Jan Man Survey
Context:
To commemorate 11 years of Prime Minister Narendra Modi's leadership, the NaMo App launched the ‘Jan Man Survey’, which received over 5 lakh (500,000) responses within just 26 hours.
Jan Man Survey:
• What is it?
A large-scale citizen engagement initiative launched via the NaMo App to gather public opinion on key governance-related topics.
• How it Works?
Citizens across India participate through the app by answering questions related to:
- National Security
- Governance
- Cultural Pride
- Youth Development, etc.
• Significance:
- Promotes direct democracy by integrating citizen feedback into policymaking.
- Encourages digital participation and builds a culture of political accountability.
- High engagement shown: 77% of participants completed the entire survey, indicating strong public interest and involvement.
📚 Relevance for UPSC Exam Syllabus:
• GS Paper II – Governance:
- Example of citizen-centric governance and use of ICT tools for policy feedback.
- Relevant to themes such as e-Governance, transparency, and citizen participation.
• GS Paper IV – Ethics & Integrity:
- Demonstrates ethical governance through transparency and responsiveness.
- Reflects public service values and the effective use of surveys for administrative accountability.
AI Crowd Management System
Context:
In preparation for the 148th Jagannath Rath Yatra in Ahmedabad, the city police will deploy an AI-powered anti-stampede system to manage crowds and prevent disasters during the large religious event.
About Ahmedabad Police’s AI Crowd Management System:
• What it is:
An AI-based crowd monitoring system integrated with CCTV cameras and drones, designed to prevent stampedes by analyzing real-time crowd data during large religious processions.
• How it works:
- Real-Time Surveillance:
AI-enabled CCTV cameras use pixel-counting and thermal imaging to detect crowd density live.
- Threshold Alerts:
The system issues alerts to the police when crowd density crosses safe thresholds, enabling quick action.
- Predictive Analytics:
Uses data trends to predict potential bottlenecks and suggests alternative dispersal routes.
- Integrated Deployment:
Works in coordination with drone-based surveillance system (GP-DRASTI) to provide dynamic crowd control along congested routes.
Significance:
- Proactive Disaster Prevention:
Identifies early warning signs of overcrowding to prevent stampedes.
- Real-Time Decision Support:
Improves police responsiveness and public safety in high-risk zones.
- Data-Driven Planning:
Helps in future event planning by recording and analyzing crowd behavior and risk-prone areas.
Limitations:
- Technical Gaps:
AI might face challenges like poor lighting, bad weather, or crowd occlusion (when people are blocked from view).
- Privacy Concerns:
Constant surveillance raises ethical issues and privacy concerns in public spaces.
- Operational Dependency:
Despite automation, success still depends on human personnel and timely intervention.
Relevance in UPSC Syllabus:
• GS Paper II – Governance:
- Illustrates the application of technology in public service delivery and urban safety.
- Example of e-Governance and use of AI in disaster management and law enforcement.
• GS Paper III – Disaster Management:
- Demonstrates the role of early warning systems in crowd disaster prevention.
- Highlights technological innovations to reduce risks during mass public gatherings.
Blue NDC Challenge
Source: Down to Earth (DTE)
Context:
At the United Nations Ocean Conference (UNOC3) held in Nice, France, Brazil and France jointly launched the “Blue NDC Challenge”. The initiative aims to integrate ocean-based solutions into national climate strategies ahead of UNFCCC COP30, which will take place in Belem, Brazil.
🌊 About the Blue NDC Challenge:
• What is the Blue NDC Challenge?
A multilateral initiative that urges countries to incorporate ocean-centric actions into their Nationally Determined Contributions (NDCs) as part of efforts to:
- Address climate change
- Enhance coastal resilience
- Align with the Paris Agreement’s 1.5°C goal
• Launched by:
- Brazil and France
- Announced during: UNOC3 in June 2025, as part of pre-COP30 mobilization
• Participating Countries:
- Australia, Fiji, Kenya, Mexico, Palau, and Seychelles
• Core Objective:
To promote the inclusion of ocean-focused climate actions in updated Nationally Determined Contributions (NDCs) ahead of UNFCCC COP30, contributing to global climate goals.
🔹 Major Features of the Blue NDC Challenge:
- Ocean-Integrated NDCs:
Encourages the integration of marine ecosystems, mangroves, and coastal zones in national climate action plans.
- Sustainable Blue Economy:
Promotes climate-resilient fisheries, ocean renewable energy (like wave, wind, and tidal energy), and carbon-smart aquaculture.
- Phasing Out Offshore Fossil Fuels:
Calls for a gradual elimination of offshore oil and gas exploration, particularly in ecologically sensitive marine areas.
- Restoration and Conservation:
Emphasizes restoration of mangroves, coral reefs, and salt marshes to:
- Enhance carbon sequestration
- Improve coastal protection
- Global Partnerships & Support:
The initiative is supported by:
- Global Mangrove Alliance
- UN High-Level Climate Champions
- World Resources Institute (WRI)
- Ocean Breakthroughs under the Marrakech Partnership
KATRIN Experiment
Source: The Hindu (TH)
Context:
The KATRIN experiment in Germany has released the most stringent upper limit yet on the combined mass of the three types of neutrinos, restricting it to 8.8 × 10⁻⁷ times the mass of an electron—twice as precise as previous measurements.
• What is KATRIN?
KATRIN stands for Karlsruhe Tritium Neutrino experiment. It is a precision physics project aimed at measuring the mass of neutrinos by observing the beta decay of tritium (a radioactive isotope of hydrogen).
• Developed by:
Led by the Karlsruhe Institute of Technology (KIT), Germany, the experiment is an international collaboration involving major research institutions from Germany, the United States, and other European countries.
Objective:
To directly measure the absolute mass of neutrinos, solving one of the biggest open questions in particle physics.
Key Features of the KATRIN Experiment:
- Massive Detector:
Employs a 200-tonne spectrometer to carry out ultra-precise measurements of electron energy emitted during tritium decay.
- Tritium Decay Monitoring:
Tracks the beta decay of tritium to analyze the maximum energy of the emitted electrons, from which the neutrino mass can be inferred.
- Robust Data Collection:
Has studied over 36 million electrons during 259 days of data-taking, making it one of the most comprehensive neutrino experiments.
- Direct Measurement:
Unlike cosmological methods, KATRIN does not rely on assumptions about the early universe or theoretical models—making its results model-independent.
Significance of the KATRIN Experiment:
- Breakthrough in Neutrino Physics:
Established a new upper limit on the combined neutrino masses, a crucial parameter for exploring physics beyond the Standard Model.
- Challenges Established Theory:
Confirms that neutrinos have mass, thereby challenging the Standard Model, which originally assumed neutrinos to be massless.
- Path to New Discoveries:
Opens avenues for exploring new forces or particles, such as distinguishing between Majorana and Dirac neutrinos—a fundamental question in particle physics.
- Model-Independent Results:
Since it doesn’t rely on cosmological assumptions, its conclusions are more reliable and free from theoretical bias.
- Lays the Groundwork for Future Research:
Sets technical and experimental standards for upcoming neutrino detectors and radioactive decay-based experiments across the world.