Current Affairs – February 11, 2026

{GS2 – MoHA} Protocols for Singing Vande Mataram **

• Context (TH): The Ministry of Home Affairs (MHA) issued the first formal protocols for singing the National Song Vande Mataram, especially when played with the National Anthem.

Key Guidelines Notified

• Order of Performance: When the National Song and National Anthem are rendered together, Vande Mataram must be sung or played first, ensuring uniform ceremonial protocol.
• Complete Version Mandate: The officially approved six-stanza version shall be performed at specified formal and ceremonial state functions.
• Standing Protocol: The audience must stand in attention as a mark of respect whenever the official version is sung or played.
• Film Exception: Standing is not required when featured within newsreels or documentaries.

About Vande Mataram

• Composition: Bankim Chandra Chattopadhyay wrote the poem in 1875. He later included it in his 1882 Bengali novel Anandamath, published in the magazine Bangadarshan.
• Structure: The poem has six stanzas; the first two use Sanskrit and the latter ones use Bengali.
• Meaning: The title means “I praise thee, Mother”, symbolising devotion to the motherland
• Debut: Tagore first sang Vande Mataram publicly at the Congress Session in Calcutta, 1896, presided over by M. Rahmathulla Sayani.
• Pre-Independence Adoption: The first two stanzas were adopted as the National Song (1937) by the Congress Working Committee.
• Post-Independence Status: Officially designated as the National Song by Dr Rajendra Prasad in the Constituent Assembly (24 Jan 1950).
• Constitutional Position: Not explicitly mentioned in the Constitution; Article 51A(a) mandates respect for the National Anthem, not the National Song.

Read More> 150 Years of Vande Mataram

Foundation Courses

{GS2 – Social Sector} Food Adulteration in India

• Context (PIB): The Union Minister of State for Health tabled a written reply in the Rajya Sabha, outlining measures taken to prevent food adulteration.

About Food Adulteration

• Food adulteration involves the intentional or incidental degradation of food quality by adding inferior substances (adulterants) or removing essential nutrients.
• Vulnerable Sectors: The dairy sector remains a primary target for adulterants such as water, urea and caustic soda, along with spices and edible oils.
• Adverse Impacts: Long-term consumption causes organ failure, cancer (from dyes like Metanil Yellow), and cardiac issues; it damages India’s reputation in the global export market.

Legal Framework to Prevent Food Adulteration

• Primary Legislation: The Food Safety and Standards Act, 2006, mandates strict regulations for the manufacturing and storage of food items; it establishes the FSSAI as the regulatory body.
• Criminal Liability: The Bharatiya Nyaya Sanhita (BNS), 2023, outlines the criminal framework for the sale of noxious or adulterated food under Sections 274 and 275.
• Consumer Rights: The Consumer Protection Act (CPA), 2019, empowers the CCPA to impose penalties for misleading advertisements and for unsafe food products.

Key Government Initiatives & Measures

• Eat Right India: It operates as a flagship movement to transform the food ecosystem, ensuring food is safe, healthy, and sustainable.
• DART: The Detect Adulteration with Rapid Test is a manual released by FSSAI that enables households to identify common adulterants.
• FSW: Food Safety on Wheels deploys mobile testing labs to conduct surveillance in remote areas; there are currently 305 FSWs across States and UTs.
• RUCO: The Repurpose Used Cooking Oil initiative collects used oil to produce biodiesel, preventing it from re-entering the food chain.
• SFSI: The State Food Safety Index ranks states based on their performance in food safety.
• Lab Infrastructure: The FSSAI has notified 246 NABL-accredited labs and 24 Referral Food Laboratories for the analysis of food samples for adulteration.

Read More > Adulteration | India’s Food Safety Standards

{GS3 – IE} Collateral-Free Loans to MSMEs

• Context (IE): The RBI proposed raising the ceiling for collateral-free bank loans to MSMEs, alongside measures to permit bank lending to REITs under safeguards.

About Collateral-Free Loan Change

• Limit Raised: The collateral-free loan ceiling for MSMEs has been doubled from ₹10 lakh to ₹20 lakh, significantly widening formal credit access for small firms without asset security.
• Cash-Flow Lending: Banks are encouraged to rely more on cash-flow and business viability assessments rather than fixed-asset collateral, improving credit inclusion.
• Regulatory Alignment: The move complements priority sector lending norms and works alongside credit-guarantee frameworks to de-risk bank lending to MSMEs.

Other Measure Announced

• REIT Lending Permitted: Banks are allowed to lend to Real Estate Investment Trusts (REITs), opening a regulated credit channel to income-generating commercial real estate assets.
• Prudential Safeguards: Such exposures will be governed by risk weights, exposure caps, and due diligence norms to prevent concentration and systemic risks.

Significance for MSMEs

• Credit Gap Reduction: MSMEs face an estimated ₹20–25 lakh crore credit gap, largely due to collateral constraints; higher limits directly address this bottleneck.
• Informal Finance Dependence: Over 40–45% of micro enterprises rely on informal lenders; collateral-free limits help shift borrowing to formal banks at lower costs.
• Employment Impact: MSMEs employ ~11 crore people; easier credit supports payroll stability and incremental hiring during expansion phases.

Current Affairs

{GS3 – IE} Accelerating Electricity Demand Growth

• Context (DTE): The International Energy Agency report projects the fastest sustained growth in global electricity demand through 2030, driven by data centres, EVs and cooling.

Key Highlights of the Report

Global Projections

• Growth Pace: Electricity demand to grow at ~3.6% annually (2026–2030), adding ~1,100 TWh per year.
• Consumption Level: Global use expected to reach ~33,600 TWh by 2030.
• Structural Shift: Electricity demand outpaced GDP growth in 2024, a first outside crises in three decades, marking a new “Age of Electricity.”

Regional Dynamics

• Emerging Economies: Account for ~80% of additional demand through 2030.
• China: Adds ~2,600 TWh by 2030, roughly equal to the EU’s current total consumption.

India Snapshot

• Demand Growth: ~6.4% per year through 2030; among the fastest globally.
• Cooling Impact: Air-conditioning to contribute >20% of India’s demand growth (2026–2030).
• Peak Load: National peak demand rose ~54% since 2017 to ~250 GW in 2024.

{GS3 – Envi} Businesses Endangering Nature

• Context (DTE): A recent IPBES report shows that businesses harm nature, even though they depend on clean water, healthy soil, pollinators, and a stable climate.

Impact on Ecosystems

• Businesses significantly influence ecosystems, creating both positive conservation outcomes and negative environmental impacts.

Positive Impact

• Sustainable Practices: Eco-friendly production, such as avoiding deforestation and reducing habitat loss.
• Conservation Funding: Investing $220 billion globally in ecosystem restoration aids biodiversity recovery and climate mitigation.
• Supply Chain Management: Responsible sourcing prevents pollution and deforestation.

Be Prelims Ready!

Negative Impact

• Community Impact: Communities safeguarding nature for generations face the greatest harm.
• Biodiversity Decline: Loss of pollinators and wetlands directly affects food security and livelihoods.
• Habitat Loss: Deforestation, mining, and construction lead to species displacement and extinction.

Key Challenges

• Profit Motive: Short-term profits often override ecosystem protection, making sustainability costly.
• Corporate Accountability: Less than 1 % of companies mention biodiversity impacts in their reports.
• Greenwashing Risk: Companies claim to protect nature, but, in reality, only slightly reduce harm.

Way Forward

• Subsidy Reform: Phase out harmful subsidies promoting destructive practices.
• Community Inclusion: Ensure free, prior, and informed Consent (FPIC) for Indigenous communities.
• Green Planning: Businesses must integrate nature-related risks into financial and business planning
• Inclusive Partnership: Respectful collaboration with Indigenous Peoples and local communities can translate into better management of business risks and opportunities.

{GS3 – S&T} India’s Battery Strategy **

• Context (TH): With rising EV adoption and renewable energy storage needs, India is rethinking reliance on lithium-ion batteries and exploring sodium-ion technology as a safer alternative.

Rationale for Decreasing Reliance on Lithium-Ion Battery

• Supply Concentration Risk: Over 70% of lithium processing and major cobalt refining are concentrated in a few countries, exposing India to geopolitical shocks.
• Import Dependence: India has allocated ~40 GWh ACC capacity under PLI, but the upstream raw material ecosystem remains largely import-driven.
• Price Volatility: Rising global battery demand is expected to intensify mineral scarcity.

Why Sodium-Ion Batteries (SiBs) are a Strong Alternative?

• Mineral Light Chemistry: Many SiBs avoid cobalt, nickel & copper, lowering critical mineral exposure.
• Manufacturing Compatibility: Existing lithium-ion factories can be adapted with limited retrofitting.
• Rapid Global Scaling: Global SiB capacity expected to rise from ~70 GWh (2025) to ~400 GWh by 2030.
• High Safety Profile: Lower thermal runaway temperatures allow safer storage & transport at zero volts.

Disadvantages Of Sodium-Ion Batteries (SiBs)

• Lower Energy Density: Still lag behind high-performance Li-ion batteries in weight & volume efficiency.
• Early Commercial Stage: Limited large-scale deployment compared to a mature lithium-ion ecosystem.

Sodium-ion battery vs Litium Ion Battery

Way Forward

• Technology-Neutral Incentives: Expand PLI schemes to explicitly include sodium-ion chemistries; E.g., flexible Advanced Chemistry Cell manufacturing lines supporting both Li-ion and SiBs.
• Upstream Ecosystem Development: Support domestic production of sodium-based cathodes, anodes and electrolytes; E.g., localisation push similar to solar PV manufacturing incentives.
• Regulatory Integration: Update BIS safety standards and certification frameworks to cover sodium-ion batteries; E.g., fast-track approval norms like those for EV lithium batteries.
• Global Collaboration: Partner with leading SiB innovators for technology transfer; E.g., joint research with EU & East Asian battery research hubs.

{GS3 – S&T} Regulation of AI Content in India

• Context (TH | IE): The Union Government notified amendments to the IT (Intermediary Guidelines & Digital Media Ethics Code) Rules, 2021, mandating labelling of AI-generated content.

Key Amendments Notified

• Mandatory AI Labelling: Photorealistic AI-generated or synthetically generated content must carry a prominent disclosure, preventing users from mistaking it as real.
• Compressed Takedown Timelines: Platforms must remove court/government-flagged unlawful content within 3 hours and non-consensual deepfakes within 2 hours, reduced from 24–36 hours.
• User Disclosure Duty: Platforms must seek self-declaration from users on whether content is AI-generated, failing which platforms must label or remove it.
• Narrowed AI Definition: Routine edits and quality-enhancing AI tools (e.g., camera touch-ups) are excluded from the definition of synthetically generated content.

Rationale Behind the Amendment

• Prevent Viral Harm: Unlawful and deepfake content often goes viral within minutes; studies show over 60% of harmful content reaches peak circulation within 6 hours.
• Protect Dignity and Privacy: India has seen a sharp rise in non-consensual intimate imagery (NCII) cases; NCRB data shows cybercrime cases rose by over 31% between 2022–2023.
• Platform Responsibility: With India having over 850 million internet users, intermediaries are now expected to exercise higher due diligence proportional to their technological capacity.
• Ethical AI Governance: Aligns with OECD AI Principles and G20 AI Safety Guidelines to promote responsible AI deployment in India.

Concerns and Challenges

• Operational Feasibility: A 2–3 hour takedown window may be difficult where illegality is ambiguous, especially when law-enforcement notices lack detailed reasoning.
• Over-Censorship Risk: Fear of penalties and loss of safe harbour may push platforms towards precautionary takedowns, chilling legitimate speech and satire.
• Safe Harbour Uncertainty: Non-compliance can trigger loss of intermediary immunity, exposing platforms to criminal and civil liability for user-generated content.
• Compliance Burden: Smaller platforms and start-ups may lack real-time AI detection tools and moderation staff, creating uneven regulatory impact.

Way Forward

• Clearer Illegality Tests: Issue standardised, content-specific guidelines to identify unlawful and deepfake material; E.g., predefined indicators for NCII, impersonation and election-related misinformation.
• Graded Timelines: Introduce risk-based takedown timelines instead of a uniform window; E.g., immediate removal for NCII, extended review for context-dependent speech.
• Independent Oversight: Establish an independent appellate or review mechanism to address wrongful takedowns; E.g., a digital content ombudsman with time-bound decisions.
• Tech Enablement: Support platforms through shared AI detection tools, hash databases and government-backed infrastructure; E.g., a national deepfake detection and verification facility.

Read More > IT Amendment Rules, 2025

{GS3 – S&T} Site in Mons Mouton Selected for Chandrayaan-4 Landing

• Context (TH): ISRO has identified a location (MM-4) in Mons Mouton as the primary landing site for the lander of India’s first lunar sample-return mission, Chandrayaan-4.

• Site Selection: Four candidate zones were evaluated using high-resolution data from the Orbiter High Resolution Camera (OHRC) onboard the Chandrayaan-2 orbiter.
• Strategic Advantage: The 1 km x 1 km area around MM-4 exhibits the lowest hazard percentage and a mean slope of 5 degrees.
• Landing Safety: The site offers the largest number of 24m x 24m “hazard-free grids“, crucial for the soft landing of the five-module spacecraft.
• Operational Viability: It provides direct radio visibility to Earth and receives continuous sunlight for 11 to 12 days, both critical for mission longevity.

About Mons Mouton

• Geographical Feature: Mons Mouton is a massive, flat-topped lunar mountain (or “mesa“) in the Moon’s South Polar region.
• Physical Dimensions: The mountain spans approximately 100 km in width and covers an area of about 5,180 km².
• Positional Context: It lies between the Nobile and Malapert craters, rising nearly 6,000 metres above the surrounding terrain.
• Illumination Profile: Unlike much of the South Pole, the flat summit receives extended periods of sunlight (up to 12 days at a time).
• Resource Potential: The mountain is flanked by steep, permanently shadowed regions believed to harbour water ice.
• Geological Origin: It is believed to be a remnant of the structural rim of the Moon’s oldest impact crater, the South Pole-Aitken (SPA) Basin.

{Prelims – Geo} Dragon Hole *

• Context (TOI): Researchers recently identified distinct microbial communities thriving in the deep, anoxic (oxygen-free) “death zone” of Dragon Hole.

• The Dragon Hole, also known as the Sansha Yongle Blue Hole, is a massive underwater sinkhole in the Paracel Islands of the South China Sea.
• It was considered the world’s deepest blue hole (301.19 metres) until 2024.
• Ecological Stratification: The upper 100 metres support over 20 marine species, while waters below this depth are anoxic (oxygen-free) and stagnant, excluding most fish and plants.
• Microbial Adaptation: Scientific expeditions discovered approximately 1,700 distinct viral types and specialised sulphur-eating bacteria in these oxygen-deprived depths.
• Geological Origin: The Blue Hole is a Karst formation (limestone cave) developed during the last Ice Age when sea levels were significantly lower.
• Significance: Its sediment layers act as a “paleo-climate archive,” preserving long-term records of ancient climate and typhoons due to the lack of water turbulence.

{Prelims – S&T} Boeing P-8I Aircraft *

• Context (IE): India approved acquiring six additional Boeing P-8I reconnaissance and anti-submarine aircraft from the US, with final approval granted by the Defence Acquisition Council (DAC).

Boeing P-8I Aircraft

• Aircraft Role: P-8I is a multi-role Long Range Maritime Reconnaissance Anti-Submarine Warfare (LRMR ASW) aircraft.
• Manufacturer: Built by Boeing, a leading US aerospace company.
• Service User: Operated by the Indian Navy for maritime security missions.
• Platform Variant: P-8I Poseidon is a customised version of the US Navy’s P-8A Poseidon.
• Fleet Upgrade: Replaced the Indian Navy’s ageing Tu-142 Tupolev aircraft.
• Mission Profile: Carries out ASW, anti-surface warfare, intelligence, surveillance, and maritime patrol.
• Combat Systems: Equipped with advanced sensors and weapons for detecting submarines, surface vessels and maritime threats.
• Key Specifications: Length 39.47 m, wingspan 37.64 m, max take-off weight 85,139 kg, operated by 9 crew members.

{Prelims – S&T} Deep Tech Startups

• Context (TH): The Department for Promotion of Industry and Internal Trade (DPIIT) issued a notification to officially define a distinct category for ‘Deep Tech Start-ups’.

• It defines Deep Tech Start-ups as entities that develop solutions based on new scientific knowledge, with high R&D expenditure, long gestation periods, and novel Intellectual Property (IP).
• Tenure Extension: The recognition period has been doubled from 10 to 20 years to accommodate long gestation cycles.
• Financial Threshold: The annual turnover limit is set at ₹300 crore, higher than the ₹200 crore limit for general start-ups.
• Capital Usage: The notification prohibits them from investing funds in speculative assets like real estate or luxury goods unless directly related to core R&D.
• Funding Mechanism: The Anusandhan National Research Foundation (ANRF) manages the ₹1 lakh crore RDI Fund for investing in emerging technology.
• Significance: The recognition structurally de-risks the sector by aligning regulatory timelines with the “science-to-market” lifecycle, thereby encouraging a long-term flow of capital.