One Nation, One Time: India Sets New Benchmark Using White Rabbit Tech

Last year in September, IndianWeb2 reported that Government of India is planing to roll out a nationwide precision timekeeping system to be developed in collaboration with ISRO and the National Physical Laboratory (NPL).

In less than a year now, India has officially launched a secure “White Rabbit” precision timing network to disseminate Indian Standard Time (IST), reducing reliance on foreign GPS-based timing systems and strengthening critical infrastructure. The network was commissioned in Bengaluru and will support sectors like banking, telecom, power grids, and stock markets.

Union Minister Pralhad Joshi, on Monday, inaugurated the White Rabbit‑based Indian Standard Time dissemination facility at the Regional Reference Standards Laboratory in Bengaluru, under the Ministry of Consumer Affairs, Food and Public Distribution.

The project forms part of the ambitious One Nation, One Time vision, aimed at creating a uniform, ultra‑precise and secure national time standard across India.

The National Physical Laboratory (NPL), ISRO, BSNL and SEBI joined hands with the Legal Metrology Division under the Ministry of Consumer Affairs to develop this indigenous system in Bengaluru that operates on Coordinated Universal Time protocols, maintaining international quality standards and ensuring India’s internal security.

What is the White Rabbit Network?

The name “White Rabbit” was chosen by its inventors as a reference to the White Rabbit character in Alice’s Adventures in Wonderland, symbolizing the idea of leading explorers into a new world of precision timing — much like Alice was led into Wonderland. 

• White Rabbit technology: A Precision Time Protocol (PTP)-based system that ensures sub-nanosecond accuracy in time synchronization.
• Tamper-resistant IST signal: Distributed from the Regional Reference Standard Laboratory (RRSL), Bengaluru, traceable to UTC (NPLI) — India’s official time authority.
• Joint project: Department of Consumer Affairs, CSIR-NPL, and ISRO, with support from SEBI, NSE, and BSNL.

White Rabbit technology originated at CERN in 2008 as an open‑source precision timing system, designed to deliver sub‑nanosecond synchronization for particle accelerators and later expanded into diverse fields like metrology, finance, and telecommunications.

Countries currently using White Rabbit technology include Switzerland, Germany, Italy, Norway, Sweden, Finland, China, the United States, and now the India.

Key Technologies

• Synchronous Ethernet (SyncE) → Provides syntonization (frequency alignment).
• IEEE 1588 PTP → Communicates time with precise hardware timestamps.
• Phase frequency detectors → Measure phase differences between master and local clocks.
• Hybrid open‑source hardware → Combines middleware and embedded software, enabling flexible integration across industries.

Why It Matters

Banking & stock markets → Prevents microsecond-level discrepancies in trades.

Eliminates dependence on foreign GPS timing, securing India’s financial backbone.

Sub‑nanosecond timestamps prevent mismatches in UPI, NEFT, RTGS, and card payments. For fraud detection, Uniform IST signals strengthen monitoring of suspicious activities across banks. Moreover, RBI and SEBI gain stronger oversight with standardized timestamps.

The launch of India’s White Rabbit IST network is expected to strengthen stock market operations by ensuring ultra‑precise, tamper‑resistant time synchronization, reducing risks in high‑frequency trading, settlement mismatches, and cybersecurity vulnerabilities.

Telecommunications → Ensures seamless call/data synchronization.

The White Rabbit IST network will have a transformative impact on India’s telecommunications sector by delivering ultra‑precise, tamper‑resistant time synchronization across networks.

Reduces vulnerability to GPS spoofing/jamming, protecting telecom infrastructure.

Power grids → Improves reliability of load balancing.

The White Rabbit tech will ensure Grid Stability with precise timing which will ensure accurate load balancing and frequency control, reducing blackouts.

The White Rabbit IST network will significantly enhance India’s power grid operations by delivering ultra‑precise, tamper‑resistant time synchronization across transmission and distribution systems.

Uniform IST timestamps improve coordination between state and national grids ensuring cross‑regional transmission. It will also protect against GPS spoofing/jamming that could disrupt grid operations.

Transportation → Enhances safety in rail/air systems.

The White Rabbit IST network will reshape India’s transportation systems by providing ultra‑precise, tamper‑resistant time synchronization across railways, aviation, and road logistics.

For Railways, accurate timestamps improve train scheduling, reduce collisions, and enhance safety. For Airways, it Synchronizesy air traffic control, navigation, and communication systems for safer skies.

Digital governance → Strengthens cybersecurity and consumer protection.

Tamper‑resistant IST signals reduce risks of GPS spoofing and cyberattacks on government systems. For e‑governance platforms, uniform timestamps ensure consistency across Aadhaar, DigiLocker, and other citizen services.

The White Rabbit Technology will also boost regulatory compliances, enabling stronger monitoring and auditing of digital transactions across ministries. And, for digital payments, precise synchronization boosts reliability of UPI, RTGS, and NEFT transactions.

Strategic Importance

• Reduces dependence on GPS: India’s systems currently rely heavily on foreign satellite timing.
• Supports “One Nation, One Time” initiative: A unified national time source for all digital systems.
• Part of “Viksit Bharat” vision: Push for technological self-reliance in critical infrastructure.
• Verification success: Secure time transmission tested between Bengaluru lab and NSE Chennai facility.

Quick Comparison: Foreign vs Indigenous Timing

Aspect	Foreign GPS Timing	White Rabbit IST Network
Source	US-controlled GPS satellites	India’s CSIR-NPL & ISRO
Accuracy	Microsecond-level	Sub-nanosecond precision
Security	Vulnerable to spoofing/jamming	Tamper-resistant, indigenous
Dependence	External, geopolitical risk	Self-reliant, national control
Applications	Telecom, finance, navigation	Finance, telecom, power, governance

What’s Next

• Expansion beyond Bengaluru to nationwide coverage.
• Integration with stock exchanges, telecom operators, and power utilities.
• Potential role in future 6G networks and digital governance frameworks.
  

Odisha & Kolkata Scientists Win $3M Breakthrough Prize, by CERN, Dubbed as 'Oscars of Science'

Eight scientists from leading research institutions in Odisha—NISER, IIT Bhubaneswar, the Institute of Physics, and IISER Berhampur—have been honored with the 2025 Breakthrough Prize in Fundamental Physics, awarded by CERN.

Additionally, five scientists from Kolkata’s Bose Institute have also been recognized for their contributions to the ALICE experiment at CERN.

The Breakthrough Prize is one of the most prestigious awards in science, often called the "Oscars of Science". It recognizes groundbreaking discoveries in Fundamental Physics, Life Sciences, and Mathematics, celebrating researchers who push the boundaries of human knowledge.

The $3 million prize recognizes the contributions of thousands of researchers from over 70 countries who worked on four major experimental collaborations at CERN’s Large Hadron Collider (LHC) —ATLAS, CMS, ALICE, and LHCb.

Among the awardees from Odisha are Bedangadas Mohanty, Ranbir Singh, Sanjay Swain, Prolay Mal (NISER Bhubaneswar), Seema Bahinipati (IIT Bhubaneswar), Aruna Kumar Nayak, Pradip Kumar Sahu (Institute of Physics, Bhubaneswar), and Natasha Sharma (IISER Berhampur).

The Stars of Science at the 2025 Breakthrough Prize Ceremony

The prize acknowledges groundbreaking research in particle physics, including studies on the Higgs boson, matter-antimatter asymmetry, and rare particle interactions. The award money will be used to support doctoral students, allowing them to conduct research at CERN and bring back expertise to their home institutions.

This recognition highlights India’s growing role in high-energy physics and inspires young scientists to pursue careers in fundamental research.

 

CERN, the European Organization for Nuclear Research, which is directly connected to the Breakthrough Prize in Fundamental Physics award, recognizes groundbreaking research conducted at CERN’s Large Hadron Collider (LHC).

CERN is the world’s largest particle physics laboratory, and its experiments push the boundaries of fundamental physics, making it a key player in scientific advancements. These experiments have contributed to major discoveries, including studies on the Higgs boson, matter-antimatter asymmetry, and rare particle interactions.

Scientists from Odisha and Kolkata were part of these collaborations, earning recognition for their contributions.

The 2025 Breakthrough Prize was awarded to thousands of researchers involved in four major Large Hadron Collider (LHC) experiments—ATLAS, CMS, ALICE, and LHCb.

The Breakthrough Prize is awarded by the Breakthrough Prize Foundation, which was founded by Sergey Brin, Priscilla Chan & Mark Zuckerberg, Yuri & Julia Milner, and Anne Wojcicki.

The winners are selected by committees of previous laureates, and the awards are funded by the personal foundations of the founders. The prize recognizes outstanding contributions in Fundamental Physics, Life Sciences, and Mathematics.

Particle Physics Lab CERN to Build Massive 100 Km Super-Collider worth €21 Billion

CERN, a European research organization that operates the largest particle physics laboratory in the world, has decided to build a 100-kilometre circular super-collider to uncover the Higgs boson’s secrets.

On on 19 June, the CERN Council unanimously endorsed and approved an update to the European Strategy for Particle Physics that recommends further work on a huge 100 km collider - dubbed the Future Circular Collider (FCC), which would be built in an underground tunnel near CERN’s location in Geneva, Switzerland. It is to be noted however that the approval is not yet a final go-ahead.t2

A schematic map showing where the Future Circular Collider tunnel is proposed to be located (Image: CERN)

In particle physics, colliders are used as a research tool, as they accelerate particles to very high speed (kinetic energies) and let them collide with other particles. with this, physicistsacross the globe hope that it will help answer some of the fundamental open questions in physics, which concern the basic laws governing the interactions and forces among the elementary objects, the deep structure of space and time, and in particular the interrelation between quantum mechanics and general relativity.

The new collider, FCC, is expected to cost at least €21 billion (US$23.4 billion) and would be a follow-up to the lab’s much famous Large Hadron Collider, which is the world's largest and most powerful particle accelerator, first started up in September 2008.

The goal of the FCC is to greatly push the energy and intensity frontiers of particle colliders, with the aim of reaching collision energies of 100 TeV, in the search for new physics.

The FCC Study, hosted by CERN, is an international collaboration of more than 150 universities, research institutes and industrial partners from all over the world.

The new machine would collide electrons with their antimatter partners, positrons, by the middle of the century. The design will enable physicists to study the properties of the Higgs boson and, later, to host an even more powerful machine that will collide protons and last well into the second half of the century.

As per the European Strategy for Particle Physics Update, the approved document strategize the FCC into two stages of development --

1) CERN would build an electron-positron collider with collision energies tuned to maximize the production of Higgs bosons and understand their properties in detail.

2) Later in the century, the first machine would be dismantled and replaced by a proton-proton smasher. That would reach collision energies of 100 teraelectronvolts (TeV), compared with the 16 TeV of the LHC, which also collides protons and is currently the most powerful accelerator in the world.

The goal would be to search for new particles or forces of nature and to extend or replace the current standard model of particle physics. Much of the technology that the final machine will require has yet to be developed, and will be the subject of intensive study in coming decades.

Via ~ Nature.com