UPSC CURRENT AFFAIRS – 13 JULY 2026

Context: Prime Minister of India visit to New Zealand, the first by an Indian Prime Minister in 40 years, elevated bilateral ties to a Strategic Partnership.

• Both countries also adopted the India–New Zealand Strategic Partnership: Roadmap to 2030 to guide cooperation across climate and people-to-people relations.

About India–New Zealand Bilateral Relations:

What It Is?

• India–New Zealand relations constitute a growing multidimensional partnership based on shared democratic values, Commonwealth ties, strong people-to-people connections, economic complementarities and common interests in a free, open and rules-based Indo-Pacific.

Key Outcomes of the Recent India–New Zealand Summit:

• Strategic Partnership & Roadmap to 2030: India and New Zealand elevated bilateral ties to a Strategic Partnership and adopted the Roadmap to 2030 to guide cooperation across strategic sectors.
• Political and Diplomatic Engagement: Both countries established a regular Foreign Ministers’ Dialogue, annual senior officials’ meetings and stronger parliamentary exchanges to institutionalise bilateral engagement.
• Defence and Maritime Security: The summit strengthened defence cooperation through the Maritime Cooperation Arrangement, Mutual Logistics Support Arrangement, hydrography cooperation, bilateral naval exercises and an annual Maritime Security Dialogue.
• Counter-Terrorism and Law Enforcement: Both sides established a Joint Working Group on Counter-Terrorism and agreed to cooperate against narcotics trafficking, cybercrime, financial crime, human trafficking and organised crime.
• FTA and Trade Target: The two countries welcomed the conclusion of a comprehensive India–New Zealand Free Trade Agreement and set a target of doubling bilateral trade to NZ$7 billion (about ₹35,000 crore) by 2030.
• Agriculture, Horticulture and Dairying: An Agricultural Productivity Partnership was launched for kiwifruit, apples and honey, alongside cooperation in animal husbandry, dairying, food safety and value chains.
• Tourism, Connectivity and Maritime Mobility: A Tourism Arrangement was signed, direct non-stop flights were encouraged, and cooperation was advanced for recognition of seafarer competency certificates.
• Sports, Culture and People-to-People Ties: A Joint Action Plan on Sport was adopted, while cultural cooperation and maritime heritage ties were strengthened through institutional arrangements.
• Education, Technology, Climate and Disaster Resilience: Both sides expanded cooperation in education, student mobility, research, emerging technologies, clean energy and disaster management, with New Zealand joining the Global Biofuels Alliance.
• Indo-Pacific and Multilateral Cooperation: Both reaffirmed support for a free and open Indo-Pacific, UNCLOS and ASEAN centrality, while New Zealand backed India’s permanent UNSC membership and entry into the Nuclear Suppliers Group (NSG).

Opportunities for India in Bilateral Relations:

• Expanding Indo-Pacific Strategic Reach: Closer maritime and defence ties with New Zealand expand India’s strategic footprint in the South Pacific, complementing its Indo-Pacific Oceans Initiative and engagement with Pacific Island countries.
• Diversifying Trade and Export Markets: The FTA can open greater opportunities for Indian pharmaceuticals, textiles, engineering goods, digital services and skilled professionals, reducing excessive dependence on traditional export markets.
• Modernising Indian Agriculture: New Zealand’s expertise in horticulture, food safety, post-harvest technology and value-chain management can help raise Indian farm productivity, particularly in apples, kiwifruit and honey.
• Strengthening Education and Skilled Mobility: Deeper institutional partnerships can expand opportunities for Indian students, researchers and professionals, while joint research can advance innovation in agriculture, climate and emerging technologies.
• Gateway to Pacific Island Countries: New Zealand’s deep historical and strategic connections with Pacific Island nations can complement India’s Act East Policy and Forum for India-Pacific Islands Cooperation (FIPIC), expanding India’s diplomatic and developmental presence in Oceania.

Challenges Associated with India–New Zealand Relations:

• Limited Bilateral Trade Base: Despite growing engagement, bilateral commerce remains modest compared with India’s economic relations with Australia, Japan or major ASEAN economies, limiting immediate commercial gains.
• Agricultural and Dairy Sensitivities: New Zealand’s globally competitive dairy and agricultural exports may create concerns for India’s millions of small and marginal farmers, requiring calibrated market access and strong safeguards.
• Geographical Distance and Connectivity Gaps: The absence of extensive direct air and maritime connectivity raises transport costs and restricts tourism, business travel and efficient movement of goods.
• Differences in Strategic Priorities: While both support a rules-based Indo-Pacific, New Zealand has traditionally maintained a more cautious strategic posture than India on major geopolitical and military-security issues.
• Implementation and Institutional Capacity: The expanding number of agreements, dialogues and cooperation mechanisms may produce limited results unless backed by clear timelines, dedicated financing, institutional ownership and regular monitoring.

Way Ahead:

• Ensure Time-Bound Roadmap Implementation: Both countries should establish measurable milestones and annual progress reviews under the Roadmap to 2030 to convert diplomatic commitments into concrete outcomes.
• Protect Sensitive Sectors While Implementing the FTA: India should pursue calibrated liberalisation, safeguard vulnerable agricultural sectors and simultaneously maximize export opportunities in pharmaceuticals, textiles, engineering and services.
• Operationalise Maritime Cooperation: Regular naval exercises, maritime information sharing, logistics cooperation and coordinated capacity-building should translate the new maritime agreements into tangible Indo-Pacific security outcomes.
• Build Innovation and Knowledge Corridors: Joint research funds, university partnerships and innovation hubs should focus on agritech, biotechnology, climate-resilient agriculture, clean energy, artificial intelligence and disaster resilience.

Conclusion:

The elevation of India–New Zealand ties to a Strategic Partnership marks a significant transformation from limited engagement to broad-based strategic cooperation. The Roadmap to 2030, FTA and new defence-maritime architecture provide a strong foundation for deeper relations. Effective implementation can transform the partnership into an important pillar of India’s wider Indo-Pacific and Pacific outreach.

Context: China temporarily banned helium exports amid West Asian tensions and attacks on Qatar’s helium facilities, aiming to secure domestic supplies as shipments through the Strait of Hormuz face disruption risks.

About Helium as a Strategic Resource:

What it is?

• Helium has transitioned from a mundane commercial gas into a highly sought-after strategic resource, serving as an irreplaceable foundation for frontier technologies, national security networks, and scientific research. It is non-renewable, finite, and can neither be artificially synthesized nor replaced in ultra-low temperature environments.

Physical and Chemical Properties of Helium:

• Ultra-Low Boiling Point: Helium has the lowest boiling point of any element (-269^O C or 4.2 K at 1 atm), making it the only substance that remains liquid near absolute zero.
• Extreme Chemical Inertness: As a noble gas, it does not participate in chemical reactions, providing a perfectly stable environment for volatile industrial manufacturing.
• High Thermal Conductivity: It absorbs and dissipates intense heat faster than almost any other gas, making it critical for rapid precision cooling.
• Tiny Atomic Radius: Possessing miniature, light atoms, helium can diffuse easily through microscopic gaps, allowing engineers to track minute structural defects.

How Helium is Formed?

• Helium is not manufactured; it is a finite resource generated deep within the Earth’s crust over millions of years through the natural radioactive alpha decay of heavy elements like uranium and thorium.
• The emitted alpha particles capture local electrons to transform into stable helium atoms.
• Over epochs, this gas migrates upward and becomes trapped inside underground pockets alongside natural gas deposits.
• It is commercially viable to extract only when the natural gas reservoir contains a minimum helium concentration of 3% by volume, using cryogenic fractional distillation to isolate the helium based on its distinct boiling point.

Criticality of Helium as a Strategic Resource

• The Semiconductor Lifeline: Frontier microchip fabrication processes—including EUV lithography, plasma etching, and atomic layer deposition—rely entirely on liquid helium for heat management and wafer cooling.
• Quantum Computing Architectures: Superconducting quantum processors operate effectively only when submerged in liquid helium environments near absolute zero to maintain qubit stability.
• Aerospace Fuel Tank Pressurization: Space organizations like ISRO and NASA use helium as a high-pressure displacing agent to force liquid oxygen and hydrogen propellants into rocket engines.
• Advanced Medical Imaging Diagnostics: Hospital MRI machines rely on a continuous, closed-loop system of liquid helium to chill superconducting magnets, maintaining the electrical field required for internal diagnostics.

Key Challenges and Vulnerabilities Associated with Helium:

• Severe Technical Transport Bottlenecks: Helium can only be stored and moved in specialized, heavy vacuum-jacketed stainless steel cryogenic vessels (ISO containers), which are manufactured by only a few global firms.
• High Risk of Spontaneous Evaporation: Due to its ultra-low boiling point, liquid helium has a strict “holding time,” after which the gas begins boiling off into the atmosphere and escapes Earth’s gravity entirely.
• Extreme Geopolitical Supply Concentration: Global output is heavily consolidated among just a few countries, with the United States (43%) and Qatar (33%) controlling the vast majority of supply.
• High Vulnerability to Geopolitical Chokepoints: Ongoing military conflicts in West Asia have left one-third of the world’s helium supply trapped behind the volatile Strait of Hormuz, making the global market highly vulnerable to sudden transport cutoffs.

Major Industrial Applications of Helium:

• Silicon Wafer Manufacturing: Provides the clean, stable, and inert environment required to draw high-purity optical fiber preforms and cool silicon during fabrication.
• Deep Space Rocketry: Purges fuel lines and seals critical valves in liquid propellant rocket stages during countdowns and active flight profiles.
• Aerostat and Tourism Lifting Systems: Serves as a safe, non-flammable alternative to hydrogen for filling weather tracking balloons and commercial airships.
• Industrial Precision Leak Detection: Injected into high-pressure pipelines, HVAC networks, and vacuum systems to locate microscopic cracks that larger molecules cannot pass through.
• Advanced Arc Welding Shielding: Used as a protective shield gas in gas tungsten arc welding (GTAW) to prevent atmospheric contamination when welding specialized metals like aluminum and titanium.

Conclusion:

In an era where artificial intelligence demand drives a surge in memory chips, a localized supply disruption can trigger a severe bottleneck for global technology firms. Ultimately, as conflicts in West Asia threaten to disrupt Qatari shipments and U.S. reserves transition to private hands, nations like India must invest in indigenous recovery networks from domestic natural gas fields to insulate their high-tech sectors from global supply shocks.

Anecdote: A group of Indian tourists left their homes in Tamil Nadu, Kerala and Andhra Pradesh for what was meant to be a joyful holiday in Vietnam. Until Friday, their phones carried cheerful updates, photographs and promises of returning home with memories and souvenirs. But when their boat capsized off Phu Quoc Island, those same phones brought news that no family was prepared to receive. Among the victims were couples, businessmen and friends whose loved ones had been eagerly awaiting their return. One traveller had told his son that he would soon be out of network as they were heading towards an island—unaware that it would be their last conversation. Homes that had waited for smiling photographs were suddenly preparing to receive coffins. The tragedy reminds us that life’s certainty often rests on the fragile edge of an uncertain moment. It also underlines the need for stronger tourist safety standards, responsible travel operators and effective emergency response mechanisms. Above all, it teaches that behind every disaster statistic lies a human story, a grieving family and a future abruptly interrupted.

Relevance in UPSC Exam Syllabus

• Essay:
  • Life and death, uncertainty of life, human vulnerability, fate, tourism safety, disaster preparedness and the human cost behind statistics.
• GS Paper II – Governance and International Relations:
  • Consular assistance, protection and repatriation of Indian citizens abroad, and India’s diplomatic responsibilities during overseas emergencies.
• GS Paper IV – Ethics:
  • Empathy, compassion, human dignity, administrative responsibility and ethical obligations towards victims and their families.

Context: the U.S. Federal Communications Commission (FCC) officially granted a limited two-year operating license to space-tech startup Reflect Orbital for its upcoming Eärendil-1 mission.

About The Eärendil-1 Mission:

What It Is?

• Eärendil-1—named after the legendary mariner who carried a shining silmaril gem across the skies in J.R.R. Tolkien’s fantasy epic The Silmarillion—is a pioneering proof-of-concept technology demonstration satellite. It is engineered to test the commercial and mechanical viability of orbital sunlight reflection, effectively acting as an adjustable space mirror.

Organization: The satellite is developed and operated by Reflect Orbital, a California-based commercial aerospace startup.

Objective: Eärendil-1 aims to redirect sunlight to specific locations after sunset, extending solar power generation and providing emergency illumination for disaster relief and rescue operations.

Key Orbital and Technical Features:

• Deployable Thin-Film Reflector: Uses an ultra-light, mirror-like reflector that stays folded during launch and automatically unfurls once deployed in space.
• Motorized Precision Gimbaling: The reflector can be remotely rotated to capture sunlight and precisely redirect it toward selected locations on Earth’s night side.
• Low Earth Orbit (LEO): Operates in a non-geostationary orbit at approximately 625 km altitude, enabling relatively close proximity to Earth.
• High-Inclination Path: Its 88° orbital inclination provides near-polar coverage, allowing access to solar installations across much of the globe.

Strategic Significance:

• Redirecting sunlight after sunset could extend solar power generation, reduce battery-storage needs, and improve the efficiency and revenues of solar farms.
• Scientists warn that large-scale orbital mirrors could brighten night skies, interfere with astronomical observations, and threaten naturally dark skies.

Context: China successfully achieved its first reusable rocket landing at the Wenchang Commercial Space Launch Site, with the Long March 10B booster making a precise sea-based recovery after separation.

About The Long March 10B Rocket:

What It Is?

• The Long March 10B is an advanced, next-generation medium-to-heavy lift launch vehicle featuring a reusable first-stage booster. It serves as a core pillar of China’s modern space infrastructure, engineered to significantly lower the cost of accessing space through vertical descent and specialized maritime retrieval.

Implementing Organization: The rocket was researched, developed, and launched under the state-owned China Aerospace Science and Technology Corporation (CASC).

Aim: The objective of the Long March 10B program is to eliminate the economic barriers of traditional, single-use rocket launches.

Key Technical Features:

• Robust LEO Capacity: Designed to carry payloads of up to 16 metric tonnes into Low Earth Orbit (LEO).
• Aerodynamic Re-entry Control: After separation, nitrogen thrusters flip the booster, while grid fins guide and stabilize it during atmospheric descent.
• Propulsive Braking: Real-time engine throttling generates counter-thrust, slowing the descending booster for a controlled hover above the recovery platform.
• Net-Capture Maritime System: Instead of landing legs, the booster uses specialized hooks to catch a suspended wire net mounted on an automated sea vessel.
• Automated Stabilization Clamps: After capture, safety cables and locking mechanisms secure the booster against swinging, protecting it from rough maritime conditions.

Strategic Significance:

• Long March 10B technology supports China’s heavier lunar launch systems, strengthening its goal of landing astronauts on the Moon by 2030.
• Reusable rockets can sharply lower launch costs, helping China deploy large satellite constellations and compete with Western broadband networks

Context: Union Minister for Food Processing Industries, presided over a special national ceremony in New Delhi to celebrate the Pradhan Mantri Formalisation of Micro Food Processing Enterprises (PMFME) Scheme crossing a historic milestone of two lakh credit-linked beneficiaries.

About The Pradhan Mantri Formalisation of Micro Food Processing Enterprises (PMFME) Scheme:

What It Is?

• The PMFME Scheme is a comprehensive, all-inclusive, centrally sponsored national program designed to formalize, upgrade, and scale up the heavily unorganized micro food processing sector in India.
• It acts as a primary operational buffer, moving small-scale local food operators into the formal banking and regulatory economy by providing them with credit-linked capital subsidies, shared machinery platforms, and professional branding packages.

Launched In: Formally introduced on June 29, 2020, under the national Aatmanirbhar Bharat Abhiyan (Self-Reliant India Campaign).

Implementing Organization: The scheme is conceptualized, funded, and managed directly by the Union Ministry of Food Processing Industries (MoFPI).

Aim: The core objective of PMFME is to bring the estimated 25 lakh informal, unorganized micro-scale food processors into the mainstream formal economy.

Key Features:

• 35% Credit-Linked Capital Subsidy: Micro food-processing units receive a 35% subsidy, capped at ₹10 lakh, for upgrading machinery, technology, and packaging facilities.
• One District One Product (ODOP) Strategy: Each district focuses on a signature food product to achieve economies of scale in procurement, processing, branding, and marketing.
• Group Infrastructure Grants: FPOs, cooperatives, and SHG federations receive a 35% grant, up to ₹3 crore, for shared processing, storage, testing, and packaging facilities.
• Grassroots Seed Capital: Each eligible SHG member receives ₹40,000 as seed capital for working capital and purchasing small food-processing equipment.
• Branding and Marketing Support: FPOs and cooperatives receive 50% financial assistance for packaging, branding, digital presence, and access to organised retail markets.
• District Resource Persons (DRPs): DRPs assist rural entrepreneurs with applications, project reports, formal registration, documentation, and access to bank loans.
• Financial Sharing Pattern:

• General States and UTs with Legislatures: Centre and States share costs in a 60:40 ratio.
• North-Eastern and Himalayan States: Funding follows a 90:10 Centre-State ratio.
• UTs without Legislatures: The Central Government provides 100% funding.

Significance:

• PMFME helps informal food processors access bank credit, GST, FSSAI and Udyam registration, reducing dependence on informal lenders.
• With women forming a major share of beneficiaries and trainees, the scheme strengthens entrepreneurship, incomes, and economic empowerment at the grassroots.

Context: The Economist Intelligence Unit (EIU) officially released its Global Liveability Index 2026, which evaluates living conditions across 173 cities worldwide.

About Global Liveability Index 2026:

What It Is?

• The Global Liveability Index is an annual benchmark that evaluates and compares living conditions across major global cities. It assesses how effectively urban systems provide stability, healthcare, culture, environment, education, and infrastructure.

Published By: The index is published annually by the Economist Intelligence Unit (EIU), the research and analysis division of The Economist Group.

Primary Aim: The index identifies the world’s most and least liveable cities by measuring the quality, accessibility, and reliability of essential urban services and overall lifestyle conditions.

Five Core Assessment Parameters:

• Stability (25%): Evaluates crime, terrorism threats, military conflict, and civil unrest to measure the safety and security of urban residents.
• Culture & Environment (25%): Assesses climate, corruption, censorship, social restrictions, cultural opportunities, sports facilities, and access to consumer goods.
• Healthcare (20%): Measures the availability and quality of public and private healthcare, medicines, and overall public health services.
• Infrastructure (20%): Examines roads, public transport, international connectivity, housing, energy, water supply, and telecommunications.
• Education (10%): Evaluates the quality and accessibility of public and private educational institutions.

Performance of Indian Cities:

Key Reasons Behind India’s Low Rankings

• Environment and Pollution Crisis: Severe air pollution, rising temperatures, inadequate waste management, and environmental degradation weaken urban liveability.
• Overburdened Public Healthcare: Limited public hospital capacity and high out-of-pocket expenditure constrain affordable access to quality healthcare.
• Unplanned Urbanisation: Traffic congestion, inadequate public transport, housing shortages, slum expansion, water stress, and urban flooding expose infrastructure gaps.

Context: Prime Minister of India will flag off India’s first hydrogen-powered passenger train in Jind, Haryana, on July 17, 2026.

About India’s First Hydrogen Train:

What It Is?

• The train is a state-of-the-art, zero-emission Hydrogen-Electric Multiple Unit (HEMU). It was engineered by retrofitting old Diesel Electric Multiple Unit (DEMU) rakes with an advanced, clean hydrogen fuel cell and lithium battery propulsion architecture, eliminating the need for traditional overhead electrical wires or fossil fuels.

Developed By:

• The ₹136-crore pilot project was executed by Northern Railway, equipment supplied by the Hyderabad-based engineering firm Medha Servo Drives.
• The specialized onboard hydrogen fuel cells were imported from the industry-leading Canadian firm, Ballard Power Systems.

Objective: The objective is to pioneer self-sufficient, green mass transit corridors across non-electrified or short-haul railway tracks.

How It Works?

• Chemical Generation: The onboard fuel cells pull compressed hydrogen from storage tanks and mix it with oxygen drawn from the outside air. An electrochemical reaction separates the electrons, creating electricity while releasing only pure water vapor and heat as byproducts.
• Hybrid Power Splitting: The fuel cell produces a steady, non-fluctuating electrical output. When the train starts or accelerates and needs a power boost, the integrated Lithium Ferro Phosphate (LFP) battery automatically kicks in to supply extra energy alongside the fuel cell.
• Regenerative Balancing: When the train runs at low speeds or brakes to slow down for a station, the surplus electricity produced by the fuel cell is automatically diverted to recharge the LFP battery, leaving the battery roughly 80% charged by the end of the line.

Key Operational and Technical Features:

• Massive Trainset Scale: It stands as one of the world’s longest and most powerful hydrogen trainsets, consisting of eight passenger coaches and two driving power cars that deliver a combined output of 2400 kW (3200 hp).
• Corridor Performance Metrics: Programmed to operate along the 89-km Jind-Sonipat section in Haryana, carrying up to 682 passengers per trip.
  • It will complete two round trips daily at a maximum operational speed of 75 km/h while consuming about 300 kg of hydrogen.
• High-Capacity Onboard Storage: Each driving power car carries a reinforced storage rack holding 440 kg of hydrogen compressed under immense pressures of 200 to 500 bar.
• The Jind Fueling Infrastructure: To handle refueling needs, the railways built a dedicated 3,000-kg capacity hydrogen fueling station at Jind.
  • This installation features an advanced chiller plant that cools the gas down to -15 degree C, transforming it into a dense liquid state to ensure fast and safe trackside dispensing.

Context: China strongly renewed its rejection of the historic 2016 Permanent Court of Arbitration ruling on its South China Sea claims, declaring the legal decision “illegal and invalid” on its 10th anniversary.

About South China Sea:

What It Is?

• The South China Sea is a critical marginal sea forming part of the western Pacific Ocean. It is one of the most economically and strategically vital body of waters in the world, functioning as a primary global maritime highway and the focus of complex, overlapping territorial disputes.

Location: Positioned in maritime Southeast Asia, lying south of mainland China, east of Vietnam and the Indochinese Peninsula, west of the Philippines, and north of the islands of Borneo and Sumatra.

Connecting Choke Points: It is linked to the East China Sea via the Taiwan Strait, the Philippine Sea via the Luzon Strait, and the Indian Ocean/Andaman Sea via the highly strategic Strait of Malacca.

Nations Bordering the Sea: People’s Republic of China (and Taiwan), The Philippines, Vietnam, Malaysia, Brunei, and Indonesia.

Key Features:

• The Contested Nine-Dash Line: A sweeping, historically derived boundary line used by China to assert sovereign claim over roughly 90% of the entire South China Sea.
• Major Contested Island Networks:

• • The Spratly Islands: A vast collection of more than 100 small islands, reefs, and atolls in the southern sector, claimed in whole or part by China, Vietnam, the Philippines, Malaysia, and Taiwan.
  • The Paracel Islands: Located in the northwestern corner, controlled entirely by China since 1974 but actively claimed by Vietnam and Taiwan.
  • Scarborough Shoal: A highly strategic, triangular chain of reefs and rocks rich in marine life, located close to the Philippine main island of Luzon.

• Massive Industrial Energy Reserves: Holds vast untapped natural resources. U.S. Energy Information Administration (EIA) estimates place the sea’s seabed reserves at roughly 11 billion barrels of oil and 190 trillion cubic feet of natural gas.
• Global Fishing Breadbasket: One of the world’s most productive marine ecosystems, accounting for more than 10% of global wild-capture fisheries, which supports the food security and coastal livelihoods of millions of people across Southeast Asia.

Significance:

• The South China Sea carries over one-third of global maritime trade; conflict or blockades could severely disrupt energy supplies and global manufacturing chains.
• China’s transformation of reefs into military bases with runways, radars, and missile systems increases naval tensions and risks dangerous confrontations.