GK One-Liners

What: Algeria was admitted to the New Development Bank (NDB) on May 22, 2025, becoming its latest non-founding member. The NDB, established in 2015 and headquartered in Shanghai, China, was founded by the BRICS nations — Brazil, Russia, India, China, and South Africa — with an authorised capital of USD 100 billion. The non-founding members admitted since the NDB’s establishment are: Bangladesh, the United Arab Emirates, Egypt, Indonesia, and now Algeria — in that sequence. Uruguay currently holds prospective member status. The NDB’s current President is Dilma Rousseff (former President of Brazil). India’s Regional Office for the NDB is located at GIFT City (Gujarat International Finance Tec-City), Gandhinagar.

How: The NDB was conceived as a multilateral development bank that provides financing for infrastructure and sustainable development projects in emerging market and developing countries — as an alternative to Western-dominated institutions like the World Bank and the International Monetary Fund (IMF). Unlike those institutions, the NDB gives equal voting rights to all founding members regardless of economic size, embedding a principle of equality among BRICS partners. The bank’s expansion to non-BRICS countries like Bangladesh, UAE, Egypt, Indonesia, and Algeria reflects its ambition to be a genuinely global development finance institution rather than a BRICS-exclusive body.

Why: NDB membership, founding context, and key facts are standard UPSC Prelims GS-II (International Organisations) questions. Key facts: NDB established — 2015; HQ — Shanghai; authorised capital — USD 100 billion; founded by BRICS five; current President — Dilma Rousseff (Brazil); 1st President — K.V. Kamath (India, 2015–20); non-founding members — Bangladesh, UAE, Egypt, Indonesia, Algeria; India’s RO — GIFT City. The sequence of non-founding members is a likely MCQ trap. The NDB’s ‘equal voting rights’ model distinguishes it from the IMF/World Bank quota system — a nuanced Mains GS-II comparison point.

What: US President Donald Trump unveiled the Golden Dome missile defence programme — a USD 175 billion initiative ordered in January 2025 with a target completion date of 2029. Inspired by Israel’s Iron Dome air defence system, Golden Dome is designed to provide layered, nationwide protection for the continental United States against a broad spectrum of modern threats: Hypersonic Glide Vehicles (HGVs), Fractional Orbital Bombardment Systems (FOBS), cruise missiles, and drone swarms. The programme is led by General Michael Guetlein of the US Space Force and integrates land-based interceptors, space-based interceptors, Artificial Intelligence (AI)-powered threat tracking, and early-warning satellites into a unified architecture.

How: Unlike Israel’s Iron Dome — which is a short-range, point-defence system designed to intercept rockets and artillery shells — the Golden Dome aims for continental-scale protection, requiring a fundamentally different technical approach. The inclusion of space-based interceptors addresses HGVs and FOBS, which fly at low orbital altitudes and use unpredictable trajectories that defeat traditional ground-based radar and missile defence systems. AI integration is critical for real-time threat classification and engagement sequencing across thousands of simultaneous potential targets — a challenge no purely human-operated system could manage at the required speeds.

Why: Golden Dome, hypersonic weapons, and missile defence architectures are testable in UPSC Prelims GS-III (Defence, Science & Technology) and CDS exams. Key facts: cost — USD 175 billion; ordered — January 2025; target — 2029; inspired by — Israel’s Iron Dome; threats addressed — HGVs, FOBS, cruise missiles, drone swarms; programme lead — General Michael Guetlein (US Space Force); key features — AI threat tracking, space-based interceptors, early-warning satellites. The strategic context — US concern over China’s and Russia’s advancing hypersonic and FOBS capabilities — is a strong Mains GS-II thread on great-power competition and arms race dynamics.

What: The Council of Scientific and Industrial Research – National Aerospace Laboratories (CSIR-NAL), Bengaluru (established June 1959), successfully tested its High Altitude Platform (HAP) prototype at 24,000 feet altitude over the Aeronautical Test Range (ATR) at Challakere, Karnataka, during May 8–13, 2025. The prototype has a 12-metre wingspan, weighs less than 22 kilograms, carries approximately 1 kilogram of payload, and is fully autonomous in operation. The full-scale HAP under development is targeted to operate at 65,000 feet altitude — in the stratosphere — with a 10-kilogram payload capacity.

How: A High Altitude Platform is a solar-powered, unmanned aerial vehicle (UAV) designed to loiter at very high altitudes (typically 17–22 km, or 55,000–72,000 feet) for extended durations — weeks or months — acting as a quasi-stationary platform for communications relay, Earth observation, border surveillance, disaster monitoring, weather data collection, and rural broadband connectivity. At 65,000 feet, the HAP operates above commercial air traffic and most weather systems, giving it near-satellite capabilities at a fraction of the cost and with the flexibility of a reusable platform. The autonomy requirement means it must navigate, manage power from solar panels, and execute missions without ground operator intervention.

Why: HAP technology, CSIR-NAL’s roles, and dual-use stratospheric platforms are testable in UPSC Prelims GS-III (Science & Technology, Defence). Key facts: CSIR-NAL — Bengaluru, established June 1959; HAP prototype test — 24,000 ft, ATR Challakere, Karnataka; wingspan — 12 m; weight — under 22 kg; payload — ~1 kg; fully autonomous; full-scale target — 65,000 ft, 10 kg payload. Applications — border surveillance, disaster response, telecom relay, weather monitoring. The strategic dimension (border surveillance above 5,000m terrain like Ladakh) and the civil broadband utility (replacing last-mile connectivity infrastructure) make HAP a multi-domain exam topic linking GS-III Science, Defence, and Infrastructure.

What: Kerala became the first state in India to make robotics a mandatory subject for Class 10 students, effective June 2025. The programme covers approximately 4.3 lakh students across Kerala’s government and aided schools and is implemented by KITE (Kerala Infrastructure and Technology for Education). The curriculum is titled ‘World of Robots’ and uses Arduino microcontrollers with Infrared (IR) sensors as the hardware platform, taught through Pictoblocks — a block-based visual programming software. A total of 29,000 robotics kits have been distributed, 9,924 teachers have been trained, and textbooks are available in four languages. Kerala already offers Artificial Intelligence (AI) learning in Classes 8–10.

How: Arduino is an open-source microcontroller platform widely used in educational robotics for its low cost, ease of use, and strong community support. Pictoblocks, the accompanying programming environment, uses drag-and-drop code blocks rather than text-based syntax — making it accessible to students with no prior coding experience. IR sensors teach students the fundamentals of sensing and feedback, enabling them to build line-following robots, obstacle-avoidance systems, and other elementary autonomous machines. The programme is structured under the broader vision of the National Education Policy (NEP) 2020, which emphasises computational thinking, vocational skills, and STEM integration from the school level.

Why: State education innovations, NEP 2020 implementation, and STEM policy are tested in UPSC Prelims GS-II (Education, Governance) and State PSC exams. Key facts: Kerala — India’s first state for mandatory Class 10 robotics; implementing body — KITE; students — 4.3 lakh; curriculum — ‘World of Robots’; hardware — Arduino + IR sensors; software — Pictoblocks; kits — 29,000; teachers trained — 9,924; effective — June 2025; also offers AI in Classes 8–10. KITE’s earlier achievements (IT@School project, which gave Kerala some of the highest IT literacy rates in India) provide useful exam context for why Kerala is positioned to lead on this initiative.

What: The Ministry of Home Affairs (MHA), through the Indian Cybercrime Coordination Centre (I4C), launched the e-Zero FIR system — an automated First Information Report (FIR) registration mechanism for cyber financial crimes involving losses of ₹10 lakh or more. The system auto-generates an FIR by pulling data from the National Cybercrime Reporting Portal (NCRP) and the Cybercrime Helpline 1930. It was piloted in Delhi, integrating the NCRP with the Delhi Police e-FIR system and the National Crime Records Bureau’s (NCRB’s) Crime and Criminal Tracking Network and Systems (CCTNS). After auto-registration, the complainant must visit the police station within 3 days to complete the process. The initiative aligns with Section 173 of the Bharatiya Nagarik Suraksha Sanhita (BNSS), 2023 — the new criminal procedure code that replaced the Code of Criminal Procedure (CrPC), 1973.

How: A Zero FIR is an FIR that can be registered at any police station regardless of jurisdiction — a provision that reduces the burden on victims of having to travel to the specific police station under whose jurisdiction the crime occurred. The ‘e’ prefix adds digital automation: instead of the victim manually filing, the system automatically creates the FIR record when a qualifying complaint is received online. This is especially important for cyber financial crimes, where victims are often in different states from the perpetrators and delays in FIR registration allow fraudsters to move funds beyond recovery. The threshold of ₹10 lakh ensures the system focuses on high-value cases where rapid FIR registration most directly enables asset recovery via freezing of fraudulent accounts.

Why: MHA cyber initiatives, I4C, NCRP, Zero FIR, and BNSS 2023 provisions are tested in UPSC Prelims GS-II (Governance, Internal Security) and Banking Awareness. Key facts: system — e-Zero FIR; launched by — MHA/I4C; threshold — ₹10 lakh cyber financial losses; portal — NCRP; helpline — 1930; pilot — Delhi; integrates — NCRP + Delhi Police e-FIR + CCTNS; complainant must visit police station within 3 days; legal basis — BNSS 2023 Section 173. The BNSS 2023’s replacement of CrPC and its new cyber-crime provisions is a standalone high-yield GS-II fact. The ₹10 lakh trigger and 3-day visit requirement are likely MCQ anchors.

What: The Global Forest Watch (GFW) — operated by the World Resources Institute (WRI, USA) in partnership with the University of Maryland using Landsat satellite imagery — reported that India lost 18,200 hectares of primary forest in 2024, up from 17,700 hectares in 2023. Cumulatively, India has lost 3,48,000 hectares of primary forest between 2002 and 2024 — representing a 5.4% decline in its humid primary forest cover and 15% of its total tree cover loss over this period. At the global level, the tropical rainforest loss in 2024 set a new record of 6.7 million hectares — the highest since GFW began tracking.

How: Primary forests — also called old-growth or virgin forests — are forests that have never been significantly disturbed by human activity and have developed over long periods. They have uniquely high biodiversity, carbon storage, and hydrological regulation functions that secondary (regenerated) forests cannot replicate on human timescales. GFW uses Landsat satellites at 30-metre resolution to detect tree cover loss and gain annually, distinguishing between primary forest loss (irreversible in the short term) and total tree cover loss (which includes plantations and regrowth). India’s primary forest losses are concentrated in northeastern states — Assam, Arunachal Pradesh, Meghalaya, and Manipur — as well as in parts of the Western Ghats.

Why: GFW forest loss data, primary forest definitions, and India’s deforestation statistics are tested in UPSC Prelims GS-III (Environment). Key facts: India’s 2024 primary forest loss — 18,200 ha (up from 17,700 ha in 2023); cumulative 2002–2024 — 3,48,000 ha; 5.4% humid primary forest loss; global tropical record — 6.7 million ha in 2024; source — GFW (WRI + University of Maryland, Landsat imagery). The distinction between primary forest loss and total tree cover loss is a nuanced exam point — India’s afforestation efforts may increase total tree cover while primary forest loss continues. This tension is a strong Mains GS-III analytical argument on India’s forest governance and Net Zero commitments.