• Skip to main content
  • Skip to secondary menu
  • Skip to footer

Technologies.org

Technology Trends: Follow the Money

  • Technology Events 2026-2027
  • Sponsored Post
  • Technology Markets
  • About
    • GDPR
  • Contact

Thales Will Digitize Deutsche Bahn Stuttgart Signalling System to Substantially Improve Capacity, Punctuality and Comfort

February 16, 2021 By admin Leave a Comment

The project, based on leading-edge technologies, sets standards for digitizing railways in Germany and Europe

This high tech signalling will offer better punctuality and enabling more trains to travel without having to build a single meter of additional tracks. The contract represents a value of approximately 127 million euros

As a part of the initial “Digital railways Germany” package, Deutsche Bahn is equipping the Stuttgart region with a digital signalling system (DSTW*), the European Train Control System (ETCS*) and Automatic Train Operations (ATO*) with driver. The tender covering the implementation of modules 1 and 2 of the “Digital node Stuttgart” project until the end of 2025 was won by Thales at the end of November 2020. The contract with a value of approximately 127 million euros covers the installation of the digital signalling system, the installation of ETCS, preliminary work for the implementation of the track-side automatic operations and the Capacity & Traffic Management System (CTMS*), a modern technology and operating site, in excess of 6,000 electronic kilometre markers (balises), more than 1,300 axle counting points and approximately 650 point machines.

This project “Digital node Stuttgart” lead by Thales is part of the “Digital railways Germany” program, which will add up to 20% extra capacity to the rail network.

It includes an important innovation partnership for Thales Germany with the customer, Deutsche Bahn, concerning the development and co-design of new, leading-edge technologies for the roll-out of the “Digital Railways Germany” initiative.

“The first digital node in Germany is going to be the reference point for other metropolitan regions throughout Europe for years to come. Together with Deutsche Bahn AG, DB Netz AG, DB Projekt Stuttgart-Ulm GmbH and all project participants we are pleased to help design the blueprint for future digitizing projects”, explained Oliver Dörre, Chief Executive Officer and Country Director Thales Deutschland. “We meet all the conditions to successfully implement this large project. We are very familiar with the node Stuttgart from earlier projects and now look forward to actively cooperating with our customer at the highest level of technology in the improvement of the offering for rail passengers”, Dörre continued. “Our employees are, of course, highly motivated by this project and proud to be able to contribute to “their” station.”

From 2025, the trains of the long distance, regional and S-Bahn traffic in the node Stuttgart will travel on a network equipped with the latest digital technology. In addition to the new main station and other stations, tracks with a scope of more than 100 kilometers are the first to be equipped with digital signalling technology, the train control system ETCS and highly automated operations. Stuttgart is thus the origin and blueprint of digitizing the entire German rail network, scheduled to be completed almost in its entirety by 2035.

For the development of the S-Bahn, the “Digital node Stuttgart” project is also an important step into the future. On the main S-Bahn route, Germany’s most modern signalling system will in future control the shortest ever implemented block sections of only 30 meters in length. S-Bahn trains will therefore travel in closer succession than anywhere in Germany so far. This not only reduces and better eliminates delays but also allows many more trains to travel than today – safely and without having to build a single meter of additional tracks.

Note to the editors:

*Digital signalling systems

The basis for digitization is digital signalling systems (DSTW). Using encrypted data links, a highly secure computer system connects to peripheral elements, such as sensors or points. Like every modern signalling system, a DSTW ensures in particular that trains only enter empty track sections and points are closed in the correct position. Unlike the hitherto common electronic signalling systems (ESTW), the DSTW separates energy supply and data. Using glass fibres, almost any distances between the core of the signalling system and the peripheral elements can be implemented. In Stuttgart, a DSTW controlling more than 100 track kilometers is initially being created. This includes three of the 21 electronic signalling systems planned as part of Stuttgart 21 and other legacy signalling systems. Electronic or digital signalling systems are the basis for ETCS Level 2.

*European Train Control System (ETCS)

The European Train Control System (ETCS) is a success story. Designed during the 1990’s as a uniform “signalling system” for cross-border European traffic, it is now used worldwide. In the “Digital node Stuttgart“, it is initially used in its Level 2 form. The train and track continuously exchange data via an encrypted radio link. At yellow Eurobalises – a kind of electronic kilometer marker on the track – the trains determine their precise location at regular intervals. Using distance and speed sensors, including wheel revolution counters and radar, the vehicle continuously measures the path travelled and its speed. Together with the data transmitted by the track, including the clear track ahead of the train, the ETCS on-board computer continuously calculates e.g. the clear path ahead of the train and the permissible speed. Unlike conventional old signalling technology, where light points at signals transmit comparatively simple information about a maximum of two sections ahead of the train in a system comparable to a traffic light, the driver is given a much more precise and continuously updated picture with ETCS Level 2. Whereas with conventional control and safety technology such a section is typically at least one kilometer long, it can be reduced to any length with ETCS.

*Automatic Train Operation with driver (ATO GoA 2)

Automatic Train Operation (ATO) will in future be used in the Digital node Stuttgart with a Grade of Automation of 2 (GoA 2). The system works as a kind of remote-controlled cruise control, with the track telling the train when it should be at which location. The vehicle device controls the speed accordingly. In case of delays, the highest permissible speed is applied, and during operations on schedule, the speed that conserves most energy. At platforms, ATO permits a highly precise stop. The driver is on board, monitors the journey and can intervene at any time. Based on ETCS, ATO facilitates high precision journeys. This avoids delays and reduces the distance between two trains.

*Capacity and Traffic Management System (CTMS)

The Capacity and Traffic Management System (CTMS) is a central component of future rail operations and is intended to facilitate better utilisation of existing infrastructure through, for example, automatic acceleration and braking operations. This leads to increased capacity and better operating quality. With the current development, the CTMS is based on the latest algorithms in the fields of Artificial Intelligence (AI) and Operations Research (OR).

About Thales
Thales (Euronext Paris: HO) is a global high technology leader investing in digital and “deep tech” innovations –connectivity, big data, artificial intelligence, cybersecurity and quantum technology – to build a future we can all trust, which is vital to the development of our societies. The company provides solutions, services and products that help its customers –businesses, organisations and states – in the defence, aeronautics, space, transportation and digital identity and security markets to fulfil their critical missions, by placing humans at the heart of the decision-making process.

With 83,000 employees in 68 countries, Thales generated sales of €19 billion in 2019 (on a basis including Gemalto over 12 months).

Filed Under: Tech

Reader Interactions

Leave a Reply Cancel reply

Your email address will not be published. Required fields are marked *

Footer

Recent Posts

  • Manna’s Second Act: From Drone Novelty to Logistics Infrastructure
  • Britain Advances SMR Deployment with £300M Owner’s Engineer Contract
  • OpenAI Closes $122B Funding Round at $852B Valuation
  • Qodo’s $70M Series B Shows Where Enterprise AI Coding Is Really Headed
  • Agentic Compliance: When Governance Finally Catches Up With AI
  • IQM’s BlackRock-Backed Financing Signals a More Serious European Quantum Push
  • Starcloud Raises $170M to Build Data Centers in Space
  • Sycamore Raises $65M to Build the Operating System for Autonomous Enterprise AI
  • The Open Bridge: Why Vector Databases Need the Model Context Protocol
  • Mitsubishi Electric Bets on Sakana AI to Turn Industrial Complexity into Competitive Advantage

Media Partners

  • Market Analysis
  • Cybersecurity Market
Raspberry Pi’s Earnings Beat Signals a Shift From Hobbyist Hardware to Embedded Infrastructure
Betting the Backbone: A Multi-Year Positioning on AMD, Broadcom, and Nvidia
Nvidia’s Groq 3 LPX: The $20B Bet That Could Define the Inference Era
Why Arm’s New AI Chip Changes the Rules of the Game
A Map Without Hormuz: Rewiring Global Oil Flows Through Fragmented Corridors
RoboForce’s $52 Million Raise Signals That Physical AI Is Moving From Demo Stage to Industrial Scale
The Hormuz Crisis: Winners and Losers in the Global Energy Shock
Zohran Mamdani’s Politics of Confiscation
Beyond Shipyards: Stephen Carmel’s Maritime Warning and the Hard Reality of Rebuilding an Oceanic System
Memory Crunch: Why Prices Are Surging and Why Making More Memory Isn’t Easy
Ashdod Port Has Blocked 134,000 Cyberattacks—and Kept Israel’s Trade Moving
Black Hat Asia 2026, April 23–24, Singapore
World Backup Day 2026: Why Recovery Has Become the Real Test of Cyber Resilience
Cyberhaven Launches Agentic AI Security as Shadow Agents Move Onto the Enterprise Endpoint
Palo Alto Networks Rewrites Security for the Agentic AI Era
RSAC Conference 2026, March 23–26, San Francisco
AI-Speed Warfare Comes to Cybersecurity: Booz Allen’s Vellox Suite Signals a Structural Shift
Cape Rebuilds the Mobile Carrier from Scratch, Raises $100M to Turn Privacy into Infrastructure
Semgrep Pushes Deeper Into AI-Native AppSec
Cloaked Bets Big on AI-Driven Privacy as $375 Million Raise Signals a Shift in Digital Power

Media Partners

  • Market Research Media
  • Technology Conferences
Netflix Price Hikes, The Economics of Dominance in a Saturated Streaming Market
America’s Brands Keep Winning Even as America Itself Slips
Kioxia’s Storage Gambit: Flash Steps Into the AI Memory Hierarchy
Mamdani Strangling New York
The Rise of Faceless Creators: Picsart Launches Persona and Storyline for AI Character-Driven Content
Apple TV Arrives on The Roku Channel, Expanding the Streaming Platform Wars
Why Attraction-Grabbing Stations Win at Tech Events
Why Nvidia Let Go of Arm, and Why It Matters Now
When the Market Wants a Story, Not Numbers: Rethinking AMD’s Q4 Selloff
BBC and the Gaza War: How Disproportionate Attention Reshapes Reality
JSNation 2026, June 11 & June 15, Amsterdam and Remote
ICMC 2026, July 30–31, Long Beach
Elevate 2026, April 22–24, 2026, Atlanta
WWDC 2026, June 8–12, Cupertino & Online
Zip Forward Europe 2026, April 16, 2026, London
AI Summit: Operationalizing Intelligence and Driving Innovation, April 16, 2026, Woburn, Massachusetts
GTC 2026, March 16–19, San Jose
Taiwan’s AI Ecosystem Steps Into the Spotlight at NVIDIA GTC, March 16–19, 2026
COMPUTEX 2026, June 2–5, Taipei
360° Mobility Mega Shows 2026, April 14–17, Taipei

Copyright © 2022 Technologies.org

Media Partners: Market Analysis & Market Research and Exclusive Domains, Photography