Current Affairs 16 July 2026

MeitY, CERT-In, CSIRT-Fin, and global cybersecurity firm SISA have jointly released the second edition of the Digital Threat Report 2025–26 for India’s Banking, Financial Services and Insurance (BFSI) and digital payments ecosystem. Built on digital forensics and incident response (DFIR) research and real-world breach intelligence, the report is an executive-level threat assessment aimed at financial institutions and regulators.

• Established as India’s national nodal cybersecurity agency under Section 70B of the IT (Amendment) Act, 2008; functions under MeitY.
• Core mandate: collect and analyse cyber incident data; issue early-warning alerts and advisories; coordinate incident response; publish vulnerability notes, guidelines, and best practices for the entire economy.
• Currently headed by Dr. Sanjay Bahl, Director General.

• India’s sectoral CSIRT specifically for the financial ecosystem — banking, securities markets, insurance, and pension funds.
• Provides incident prevention and response, security quality management, sector-specific threat advisories, and ongoing monitoring of the financial sector’s overall cyber resilience posture.
• The sector-specific mandate reflects the reality that a breach at one financial institution can cascade across interconnected settlement systems and counterparties.

• India-origin global cybersecurity company operating at the convergence of AI, digital payments, and cyber defence; active in 40+ countries.
• Its contribution to the report draws on empirical breach-investigation data rather than theoretical modelling — a distinction the report explicitly emphasises as its methodological foundation.

The report’s most consequential structural finding is about pace, not just threat types. Six of the seven forward-looking predictions in the first edition have already reached full operational scale — many within months of being flagged. The time between a threat’s identification and its weaponised deployment at scale has collapsed from years to weeks or months. This means defensive frameworks calibrated to last year’s environment are structurally behind before they are fully implemented.

The report introduces AI Asymmetry as its defining risk concept: the growing gap where AI tools enable offensive actors to operate at machine speed and minimal cost, while defensive institutions and regulatory bodies remain bound by human-paced procedural and audit cycles. Tasks that previously demanded specialist teams and weeks of preparation — crafting targeted phishing, enumerating cloud misconfigurations, generating synthetic credentials — are now executable by low-resource actors using commercially available AI. The asymmetry is as much structural as technical: regulations, audit cycles, and procurement timelines cannot currently adapt at the cadence AI-powered attacks demand.

Attack vectors once classified as “emerging” — social engineering, credential theft, supply-chain compromise, cloud exploitation — are now the standard playbook. More critically, the most damaging attacks no longer present as detectable intrusions; they surface as legitimate sessions, approved transactions, or routine user behaviour, remaining indistinguishable from genuine activity until significant damage has propagated.

• A new analytical tool introduced in this edition; reconstructs end-to-end how a modern breach actually unfolds.
• Central insight: breaches result from a chain of compounding weaknesses across four organisational layers, not a single point of failure.
• Shifts the diagnostic lens from cataloguing incidents to identifying systemic patterns — enabling security leaders to direct investment toward highest-leverage gaps rather than simply reviewing what went wrong.

• Phase 1: Consolidate foundational controls currently applied inconsistently across institutions.
• Phase 2: Shift from point-in-time security audits to continuous risk assessment as institutional practice; enhance real-time threat intelligence sharing across institutions, regulators, and agencies.
• Phase 3: Build resilient security architectures capable of absorbing and recovering from incidents that do breach the perimeter.
• Cross-cutting: strengthen DFIR capabilities; improve cloud security and supply-chain resilience; deploy AI-enabled defensive mechanisms to close the asymmetry gap.

Financial systems are trust infrastructure. A falsified payment instruction or a compromised settlement system does not stay contained within a single institution — it propagates across counterparties, customers, and market confidence. This interdependence is precisely what makes the BFSI sector uniquely attractive to adversaries and uniquely dangerous when compromised, and is why the report argues cybersecurity must be treated as a core institutional capability — as central to strategy as credit risk management — rather than a peripheral technical function.

The Civil Registration System (CRS) Report 2024, released by the Office of the Registrar General and Census Commissioner of India under the Ministry of Home Affairs, records that India registered 99.1% of estimated births and 99.4% of estimated deaths in 2024. In 2000, those figures stood at 56% and 48% respectively — making this a two-decade transformation in India’s most fundamental demographic data infrastructure.

The CRS is a continuous, compulsory administrative mechanism for recording vital events — births, deaths, and stillbirths — as they occur. It is not a survey or a census; it is a permanent, real-time registry. The data it generates is the foundation for estimating fertility rates, mortality rates, infant and maternal mortality, and sex ratio at birth — the variables that drive public health planning, welfare targeting, and financial inclusion policy.

The system operates under the Registration of Births and Deaths (RBD) Act, 1969, in legal force since 1970. The 2023 amendment introduced two significant changes: it mandated fully digital registration through the CRS portal (operative from October 2023), with all data hosted on MeghRaj, the Government of India’s national cloud; and it tightened the compulsory registration architecture across all states and UTs.

• Reporting window: All births, deaths, and stillbirths must be registered within 21 days of occurrence at the place of event; late registration attracts a fee.
• Stillbirth definition: Death of a foetus after 28 weeks of pregnancy but before or during delivery; compulsorily registrable.
• Births abroad: Under Section 20 of the RBD Act, births of Indian citizens abroad can be registered in India within 60 days of the family’s return with intent to settle.
• Deaths abroad: Registered at Indian Consulates under the Citizenship Act, 1955; valid under the RBD Act.
• Penalty: Registrar negligence in recording events is punishable with a fine of up to Rs. 1,000.

• Established in 1949; under the Ministry of Home Affairs; current incumbent — Shri Mritunjay Kumar Narayan (IAS 1995, UP cadre), in office since 1 November 2022; holds Additional Secretary rank.
• Oversees national CRS implementation, the decennial Census of India, the Linguistic Survey of India, and the National Population Register (NPR).
• Three-tier administrative structure below the RGI: Chief Registrars (state) → District Registrars → Local Registrars (who handle individual registrations and certificate issuance).

• 18 States/UTs achieved 100% birth registration in 2024; 21 States/UTs achieved 100% death registration.
• Death registration, historically the harder metric (births attract more immediate administrative attention), has essentially closed the gap with birth registration.

Near-universal coverage is a count figure, not a quality figure. A significant share of registrations still occur after the 21-day window, reducing the CRS’s usefulness for real-time demographic surveillance and health emergency response.

Of registered infant deaths in 2024, 84.2% came from urban areas and only 15.8% from rural areas. This is almost certainly a registration gap, not a genuine mortality distribution — infant mortality rates in rural India are known to be higher, not lower, than in urban areas. Rural infant deaths are falling through the system.

Registering a death does not mean certifying its cause. A large proportion of registered deaths still lack reliable medical certification of the cause, limiting the CRS’s value for disease burden analysis, epidemic intelligence, and evidence-based health resource allocation.

CRS completeness is estimated against the Sample Registration System (SRS), which prior research suggests may itself undercount vital events. If the SRS benchmark is an undercount, the 99% headline is modestly overstated.

• Legal gateway: Birth and death certificates are required for identity verification, school admission, inheritance, pensions, insurance, and welfare benefits.
• Health surveillance: Timely death registration enables tracking of seasonal mortality patterns and age-geographic distribution of deaths — critical for epidemic intelligence, as demonstrated during COVID-19 excess mortality estimation.
• Decentralised planning: Granular district-level CRS data enables evidence-based local governance in ways that a decennial census cannot, given the 10-year gap between counts.
• Policy evaluation: Continuous vital statistics allow ongoing assessment of health and social programmes rather than waiting for survey-based measurement cycles.

Ongoing armed conflicts globally — including in Ukraine, Gaza, Lebanon, and Iran — are generating growing discussion on the need for binding international commitments to protect the environment during warfare. Documented ecological damage from these conflicts has prompted renewed calls to UNEP and international bodies to legally codify environmental protections in conflict zones.

• Russia-Ukraine war emissions: The first three years of Russia’s military operations in Ukraine generated an estimated 230 million tonnes of CO⊂2; equivalent — the first emissions assessment for any conflict of this scale.
• Gaza: Ongoing attacks have generated an estimated 61 million tonnes of debris mixed with unexploded ordnance and toxic contaminants from munitions and asbestos; UNEP estimates Gaza lost 97% of tree crops, 95% of shrubs, and 82% of annual crops.
• Kakhovka Dam breach (Ukraine): Caused unprecedented damage to local ecosystems and biodiversity.
• Iran: Iran’s Department of Environment reported large-scale bombing of oil storage facilities and petrochemical plants causing air, soil, and water pollution, along with ecosystem degradation and biodiversity decline. Reports cited “black rain” over Tehran in March 2026.
• Military land footprint: Militaries cover 1–6% of surface land, often ecologically rich but fragile areas.
• Military GHG emissions: Estimated at 5.5% of global greenhouse gas emissions (UK-based Scientists for Global Responsibility and Conflict and Environment Observatory), but these fall outside the scope of the 1992 Kyoto Protocol or the 2015 Paris Agreement.

• ENMOD Convention (1976): The Convention on the Prohibition of Military or Any Other Hostile Use of Environmental Modification Techniques prohibits “the use of environmental modification techniques as a means of warfare.”
• Geneva Conventions, Additional Protocol I (1977): Two clauses prohibit methods or means of warfare that are intended or expected to cause widespread, long-term, and severe damage to the natural environment.
• International Day: November 5 is observed as the International Day for Preventing the Exploitation of the Environment in War and Armed Conflict.
• UNEA Resolution (2014): The second session of the UN Environment Assembly adopted a resolution on protection of environment in conflict areas, citing a 1992 UN General Assembly resolution calling on countries to honour international laws applicable to the environment during conflicts.
• UNEA 2024 Decision: Adopted a consensus decision mandating UNEP to support countries in gauging and mitigating environmental impacts of conflicts.
• ICJ Advisory Opinion (July 2025): The International Court of Justice’s advisory opinion holding countries’ obligations on climate change included a separate opinion by Judge Sarah Cleveland on assessing and reporting greenhouse gas emissions from armed conflicts.

An international team of Chinese and UK geoscientists, led by researchers from the University of Glasgow and Nanjing University, has published new evidence revealing how the Indian tectonic plate shaped the Tibetan Plateau — the “Roof of the World.” The study, titled ‘West versus Central Tibet exhumation difference influenced by Indian slab underthrusting’, is published in Nature Geoscience. It offers the first convincing evidence linking differential exhumation patterns across the Plateau directly to the movement of the Indian plate beneath the Asian plate.

• The Tibetan Plateau is the highest and largest upland area on Earth, with average elevations exceeding 4,500 metres.
• It is colloquially known as the “Roof of the World.”
• Acts as a major driver of the global climate, influencing monsoon patterns across Asia.
• Is the source of Asia’s ten largest rivers, providing freshwater to billions of people.
• Despite appearing as a single monolith, significant geological and topographical differences exist between North–South and, critically, from West to East — differences that have not previously been scientifically explained.

• The Tibetan Plateau was formed as a result of the collision between the Indian tectonic plate (to the south) and the Asian tectonic plate (to the north) over millions of years.
• In this collision, the denser oceanic part of the Indian plate subducted (moved under) the Asian plate, while the lighter continental crust was uplifted to form the Himalayas and the Tibetan Plateau.
• Exhumation: The geological process by which rocks appear at the surface through a combination of plate movements and erosion; the regional exhumation history determines past topography and surface relief.
• Thermochronology: A set of geochronological techniques that use the thermal history of rocks (based on radioactive decay) to determine when they were uplifted and exposed at the surface.

• Using low-temperature thermochronology techniques developed at the University of Glasgow and the Scottish Universities Environmental Research Centre (SUERC), the team determined that the western and central parts of the Tibetan Plateau have very distinct exhumation histories.
• This east–west difference in exhumation history had never been systematically investigated before this study.

• The team discovered that the uplift of the central and western parts of the Plateau was radically different between 45 and 20 million years ago.
• This period coincides with the timeframe when the Indian plate is known to have moved under the Asian plate in the west, but had not yet reached the central plateau.
• Fieldwork was conducted across Gerze (central plateau) and Rutog (western plateau) during summers of 2017–2019.

• The unique surface topography at the summit of the Plateau is shaped by processes occurring deep within the Earth — specifically the differential progress of Indian plate subduction beneath the Asian plate.
• The study provides direct evidence that subduction of the Indian plate beneath the Asian plate drove the formation of the Tibetan Plateau and explains the topographic differences between eastern and western Tibet.

• Has the potential to change scientific understanding of how mountain belts form globally.
• Demonstrates the power of new low-temperature thermochronology analytical techniques pioneered at Glasgow and SUERC.
• Offers insights into geological hazards such as earthquakes and volcanic activity, since these surface features are connected to processes in the Earth’s interior.

• University of Glasgow (Scotland): Provided the geochronological and thermochronology analytical techniques; School of Geographical and Earth Sciences.
• SUERC (Scottish Universities Environmental Research Centre): Co-developer of the low-temperature thermochronology methods applied in the study; Fin Stuart (Professor of Isotope Geosciences) was a lead researcher.
• Nanjing University, China: PhD students conducted field surveys and applied analytical techniques in the three-year collaborative project.

The Central Government has announced that India aims to achieve a full digital rollout of its criminal justice system from 1 July 2027. After this date, all procedures related to investigations and trials under the new criminal laws will be recorded digitally through the Interoperable Criminal Justice System (ICJS). Data will be stored on the Government of India’s cloud platform, MeghRaj.

• The criminal justice system comprises the police, courts, prisons, forensics, and prosecution services.
• The new criminal laws — Bhartiya Nyaya Sanhita (BNS) and Bhartiya Nagrik Suraksha Sanhita (BNSS) — have replaced the Indian Penal Code (IPC) and the Code of Criminal Procedure (CrPC) respectively.
• The BNS/BNSS shift the philosophical orientation from punishment-centric to justice-centric approaches, placing greater emphasis on the rights of the accused as a citizen to be balanced against victims’ interests.
• The new criminal laws mandate forensic examination of crime scenes for offences punishable with imprisonment of 7 years or more.
• Number of forensic laboratories has increased from 129 in 2023 to 154 in 2025.
• According to the National Crime Records Bureau (NCRB), only 46% of FIRs were digitally transmitted to courts as of the latest data — indicating the digital chain remains incomplete.
• Most states have implemented various components of the criminal justice digitisation framework, but progress remains uneven across states.
• ICJS (Interoperable Criminal Justice System) aims to link police, courts, prosecution, prisons, and forensic laboratories on a single digital platform.
• MeghRaj = Government of India’s national cloud platform; to serve as the data storage backbone for the digitised criminal justice system.

• Adversarial System (Common Law countries): Legal proceedings are a contest between the prosecution and the defence; the judge acts as a neutral arbiter; based primarily on judicial precedents and uncodified case law; emphasises the rule of fair hearing (Audi alteram partem — no person shall be condemned unheard).
• Inquisitorial System (Civil Law countries): The judge plays an active investigative role; rules are codified into comprehensive statutes rather than shaped by precedent; outcome depends on the judge’s inquiry and investigation.
• Audi alteram partem: Latin principle of natural justice meaning “hear the other side”; fundamental to the adversarial model; embedded in India’s constitutional framework.
• Visakha v. State of Rajasthan (1997): Supreme Court laid down guidelines to prevent sexual harassment of women at the workplace, holding that such acts violate Articles 14, 15, and 21 of the Constitution — cited as an example of judicial gap-filling in legislative silence.

The Cabinet Committee on Economic Affairs (CCEA), chaired by Prime Minister Narendra Modi, has cleared a major package of economic and infrastructure approvals. The package includes ₹1.27 lakh crore for India Semiconductor Mission 2.0 (Semicon 2.0), ₹62,500 crore for the Mobile Phone Manufacturing Scheme (MPMS), the National Investment Policy for Urea 2026 (NIPU 2026) for nine new gas-based urea plants, and ₹25,400 crore for two major highway projects in Varanasi under NHAI.

• Outlay: ₹1.27 lakh crore (compared to ₹76,000 crore for the first edition, ISM 1.0).
• Investment target: Attract approximately ₹4 lakh crore in semiconductor investments.
• Production target: Semiconductor production worth ₹2 lakh crore during the scheme period.
• First edition (ISM 1.0) had approved 12 projects with cumulative investments of approximately ₹1.64 lakh crore; majority of investment came from Tata Electronics and its semiconductor arm.

• Pillar 1 — Design: Focus on chip design; the programme will emphasise design, development, and production of indigenous chips.
• Other pillars cover manufacturing (domestic chip fabrication), packaging, research and development, supplier ecosystem (including raw materials and gases), and support for Indian patents in chip design and R&D.
• Programme also provides incentives for suppliers of raw materials and gases used in the chip manufacturing industry.

• Incentive support on eligible sales for manufacturing of semiconductors at differentiated rates of 2.25% to 5%.
• Additional incentive of up to 1.5% linked to domestic sourcing of key components and sub-assemblies.
• For building Indian brands: additional incentive at 3% on eligible sales for design and R&D of the product.

• India currently has zero operational semiconductor fabs; all chips for domestic electronics are largely imported.
• First fab expected at Dholera, Gujarat by 2028.
• The programme is timed to coincide with global geopolitical uncertainties, enabling India to leverage supply chain diversification away from concentrated sources.

• Outlay: ₹62,500 crore.
• Aimed at building Indian brands in mobile phone manufacturing, achieving technological sovereignty, and scaling up local mobile production to capture significant economic value and create Indian patents in design and R&D.

• Incentive support on eligible sales for mobile phone manufacturing at differentiated rates of 2.25% to 5%.
• Additional incentive of up to 1.5% linked to domestic sourcing of key components and sub-assemblies.
• For building Indian brands: additional 3% on eligible sales for design and R&D of the product.

• Cumulative mobile phone production in India expected to reach ₹39 lakh crore over the scheme tenure, with significant increase in exports.
• Expected to generate approximately 60,000 direct jobs.

• India’s annual domestic urea production is approximately 30 million tonnes against a domestic requirement of 40 million tonnes; the shortfall of 10 million tonnes is currently imported.
• Urea demand is rising at 5% annually due to changing cropping patterns, increased sowing area, and record agricultural production.
• The previous New Investment Policy (NIP 2012) expired in October 2019 and led to the establishment of six new urea units (four through JVs of public sector undertakings and two by private companies).

• Targets setting up nine new gas-based urea plants with a combined production capacity of 10 million tonnes, making India self-reliant in urea.
• The incentive under NIPU 2026 is uniform for private, government, and cooperative projects, removing the earlier differential treatment.

• Separation of fixed and variable costs for greater pricing transparency.
• Introduction of a viable Return on Equity (RoE) band with a floor at 12% and a ceiling at 16%.
• Mitigation of foreign exchange risk through conversion of fixed costs into rupees after four years, based on prevailing exchange rates.
• These measures are estimated to result in savings of over ₹250 crore per plant established under NIPU 2026 compared with NIP 2012.

• Two major highway projects worth ₹25,400 crore to be implemented by the National Highways Authority of India (NHAI) under the Hybrid Annuity Model (HAM).
• Both corridors are designed for operating speeds of 80–100 kmph and are part of the Varanasi Decongestion Plan, aligned with the PM Gati Shakti National Master Plan.

• CCEA = Cabinet Committee on Economic Affairs; the apex body chaired by the Prime Minister that clears major economic investments and policy approvals.
• HAM = Hybrid Annuity Model; a public-private partnership model for highway construction where the government pays a fixed annuity to the private developer; shares both construction and operational risk.
• PM Gati Shakti = National Master Plan for multi-modal connectivity; aims to integrate infrastructure planning across railways, highways, ports, and logistics through a GIS-based platform.

The second Indian Wildlife Ecology Conference (IWEC 2026) was held at Ashoka University, Sonepat, Haryana from 10–12 July 2026. The conference brought together researchers from universities, government agencies, NGOs, and field stations across India to chart the future of wildlife ecology. Conceived by the late wildlife biologist Ajith Kumar as a national platform for India’s wildlife ecologists to exchange ideas, IWEC has grown into a cross-disciplinary forum integrating evolutionary history, long-term monitoring, public policy, technology, and public health. The conference featured 197 talks over three days.

• Jahnavi Joshi (CSIR-Centre for Cellular and Molecular Biology, Hyderabad) examined how geological history and climate gradients shaped the diversity of woody plants in the Western Ghats, using phylogenetic analyses to assess whether different parts of the mountain range function as evolutionary “cradles” (where new species originate) or “museums” (where ancient lineages persist).
• Mahesh Sankaran (National Centre for Biological Sciences, Bengaluru) drew on IPCC projections to examine how rising temperatures, increasingly variable rainfall, and extreme weather events will reshape India’s montane grasslands, alongside human-driven pressures such as altered nutrient cycles and land-use change.

• Ashwin Viswanathan (Nature Conservation Foundation, Mysuru) highlighted citizen-science platforms such as eBird India as generating observations at scales impossible in conventional field studies. He used the migration of the rusty-tailed flycatcher across Uttarakhand and eastern India — reconstructed using citizen-science data — as a case study.
• Asad Rahmani (Bombay Natural History Society) surveyed the pressures on India’s birds from habitat loss, infrastructure expansion, and climate change, and pointed to the drying of Kashmir’s Shallabugh wetland as a particularly concerning example.

• Anusha Shankar (Tata Institute of Fundamental Research, Hyderabad) described physiology as an underutilised lens connecting processes across biological scales, using energy expenditure and body temperature measurements in hummingbirds to illustrate metabolic responses to environmental change.
• Maria Thaker (Indian Institute of Science, Bengaluru) drew on studies of the spiny-tailed lizard to show how desert reptiles regulate body temperature and nutritional requirements across seasons. She noted that ectothermic vertebrates can currently behaviourally thermoregulate, but are unlikely to cope with future climate warming.

• A special session titled ‘Leveraging Global Policies for Local Conservation in India’, moderated by Asmita Kabra (Ashoka University), examined how international biodiversity commitments can be adapted to India’s ecological and social realities.
• Jagdish Krishnaswamy (Indian Institute for Human Settlements, Bengaluru) called for a move beyond species-centred conservation to protect ecological processes that sustain entire landscapes — arguing that the next frontier is conserving landscapes beyond protected area boundaries, integrating biodiversity, livelihoods, and climate resilience.
• Vivek Menon (Wildlife Trust of India) countered that species-centred conservation remains indispensable: conservation “significantly reduces how fast” biodiversity loss occurs even if it cannot halt it entirely.
• The session consensus: global frameworks succeed only where local institutions and evidence-based implementation back them up; lasting conservation depends on communities that share landscapes with wildlife.

• A panel on ‘Extinction of Experience: The Decline of Field-based Ecology’, moderated by Robin Vijayan (IISER Tirupati), discussed how AI, genomics, environmental DNA, and computational tools have expanded ecology research but cannot substitute for field understanding.
• Bilal Habib (Wildlife Institute of India): “Unless and until we have field logic, we won’t be able to analyse our data well.”

• A panel examined free-ranging dogs through the lenses of ecology, public health, animal welfare, and urban governance.
• Chandrima Home (Srishti Manipal Institute, Bengaluru) argued that “free-ranging dogs” is a more accurate label than “stray” or “feral,” as only a small fraction comes into conflict with wildlife or livestock.
• Anindita Bhadra (IISER Kolkata) connected dog population size to urban food availability, noting: “We want our cities to be smart, but we can’t manage our garbage.”
• Panellists discussed the role of Animal Birth Control (ABC) programmes alongside improved waste management and stronger municipal governance.

• Wildlife Institute of India (WII): Premier national institution for wildlife research, education, and management; Dehradun.
• National Centre for Biological Sciences (NCBS): Under TIFR; Bengaluru; research on ecology, evolution, and biodiversity.
• CSIR-CCMB (Centre for Cellular and Molecular Biology): Hyderabad; molecular research including ecological genetics.
• Nature Conservation Foundation (NCF): Mysuru-based NGO known for community-based conservation and citizen science initiatives including eBird India.
• Bombay Natural History Society (BNHS): Mumbai; one of India’s oldest natural history research organisations; key contributions in ornithology and wildlife monitoring.
• Wildlife Trust of India (WTI): Delhi; focuses on wildlife rescue, habitat protection, and human-wildlife conflict mitigation.