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

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.

FSSAI: The Food Safety and Standards Authority of India is the apex statutory body under the Ministry of Health & Family Welfare, to protect public health by regulating the food supply chain.
CCPA: The Central Consumer Protection Authority is the regulatory arm of the Ministry of Consumer Affairs, responsible for protecting consumers’ rights and preventing their violations.

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.

Status of MSMEs in India

Scale: India has ~6.3 crore MSMEs, with ~99% classified as micro enterprises (Udyam data).
Economic Role: Contribute ~30% to GDP and ~45% to manufacturing output.
Exports: Account for ~43–45% of merchandise exports, critical for trade competitiveness.

{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.

International Energy Agency (IEA)

Establishment: The IEA was established in 1974 by member countries of the OECD to help industrialised nations respond to the 1973-1974 oil crisis.
Focus Areas: Energy security, economic development, and environmental awareness.
Headquarters: Paris, France.
Members: The IEA comprises 32 member countries, 13 association countries (including India), and 4 accession countries. A nation must be a member of the OECD to become a member of the IEA.
Major Publications: World Energy Outlook Report, India Energy Outlook Report, World Energy Investment Report, Annual Energy Efficiency Market Report, Energy Technology Perspectives.

{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.

Current Status

Report Evidence: $7.3 trillion spent globally in 2023 on activities harming nature.
Funding Gap: Only $220 billion was spent on ecosystem protection, showing a major funding gap.
Land Threats: About 60% of Indigenous lands face industrial pressures, with 25% under high mining, logging, and energy stress.
Sector Contribution: Agriculture, forestry, fishing, mining, energy, construction, and transportation cause most ecosystem damage.

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.

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.

Lithium-Ion Battery

Category: Rechargeable electrochemical energy storage battery using lithium ions as charge carriers.
Basic Working: Lithium ions move from anode to cathode during discharge and reverse during charging through the electrolyte medium.
Core Components: Graphite-based anode for lithium storage, Lithium Iron Phosphate or Nickel Manganese Cobalt as cathode, and a lithium salt electrolyte enabling ion movement.

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

Aspect	Sodium-ion Batteries (SiB)	Lithium-ion Batteries (LiB)
Raw material	Relies on widely available sodium (derived from soda ash)	Relies on limited resources such as lithium, cobalt, nickel, and graphite
Energy density	Comparatively lower energy density	Relatively higher energy density
Safety	More stable; lower risk of thermal runaway, can be stored at zero voltage	Greater fire hazard; classified under dangerous goods
Supply chain	Low geopolitical vulnerability due to abundant inputs	High import reliance with concentrated global supply
Charging speed	Faster charging and nearly threefold higher cycle life	Slower charging and comparatively shorter lifecycle

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).

DAC: Defence Acquisition Council is India’s top authority for approving defence equipment purchases. It oversees timely procurement, budget utilisation, and policy decisions for all armed forces.

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.