a clear strategy for industrial decarbonisation, it lacks a structured national framework for carbon farming.
Carbon Capture, Utilisation & Storage (CCUS)
- CCUS involves capturing CO₂ emissions from industrial sources and either utilising them or storing them underground to prevent atmospheric release.
- It is mainly applied in hard-to-abate sectors like power, steel, cement, refineries, and chemicals and helps in reducing industrial emissions and is crucial for achieving net-zero climate targets.
- The process includes three stages; capture (from flue gases), utilisation (industrial use), and storage (geological formations).
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Way Forward for India’s Climate Strategy
- Adopt a dual approach (“smokestack and soil”) by simultaneously promoting industrial decarbonisation and agricultural carbon sequestration through carbon farming.
- Strengthen policy and regulatory framework by creating clear guidelines, carbon pricing mechanisms, and long-term storage liability norms.
- Develop a dedicated carbon farming framework to enable farmers to participate in carbon markets and generate additional income through sustainable practices.
- Promote investment, innovation, and public–private partnerships in both clean technologies and nature-based solutions to accelerate climate action.
{GS3 – Infra} Rising Power Demand in India
- Context (IE): AI, data centres, & EVs are expected to increase India’s peak power demand by additional 30 GW in the next 5–6 years.
- India’s peak power demand reached around 250 GW in FY25, reflecting rising electricity consumption.
- Future Projection: India’s peak power demand is expected to rise to ~459 GW by FY36, reflecting rapid economic and digital growth.
- Capacity Expansion: India’s installed power capacity is projected to grow to ~1,121 GW by FY36, with a major share from non-fossil fuel sources.
Peak demand
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Role of AI & Data Centres in Power Demand
- AI systems & data centres require continuous, high-intensity computing, leading to significant electricity consumption.
- Growth of digital economy, cloud services, AI applications, and data storage is accelerating the expansion of data centres, increasing power demand.
Challenges in Meeting India’s Rising Power Demand
- Infrastructure Gaps: Need for massive expansion in generation, transmission, and distribution networks to meet future demand.
- High Investment Requirement: Energy transition and capacity expansion demand ~$2.2 trillion investment, posing financing challenges.
- Grid Stability Issues: Managing fluctuating demand and integrating variable renewable energy creates frequency and reliability challenges.
- Dependence on Thermal Power: Despite RE growth, thermal power remains essential for baseload, complicating clean energy transition.
- Global Climate Pressure: Mechanisms like Carbon Border Adjustment Mechanism (CBAM) challenge carbon-intensive industries, requiring cleaner energy adoption.
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Role of Renewable Energy
- Cost Competitiveness: Renewable energy (RE) is emerging as the most viable option to reduce long-term power costs, improving affordability for consumers and industries.
- Manufacturing Boost: Clean and affordable RE is crucial for enhancing the global competitiveness of Indian manufacturing, especially amid rising exports.
- Climate Compliance: Adoption of RE helps industries meet low/zero-emission standards, essential to tackle global regulations like CBAM.
- Energy Transition Driver: RE is at the core of India’s energy transition, supporting the shift from fossil fuels to sustainable energy systems.
- Capacity Expansion Focus: A major share of future installed capacity (~786 GW by FY36) is expected from non-fossil fuel sources.
Schemes & Initiatives to Promote Energy Infrastructure in India
- Integrated Power Development Scheme: Focuses on strengthening urban power distribution networks, reducing losses, and improving reliability.
- Green Energy Corridor (GEC): Develops transmission infrastructure for renewable energy, enabling evacuation from RE-rich states.
- National Smart Grid Mission: Promotes smart grid technologies, digital monitoring, and efficient electricity management.
- PM-KUSUM: Supports solar pumps and decentralised solar plants, reducing grid burden and promoting clean energy.
- PM Surya Ghar: Muft Bijli Yojana: Launched in February 2024; targets rooftop solar installations in 1 crore households by FY 2026–27.
- Production Linked Incentive (PLI) for Solar Modules: Encourages domestic manufacturing of solar PV modules, strengthening energy self-reliance.
- Small Hydro Power Development Scheme: Supports small hydro projects, especially in hilly and North-Eastern regions for clean energy expansion.
{GS3 – Infra} Government Raises FASTag Pass Fee and Enforces Toll Compliance
- Context (HT | NOA): National Highways Authority of India (NHAI) has increased the FASTag Annual Pass fee from ₹3,000 to ₹3,075 for FY 2026–27.
- Toll Enforcement: Government also notified the National Highways Fee Rules, 2026, creating a structured e-notice system to recover unpaid user fees.
- It mandates integration of National Electronic Toll Collection (NETC) with the VAHAN database for seamless vehicle identification and enforcement.
About FASTag Annual Pass
- FASTag Annual Pass, introduced in 2025, is a prepaid toll facility providing seamless, faster, and cost-effective travel for frequent highway users.
- The pass is non-transferable and valid for one year or 200 toll crossings, whichever comes first.
- Nodal Agency: NHAI and Indian Highways Management Company Limited (IHMCL) operate the pass under the Ministry of Road Transport and Highways (MoRTH).
- Scope: The pass is valid only for private non-commercial vehicles. It does not cover state highways, private expressways, or municipal toll plazas.
FASTag
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Read More > One Vehicle, One FASTag
{Prelims – Eco} Government Amends Rules for Captive Generating Plants
- Context (TH): Ministry of Power clarified ownership norms for captive power-generating plants through the Electricity (Amendment) Rules, 2026.
- The revised rules specify that ownership includes holding companies, subsidiaries, and co-subsidiaries.
About Captive Power Generating Plants
- A captive power generation plant is an electricity production facility established by an entity mainly for its own consumption.
- Criteria: Captive users must hold a minimum of 26% ownership and consume at least 51% of the total electricity generated annually.
- Significance: They lower supply risks and electricity cost volatility for energy-intensive sectors such as steel, aluminium, cement, and data centres.
Read More > Draft National Electricity Policy (NEP) 2026
{Prelims – Festivals} Mizoram’s Chapchar Kut festival
- Context (NOA): Mizoram recently celebrated the Chapchar Kut festival in Aizawl.
- Chapchar Kut is Mizoram’s biggest spring festival and is widely known as the Mizo ‘festival of joy’.
- It is celebrated every year in March to mark the completion of jungle clearing for Jhum cultivation.
- History & Revival: The festival began in the 15th century, declined under colonial influence, and was revived in 1973 as a secular celebration.
- Cultural Dance: Festivities prominently feature the Cheraw dance, a traditional bamboo dance performed in vibrant ethnic attire.
- Traditional Attire: Participants wear colourful, handwoven costumes and headgear, with men in traditional wrap-arounds (Puan), and women in Mizo skirts.
{Prelims – In News} Purple Fest 2026
- Context (PIB): Rashtrapati Bhavan hosted Purple Fest 2026 to celebrate the talent, achievements, and aspirations of Divyangjan.
- Organising Body: Department of Empowerment of Persons with Disabilities (DEPwD) under the Ministry of Social Justice and Empowerment, organised it.
- Symbolism: The colour purple represents dignity and independence in global disability rights movement.
- Significance: It highlighted India’s rights-based approach to Divyangjan empowerment, recognising them as equal partners in the Viksit Bharat 2047 vision.
Read More > Divyang Sahara Yojana and Divyangjan Kaushal Yojana
{Prelims – Infra} Government Directive to Airlines on Free of Charge Seat Allocation
- Context (TH): Directorate General of Civil Aviation (DGCA) instructed airlines to keep at least 60% of seats free from seat selection charges.
- Key Directives: Airlines must seat passengers under the same Passenger Name Record (PNR) together and have transparent policies for sports equipment, instruments, and pets.
- Rights Enforcement: It also mandated strict adherence to passenger rights regulations during delays, cancellations, and denied boarding.
- Significance: The directive strengthens consumer protection by reducing hidden charges and making essential airline services more transparent and accessible.
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