Google’s Project Nimbus
Context: Recently more than 100 students walked out of Google CEO Sundar Pichai’s speech at Stanford University to protest Google’s Project Nimbus contract with the Israeli government.
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About Project Nimbus
- Project Nimbus is a cloud computing contract worth over $1 billion between the Israeli government and technology companies Google and Amazon.
- Key Objective: To provide advanced cloud infrastructure, data storage, artificial intelligence, and digital services to Israeli government ministries, agencies, and state-owned enterprises.
- Duration: The agreement was signed in 2021 for an initial period of seven years, with provisions for extension for up to 23 years.
- Major Components: Google Cloud and Amazon Web Services (AWS) provide cloud computing platforms, data management systems, artificial intelligence tools, cybersecurity support, and digital transformation services.
- Strategic Significance: The project seeks to modernize government operations, improve digital governance, strengthen data management capabilities, and enhance public service delivery.
Key Concerns Regarding the Project
- Potential Military Usage: Critics argue that cloud infrastructure and AI tools could indirectly support military operations, surveillance activities, and intelligence processing in conflict zones.
- Surveillance and Privacy Issues: Human rights groups allege that the technology may facilitate large-scale monitoring of Palestinians, raising concerns regarding privacy, civil liberties, and human rights.
- Corporate Ethics and Accountability: Employees and activists contend that technology companies should ensure their services are not used in ways that contribute to civilian harm or violations of international humanitarian law.
Project Nimbus highlights the growing debate over balancing technological innovation, national security requirements, corporate responsibility, and the protection of human rights in conflict situations.
Rakhigarhi Skeletons
Context: The Archaeological Survey of India (ASI) has sent nearly 5,000-year-old human skeletons excavated from Rakhigarhi (Haryana) for anthropological, DNA and facial reconstruction studies.
Key Points
- Human Remains: Five complete skeletons were recovered from Rakhigarhi.
- Preliminary assessment indicates three females and two males aged 30–40 years.
- To date, nearly 70 skeletons have been recovered from the site through excavations conducted by the ASI and Deccan College, Pune.
- Aim: Studies aim to determine causes of death, diseases, ancestry, physical traits, and social status.
- Facial reconstruction and palaeo-environmental studies will also be undertaken.
- Significance: Provides insights into the health, ancestry and social organisation of Harappan society.
- Facial reconstruction may offer the first visual representation of Harappan inhabitants.
Other Findings of the excavations
- Burial Findings: In addition to the five complete skeletons, archaeologists recovered three additional burials from Mound No. 7, the site’s ancient cemetery.
- However, these burials contained only fragmentary remains.
- Some graves contained up to 40 pottery offerings, surpassing the previous record of 22 (such offerings indicate a person’s social standing and importance within the community).
- Artefacts: Painted earthen pots, earthen stands, copper and gold ornaments, terracotta toys and seals were unearthed.
- Urban Features: Earlier excavations revealed residential structures, streets and drainage systems.
- Craft Activity: Evidence of a jewellery-manufacturing unit indicates specialised craft production.
About Rakhigarhi
- Rakhigarhi is one of the two largest Harappan sites in India, alongside Dholavira in Gujarat.
- It is located in Hisar district, Haryana, spans about 550 hectares, has seven mounds, and contains cultural deposits dating back to around 4200 BCE.
- Excavation History: Mound No. 7 was excavated in 2005–06, 2015, 2023 and 2026.
- Limited excavations at Mound No. 6 were carried out in 2005–06 and 2015.
- Heritage Development: Rakhigarhi is among the 15 sites selected for development as cultural heritage destinations.
Invisible (Fibre-Optic) Drones
Context: The conflicts in Ukraine and southern Lebanon have highlighted the growing use of fibre-optic drones in modern asymmetric warfare.
About Invisible (Fibre-Optic) Drones
- Fibre-optic drones or Invisible Drones are unmanned aerial systems connected to operators through fibre-optic cables instead of conventional radio-frequency communication links.
- Key Features
- Jam-Resistant Communication: Fibre-optic drones transmit commands and video feeds through physical cables, making them highly resistant to electronic jamming, spoofing, and signal interception.
- Real-Time Targeting Capability: The fibre-optic cable enables continuous transmission of live video and operational data, allowing operators to identify and engage targets with high precision.
- Low Detectability: Unlike conventional drones, fibre-optic drones emit minimal radio-frequency signals, significantly reducing their vulnerability to electronic surveillance and detection.
- Extended Operational Range: Technological advancements have increased their operational range from a few kilometres to nearly 20–30 km while maintaining stable communication links.
- Operational Limitations: Fibre-optic drones remain vulnerable to cable breakage, physical obstacles, and adverse weather conditions such as heavy rain and strong winds.
- Applications
- Asymmetric Warfare: Non-state actors and smaller military forces use fibre-optic drones to counter technologically superior adversaries by bypassing advanced electronic warfare systems.
- Intelligence, Surveillance and Reconnaissance (ISR): These drones provide real-time battlefield awareness, target tracking, and reconnaissance in contested environments.
- Precision Strike Operations: Fibre-optic drones can support accurate attacks against military assets, fortified positions, and armoured vehicles while minimizing communication disruption risks.
Fibre-optic drones are reshaping modern warfare by reducing dependence on radio signals and challenging traditional electronic warfare and air-defence doctrines.
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Multi-Lane Free Flow (MLFF) Tolling System
Context: NHAI has launched Rajasthan’s first Multi-Lane Free Flow (MLFF) tolling system at Daulatpura Toll Plaza on the Delhi–Jaipur section of NH-48.
- The first Multi-Lane Free Flow (MLFF) tolling system was launched at the Chorayasi Toll Plaza , Gujarat on the Surat–Bharuch section of NH-48.
About Multi-Lane Free Flow (MLFF) Tolling System
- Multi-Lane Free Flow (MLFF) is a barrier-less electronic toll collection system that enables vehicles to pass through toll locations without stopping.
- Key Features
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- ANPR-Based Vehicle Identification: The system uses Automatic Number Plate Recognition (ANPR) technology to identify vehicles and automatically record their movement through tolling points.
- FASTag-Integrated Toll Collection: MLFF integrates FASTag-based Electronic Toll Collection to automatically deduct user fees without requiring physical interaction or manual processing.
- Barrier-Free and Automated Operations: The system eliminates physical toll barriers and minimizes human intervention, ensuring uninterrupted traffic movement and efficient toll collection.
- Digital Tolling Infrastructure: MLFF combines ANPR cameras, FASTag readers, centralized data processing systems, and digital enforcement mechanisms for real-time toll collection and monitoring.
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About FASTag
- FASTag is an electronic toll collection system that uses Radio Frequency Identification (RFID) technology to enable automatic and cashless toll payments while vehicles remain in motion.
- RFID employs electromagnetic fields to automatically identify and track tags attached to objects in Short range upto 100 m.
- Developed By: National Payments Corporation of India (NPCI).
- It operates under the National Electronic Toll Collection (NETC) program, which was created by the Ministry of Road Transport and Highways (MoRTH).
- Origin : FASTag was introduced as a pilot project in 2014 on the Ahmedabad–Mumbai section of NH-8 and became mandatory for all four-wheelers across India from 16 February 2021.
- How It Works
- RFID-Based Vehicle Identification: A FASTag sticker affixed to the vehicle’s windshield contains an RFID chip that is detected by scanners installed at toll plazas.
- Verification through NETC Network: The scanned tag information is verified through the National Electronic Toll Collection (NETC) system to authenticate the vehicle and linked payment account.
- Automatic Toll Deduction: After verification, the toll amount is deducted electronically from the linked bank account or wallet, and the vehicle is allowed to pass without stopping.
The MLFF Tolling system marks a significant step toward developing a smart, technology-driven highway network that enhances efficiency, convenience, and sustainability in road transportation.
22 Jun 2026
