UPSC CURRENT AFFAIRS – 31 JULY 2026

Context: Recent heavy monsoon downpours across Uttarakhand, Himachal Pradesh, and Jammu and Kashmir have led to frequent reports of devastating flash floods and landslides, bringing renewed focus to cloudburst events.

About Cloudbursts in India:

What is a Cloudburst?

• According to the India Meteorological Department (IMD), a cloudburst is a highly localized, extreme weather event where an area of roughly 20 to 30 sq. km receives 10 cm (100 mm) or more of rainfall within an hour. It represents an extraordinary volume of water falling in a very short duration, vastly exceeding the ground’s absorption capacity and triggering sudden, destructive flash floods.
• Scientists also advocate for a mini-cloudburst category (5 cm of rain in an hour over the same area), which can cause equal devastation depending on local mountain topography.

How Does a Cloudburst Occur?

• Orographic Lifting: Warm, moisture-laden monsoon air is forced to rise rapidly as it collides with steep mountain barriers.
• Updraft Convection: Strong upward currents of warm air prevent condensing water droplets from falling immediately, trapping them inside towering cumulonimbus clouds (up to 15 km tall).
• Over-Saturation & Collapse: As more water droplets accumulate, their combined weight eventually overcomes the upward currents, or the updraft suddenly weakens.
• Sudden Torrent: The trapped water plummets simultaneously, dropping a massive volume of water like a torrential wall onto a small patch of land.

Frequency and Regional Distribution in India:

• Underrepresented Historical Data: Official IMD records documented around 30 cloudburst events between 1970 and 2016. However, experts emphasize this is a severe underestimate due to sparse rain gauge networks in remote areas.
• Increasing Frequency due to Climate Change: Global warming has increased the moisture-holding capacity of the atmosphere, making extreme localized precipitation events more frequent during the southwest monsoon.
• High-Altitude Hotspots: Cloudbursts are heavily concentrated in the Himalayan belt—primarily in Uttarakhand, Himachal Pradesh, Jammu & Kashmir, and Ladakh—due to rugged terrain and steep orographic slopes.
• Monitoring Blind Spots: Many events occur away from Doppler weather radars and automatic weather stations; if a cloudburst hits a few kilometers away from a sensor, it often goes unrecorded in official meteorological logs.

Notable Cloudburst and Flash Flood Events (Past 5 Years):

• Pahalgam & Anantnag Torrential Events, Jammu & Kashmir (2026): Extreme localized rainfall triggered severe debris flows and flash floods, scattering boulders and destroying local connectivity.
• Dharali & Uttarkashi Floods, Uttarakhand (2025): Initial reports blamed a cloudburst, though meteorological data later revealed lower rainfall rates combined with illegal riverbed construction and unmanaged road runoff.
• Amarnath Cave Flash Flooding, Jammu & Kashmir (2022): Highly localized torrential downpours near the holy cave shrine caused rapid flash flooding, washing away pilgrim camps and infrastructure down the valley.
• Lahaul-Spiti & Mandi Floods, Himachal Pradesh (2023): Multiple localized cloudburst-like events triggered severe landslides, breaching riverbanks and destroying bridges across mountain valleys.

Key Implications of Cloudbursts:

• Devastating Debris Flows: The sudden rush of water mobilizes loose mountain soil, boulders, and trees, creating high-velocity mudslides.
• Immediate Infrastructure Collapse: Sweeps away mountain highways, bridges, hydro-project tunnels, and homes within minutes.
• Loss of Lives and Livelihoods: Causes high casualties among isolated mountain communities and seasonal tourists, destroying agricultural terraces and livestock.
• Downstream Secondary Flooding: Blocked mountain streams form temporary artificial lakes that eventually burst, causing secondary flash floods lower down the valley.
• Escaping Accountability: Labeling every heavy rain a cloudburst allows authorities to frame tragedies as unforeseeable acts of God, obscuring poor drainage, deforestation, and illegal riverbed encroachments.

NDMA Guidelines for Managing Cloudbursts & Himalayan Hydro-Hazards:

• Hazard Mapping & Zonation: Identify high-risk micro-catchments and restrict residential and commercial construction along active floodplains and unstable slopes.
• Expanding Radar & Sensor Networks: Deploy dense networks of X-band Doppler Weather Radars (DWRs) and Automatic Weather Stations (AWS) under initiatives like Mission Mausam to reduce radar blind spots.
• Advanced Nowcasting Alerts: Strengthen short-term nowcasting protocols to issue localized public alerts every 1 to 3 hours using AI-driven predictive modeling.
• Structural Bio-Engineering: Mandate proper drainage infrastructure along all-weather mountain highways, hillside reforestation, and bio-engineering to stabilize vulnerable soil slopes.
• Community-Based Early Warning Systems (EWS): Establish automated siren systems and train local village disaster response teams in high-altitude valleys for rapid evacuation during sudden water surges.

Conclusion:

While cloudbursts are extreme natural phenomena intensified by climate change, their devastating consequences are frequently amplified by human negligence and unplanned development. Improving radar density, AI-driven nowcasting, and high-altitude weather monitoring under Mission Mausam is essential to enhance early warnings. Ultimately, effective mitigation requires combining accurate forecasting with strict enforcement of eco-sensitive zoning and sustainable mountain infrastructure.

Context: Public policy experts proposed Artificial Intelligence as India’s next Digital Public Infrastructure (DPI), advocating lower inference costs and open-source models inspired by Aadhaar, UPI, and DEPA.

About Commoditising AI as India’s Next DPI:

What it is?

• Commoditising AI as India’s next Digital Public Infrastructure (DPI) means treating AI intelligence and inference as an affordable, accessible, and interoperable public utility rather than a costly commercial product.

Why AI Should Become India’s Next Digital Public Infrastructure (DPI)?

• Natural Progression of India’s DPI Stack: India has built a integrated public digital ecosystem by combining digital identity (Aadhaar), zero-cost instant payments (UPI), and consent-based data sharing (DEPA). Making AI intelligence the fourth foundational layer is a logical next step.
• Escaping the Extractive Digital Quarry Model: India currently exports raw data, research talent, and dataset-labeling labor to Silicon Valley, only to import finished AI intelligence at high, dollar-priced API token rates. Treating AI as a public utility helps address this imbalance.
• Demo-Democratic Access to Cognition: High token costs make advanced AI tools a privilege for well-funded entities. Commoditizing compute and inference makes AI accessible for rural healthcare, local-language education, and small businesses.
• Shifting Economic Value to Application Builders: Lowering the cost of foundational models shifts economic value toward application developers, where India’s software engineering ecosystem is strongest.
• Preventing Sovereign Dependency on Western Tech Giants: Building businesses on closed-source, foreign proprietary APIs leaves Indian startups vulnerable to price changes or policy shifts determined abroad.

Initiatives Taken So Far:

• The IndiaAI Mission: Launched with an outlay of ₹10,372 crore, this public-private framework expands affordable compute access for domestic researchers and startups.
• Public GPU Compute Aggregation: Onboarded over 38,000 GPUs (with plans to scale to 1,00,000), offering GPU compute to verified startups at roughly ₹65 per GPU hour.
• Open-Source Indic Initiatives (BHASHINI): Built public datasets and translation models across official languages to support multilingual AI tools.

Challenges in India’s AI Ecosystem:

• High Dependence on Foreign Compute and Hardware: India lacks domestic semiconductor manufacturing for high-end AI chips, leaving it reliant on imported GPUs.
• Lack of Dedicated Energy Planning for Data Centers: Power grid planning does not yet classify AI workloads as a distinct category, leading to energy constraints for compute infrastructure.
• Dominance of Closed-Source Western Models: Most advanced foundation models are proprietary systems owned by foreign tech companies, creating long-term strategic vulnerabilities.
• Scarcity of Crated, Representative Local Language Datasets: AI training data remains heavily skewed toward Western contexts, with limited structured digital data in regional Indian languages.
• High Dollar-Denominated API Costs for Startups: Indian developers face high per-token costs when renting foreign proprietary models, limiting experimentation at scale.

Roadmap for India’s AI Token Economy:

• Integrating AI Compute into National Power Planning: Fold data center compute needs into the National Electricity Plan, fast-tracking renewable energy and transmission lines to reduce electron costs.
• Mandating Open-Weight Models for Publicly Subsidized Projects: Require any AI model trained using state-subsidized compute or anonymized public datasets to be released under an open-weights license.
• Building a Unified Intelligence Interface (UII): Create an open, interoperable API gateway—functioning like a UPI for AI—that allows any application to connect to open-source or proprietary models.
• Implementing a National Freemium Token Allocation: Provide verified startups, students, and educators with monthly state-subsidized API token allowances linked to digital identity.
• Repurposing Portions of Existing Subsidies for AI Skilling: Reallocate a small fraction of existing agricultural or industrial subsidies into token entitlements for schools and R&D institutions.

Conclusion:

Making AI an affordable, open-source public utility can help India transition from a provider of raw data into a hub for digital application innovation. By combining compute access, open-weight Indic models, and a Unified Intelligence Interface, India can broaden access to advanced technology. Ultimately, commoditizing AI ensures that technological progress translates into inclusive economic growth for all.

Tags: Commoditising AI as India’s Next Digital Public Infrastructure (DPI), Artificial Intelligence, AI, Digital Public Infrastructure, DPI, IndiaAI Mission, Aadhaar, UPI, DEPA, BHASHINI, Open-Source AI, Unified Intelligence Interface, UII, AI Token Economy, AI Governance, AI Compute.

Context: The Competere Foundation, in collaboration with the Centre for Trade and Investment Law (CTIL), IIFT, released the report India’s Next Growth Frontier: Reducing Anti-Competitive Market Distortions to Build on India’s 2010–2023 Reform Progress.

About India’s Next Growth Frontier Report:

What It Is?

• India’s Next Growth Frontier is a report published by the Competere Foundation that assesses India’s reform performance through the Market Distortions Performance Index (MDPI).
• It evaluates how structural reforms have reduced market distortions and improved India’s competitiveness in the global economy.

Aim: To assess India’s progress in reducing anti-competitive market distortions and recommend reforms that strengthen productivity, investment, and global competitiveness.

Key Findings:

• Improved Global Ranking: India rose from 82nd to 57th in the Market Distortions Performance Index between 2010 and 2023.
• Three-Pillar Assessment: The index evaluates property rights protection, domestic competition, and international competition.
• Major Reform Drivers: Reforms such as GST, Insolvency and Bankruptcy Code (IBC), trade facilitation, and regulatory improvements significantly enhanced competitiveness.
• Need for Competition Reforms: Calls for an evidence-based, consumer welfare-oriented competition policy, especially for digital markets and emerging sectors.
• Global Trade Integration: Recommends reviewing sector-specific investment restrictions and strengthening cooperation with like-minded countries to address international regulatory barriers.

Significance

• Measures Reform Outcomes: Provides an independent benchmark to evaluate India’s structural reform progress and competitiveness.
• Supports Investment Climate: Highlights reforms that improve ease of doing business, attract investment, and enhance productivity.
• Guides Future Policy: Identifies priority areas for strengthening competition, trade integration, and long-term economic growth.

Relevance in UPSC Exam Syllabus:

• GS Paper III – Indian Economy

• • Structural reforms, competition policy, ease of doing business, investment climate, trade competitiveness, and economic growth.

• GS Paper II – Governance

• • Regulatory reforms, institutional framework for competition, and policy measures to improve economic governance.

Context: The Department of Financial Services (DFS), Ministry of Finance, launched India’s first sovereign-backed Protection & Indemnity (P&I) insurance product under the Bharat Maritime Insurance Pool (BMIP).

About The Protection & Indemnity (P&I) Insurance Product:

What It Is?

• It is India’s first sovereign-backed Protection & Indemnity (P&I) marine insurance product designed to offer comprehensive financial protection to shipowners and charterers against third-party liabilities incurred during maritime operations.

Designed & Managed Under

• Architect / Underwriter: Designed by The New India Assurance Company Limited.
• Parent Scheme: Operates under the Bharat Maritime Insurance Pool (BMIP), an initiative operationalized by the Department of Financial Services (DFS) with a sovereign guarantee backing.

Aim: To establish self-reliant domestic marine risk management capabilities, provide continuous third-party liability coverage, and protect Indian shipping interests against geopolitical disruptions and exorbitant foreign insurance premiums.

Key Features:

• High Indemnity Limit: Provides a combined indemnity cover of up to USD 1.5 billion, backed by a sovereign guarantee, ensuring financial protection against large-scale maritime liability claims.
• Comprehensive Third-Party Coverage: Covers crew and cargo liabilities, marine pollution, oil spill compensation, and wreck removal costs, reducing financial risks arising from maritime accidents.
• 24×7 Global Port Network: Supported by a round-the-clock international network of port correspondents, enabling rapid legal assistance, claims settlement, and emergency response worldwide.
• Expansion Beyond War Risk: Extends BMIP’s coverage beyond Cargo and Hull War Risks to include comprehensive Protection & Indemnity (P&I) liabilities for Indian shipping.

Significance:

• Reduces dependence on foreign insurers and international P&I Clubs, retaining insurance premiums and maritime risk management within India’s domestic financial ecosystem.

• Domestic war-risk premiums have fallen 35–40% since BMIP’s launch, reducing logistics costs while improving India’s capacity to manage geopolitical disruptions independently.

Context: Hindustan Shipyard Limited (HSL) formally delivered ‘Nipun’—the second indigenous Diving Support Vessel (DSV) built for the Indian Navy—at Visakhapatnam.

About Nipun: India’s Indigenous Diving Support Vessel (DSV):

What It Is?

• A specialized, first-of-its-kind long-endurance naval vessel designed for deep-sea diving, underwater salvage, submarine rescue, and search-and-rescue (SAR) missions.
• It is Second vessel of the Nistar-class DSVs (following its sister ship, INS Nistar).

Built By: Designed and constructed by Hindustan Shipyard Limited (HSL) in Visakhapatnam.

Aim: To strengthen the Indian Navy’s underwater strategic capabilities by acting as a specialized platform for deep-sea saturation diving, submarine rescue operations, and oceanographic salvage—reducing dependence on foreign rescue vessels.

Key Features:

• Substantial Scale and Indigenization: Measures 4 meters in length with a displacement of over 8,560 tonnes, featuring an indigenous content exceeding 75%–80% (utilizing steel produced entirely by SAIL).
• Deep-Sea Saturation Diving Capability: Equipped with state-of-the-art diving gear, a side diving stage, moonpool, and saturation diving systems that allow naval divers to operate safely at extreme underwater depths for extended periods.
• Mother Ship for Deep Submergence Rescue Vehicles (DSRV): Serves as a primary host platform to launch, track, and recover the Navy’s Deep Submergence Rescue Vehicles (DSRVs) to evacuate personnel during submarine emergencies.
• Remotely Operated Vehicles (ROVs): Fitted with advanced subsea ROVs to monitor divers in real time, conduct underwater structural inspections, and assist in deep-ocean salvage operations.
• High Operational Endurance: Features an operational endurance of 60 days without replenishment and includes a flight deck capable of accommodating heavy helicopters for Search and Rescue (SAR) or medical evacuation missions.

Significance:

• Enables the Indian Navy to conduct rapid, independent submarine rescue operations across the Indo-Pacific without relying on foreign assistance.
• Demonstrates the growing strength of India’s defence shipbuilding sector with nearly 80% indigenous content under Aatmanirbhar Bharat.

Context: Parliament passed the Prevention of Insults to National Honour (Amendment) Bill, 2026, which amends Section 3 of the 1971 parent Act.

• The legislation officially extends the same penal protections to the National Song (Vande Mataram) that are currently afforded to the National Anthem (Jana Gana Mana).

About The Prevention of Insults to National Honour Act, 1971:

What It Is?

• The Prevention of Insults to National Honour Act, 1971 (Act No. 69 of 1971) is a central statute enacted on December 23, 1971. It prohibits and penalizes intentional disrespect, desecration, or obstruction toward key national symbols across India.

Key Features of the 1971 Act:

• Section 2 (Protection to Flag & Constitution): Criminalizes public acts of burning, defacing, defiling, mutilating, trampling, or showing disrespect toward the Indian National Flag or the Constitution of India. Punishment extends to 3 years imprisonment, a fine, or both.
• Exemption for Lawful Criticism: Explicitly clarifies under Section 2 that bona fide criticism or comments on the Constitution or Flag made to seek lawful amendments do not constitute an offense.
• Section 3 (Protection to National Anthem): Makes it a punishable offense to intentionally prevent the singing of the National Anthem (Jana Gana Mana) or cause disturbance to any assembly engaged in its singing.
• Section 3A (Enhanced Penalties for Repeat Offenders): Introduced via an amendment in 2003, this section mandates an enhanced minimum sentence of 1 year of imprisonment for second or subsequent convictions under Section 2 or Section 3.
• Universal Jurisdiction: Extends to the whole of India, establishing standard legal compliance for public and institutional protocols involving national symbols.

About the Prevention of Insults to National Honour (Amendment) Bill, 2026:

What It Is?

• The 2026 Amendment Bill updates Section 3 of the 1971 parent Act to explicitly include the National Song (Vande Mataram) alongside the National Anthem (Jana Gana Mana) under the statutory umbrella of national honour protection laws.

Key Features of the 2026 Bill:

• Substitution of Section 3: Replaces the existing text of Section 3 to accord equal legal standing and criminal protection to both Jana Gana Mana and Vande Mataram.
• Criminalization of Disruption: It becomes a criminal offense to intentionally:
  1. Prevent the singing of the National Song (Vande Mataram).
  2. Cause disturbance to any assembly engaged in singing the National Song.
• Preserved Quantum of Punishment: First-time convictions carry a penalty of imprisonment for up to 3 years, a fine, or both.
• Applicability of Section 3A to Vande Mataram: Repeat offenders who intentionally obstruct or disrupt the singing of Vande Mataram will now face the mandatory minimum 1-year prison sentence.

Comparative Analysis: 1971 Act vs. 2026 Amendment:

Context: The Department of Telecommunications (DoT) and the Government of Madhya Pradesh signed a MoU to establish India’s first integrated Telecom Manufacturing Zone (TMZ) at Gwalior, Madhya Pradesh.

About India’s First Telecom Manufacturing Zone (TMZ):

What It Is?

• The Telecom Manufacturing Zone (TMZ) is an integrated, 350-acre plug-and-play industrial cluster designed to create a specialized ecosystem for telecommunications, electronics, research and development (R&D), testing, and intellectual property creation under one roof.

Location: Gwalior, Madhya Pradesh (Phase-I covers 170 acres spread across the SADA region and Gwalior IT Park).

Governing Body: A dedicated Special Purpose Vehicle (SPV) with a 51% equity stake held by the Government of Madhya Pradesh and 49% by the Department of Telecommunications (DoT).

Aim: To reduce India’s reliance on imported telecom hardware, accelerate indigenous R&D for 5G/6G technologies, boost domestic manufacturing, and establish India as a global exporter of telecom equipment.

Key Features:

1. Integrated End-to-End Ecosystem: Houses manufacturing units, high-end 4G/5G common testing facilities, product certification labs, and dedicated R&D design centers within a unified industrial zone.
2. Full-Spectrum Value Chain: Encompasses the entire telecom production spectrum—including mobile handsets, optical fiber cables, antennas, telecom routers, satellite communication gear, and semiconductor chips.
3. Substantial Capital Commitments: Projected to attract ₹12,000 crore to ₹15,000 crore in long-term investments (with over ₹3,500 crore in initial commitments pledged by anchors like Dixon Technologies, HFCL, and VVDN).
4. Employment Generation: Expected to generate 14,000 direct skilled jobs (and over 3,500 during Phase-I), supported by state employment assistance programs.

Significance:

• Promotes domestic manufacturing of advanced telecom equipment, transforming India from a telecom consumer into an export-oriented production hub.
• Local manufacturing of critical telecom hardware reduces import dependence, strengthens supply chains, and safeguards critical network infrastructure.

Context: The nation observed the 87th martyrdom day of legendary revolutionary freedom fighter Shaheed Udham Singh.

About Shaheed Udham Singh:

Who He Was?

• Shaheed Udham Singh (born Sher Singh on December 26, 1899) was an iconic Indian political activist and revolutionary associated with the Ghadar Party and the Hindustan Socialist Republican Association (HSRA).
• He is revered for avenging the 1919 Jallianwala Bagh massacre by assassinating Michael O’Dwyer in London.

Early Days:

• Orphaned at a Young Age: Born in Sunam, Punjab, he lost his mother at age three and his father a few years later. He was raised alongside his elder brother at the Central Khalsa Orphanage in Amritsar, where he was renamed Udham Singh.
• Witness to Jallianwala Bagh (1919): On April 13, 1919, while serving water to peaceful protesters gathered at Jallianwala Bagh against the Rowlatt Act, he witnessed the horrific massacre ordered by Brigadier-General Reginald Dyer and approved by Punjab’s Lieutenant Governor, Sir Michael O’Dwyer.
• Global Travel & Aliases: To evade British intelligence, he adopted several aliases (including Frank Brazil and Ude Singh) while traveling across Africa, Europe, Mexico, and the United States.

Contributions to the Freedom Movement:

• Ghadar Party Mobilization: Joined the international Ghadar Movement in 1924 while living in the United States, organizing Indian workers and spreading anti-colonial literature.
• Smuggling Arms to India: Returned to India in 1927 at the call of Bhagat Singh (whom he considered his guru) to smuggle weapons and seditious literature. He was arrested by British police and served five years in prison.
• Assassination of Michael O’Dwyer (1940): After tracking O’Dwyer for years, Udham Singh shot and killed him at London’s Caxton Hall on March 13, 1940, during a joint meeting of the East India Association and the Royal Central Asian Society.

Last Days and Execution:

• Symbolic Identity (‘Ram Mohammad Singh Azad’): While in British custody, he signed his name as Ram Mohammad Singh Azad—a unifying moniker combining symbols of Hinduism, Islam, and Sikhism, with Azad representing a free India.
• Trial & Hunger Strike: Held at Brixton Prison, he underwent a 42-day hunger strike during his trial at the Central Criminal Court, proudly declaring he was unconcerned by the prospect of death in the cause of national freedom.
• Execution & Legacy: He was hanged at London’s Pentonville Prison on July 31, 1940. In 1974, through the efforts of Punjab Chief Minister Giani Zail Singh, his mortal remains were brought back to India and cremated with full national honors at Sunam.

Context: Japan’s National Diet passed the Secondary Capital Bill, empowering the Prime Minister to designate a backup city to host core government functions if Tokyo is hit by a major earthquake or natural disaster.

• Osaka is the front-runner for Japan’s proposed new capital due to strong political backing and advanced infrastructure.

About Japan:

What It Is?

• Japan is an island country in East Asia consisting of an archipelago of over 6,800 islands stretching along the western edge of the North Pacific Ocean. It is a major global economic power, technological leader, and constitutional monarchy governed by a national Diet.

Capital: Tokyo (located on the Kanto Plain of east-central Honshu).

Geographic Location:

• Region: East Asia (bounded by the Sea of Japan, Pacific Ocean, Sea of Okhotsk, and East China Sea).
• Main Islands: Hokkaido, Honshu (largest and most populous), Shikoku, and Kyushu.

Key Geological Features:

• Convergence of Four Tectonic Plates: Positioned directly over the volatile intersection of the Pacific, Philippine Sea, Eurasian, and North American tectonic plates, making it one of the most seismically active zones on Earth.
• Pacific Ring of Fire Volcanism: Mountainous terrain covering over four-fifths of the country, featuring over 110 active volcanoes and abundant volcanic hot springs (onsen).
• The Vulnerable Nankai Trough: Lies adjacent to a 900-km-long submarine trench off the Pacific coast, where subduction creates immense tectonic stress known for generating recurring megathrust earthquakes and severe tsunamis.
• Rugged Dissected Lowlands: Characterized by steep river-valley networks and narrow, fertile coastal plains formed by alluvial deposits, where the vast majority of Japan’s urban population and industry are concentrated.

Significance:

• Reduces Tokyo’s over-centralization by enabling uninterrupted governance, administration, and emergency response during major disasters.

• Encourages shifting investment and infrastructure to regional hubs like Osaka, strengthening economic resilience and balanced regional development.