TPG Telecom and UTS logos for the TPG-UTS Network Sensing Lab

The TPG-UTS Network Sensing Lab is a partnership between TPG Telecom and the UTS Global Big Data Technology Centre, with support from the NSW Government State Emergency Services.

What is the TPG-UTS Network Sensing Lab?

The TPG-UTS Network sensing lab is the home of world-leading, cutting-edge flood sensing technology. This lab was established in 2024, as a partnership between UTS and TPG Telecom, with the aim to revolutionise the way the world responds to increasingly volatile flood and storm events.

Currently, flood and storms cost Australia billions of dollars a year economically, with unmeasurable cost to human lives, physical disruptions and emotional distress. The 2022 major floods alone racked up about $3.35 billion in insured losses, with 32 lives lost. Current flood prediction takes hours to generate broad area warnings and can be inaccurate—due to the reliance on limited river and rain gauges. 

The TPG UTS Network Sensing lab is working to change this. By improving flood monitoring and prediction, emergency services can improve the responsiveness of evacuation alerts—saving lives. 

Network Sensing Lab team working with technical equipment on a wharf

How can real-time awareness and early action make the difference between safety and catastrophe?

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UTS has partnered with TPG Telecom and the NSW State Emergency Service to transform mobile networks into integrated sensor and communication networks with a focus on detecting floods and storms.

How can real-time awareness and early action make the difference between safety and catastrophe? transcript

The sub catchment that we are part of had a truly massive flood here. It was monumental in scale. A lot of people nearly died around me.

The rainfall that we had here was off the scale in terms of its intensity. When we're looking at rainfall of that intensity, it becomes a landscape collapse event. The landscape, the hills, the soil cannot hold together when a meter of rain falls on it.

I can just count on the number of my hand, the number of farmers around here who lost their entire herds. Their cattle were swept downstream. Their tractors, all of their farm equipment, like these, are all things that could be saved if those people knew a flood of really huge dimensions was heading for them.

Today, we are witnessing the world's first in-field demonstration of a water sensing using the mobile phone networks.

The mobile phone signals affected by the environment. When the environment changes like a you have a rainfall or water level change on the ground, the mobile phone signal will change. By harvesting the information, in the change of these water signals you can get the information, the intelligence about water movement like a flooding.

It's a game changer as far as the SES is concerned in terms of being able to sense rainfall and floods.

We have seen flash flooding and flooding and the impacts and consequences for communities here in New South Wales. We've seen it across Australia and we've seen it across the world.

This technology will make a real big difference and save lives.

Flooding is not a local problem.It's a global problem.

With the new tool, new technology, the whole world will have a better tool to manage flooding risks, therefore enhancing our resilience against climate change.


What is 5G Network Sensing?

The term network sensing refers to the use of existing mobile network infrastructure and signals that are used for mobile phone communication and data transfer to other uses in sensing the world around us. Although the term 5G is used in the description, the technology isn’t exclusive to 5G mobile frequency bands but also can be used with 3G, 4G, LTE and future 6G. The use of mobile signals in this way is also referred to Integrated Sensing and Communications (ISAC). 

Integrated Sensing and Communications (ISAC)

ISAC refers to the use of radio signals to sense or detect various objects within the surrounding environment. Radio signals are used in all wireless communication including Wi-Fi, Bluetooth, cellular, radio and television broadcast and satellite communications. 

All radio signals are directly affected by the presence of objects, surfaces and atmospheric conditions. Changes in the environment cause changes to radio signals, which we can detect and interpret through signal processing.

Signal processing is a specialised field of research which analyses and interprets radio signal changes for different purposes. Well-known applications of signal processing include the Dolby Audio and Dolby Atmos systems which are used for sound enhancement, and noise cancellation which is used to remove unwanted background sounds such as in noise-cancelling headphones.

The radio signals monitored during ISAC have three key characteristics and seven additional properties which all comprise their unique signatures. The combination of these signal characteristics are fitted into a series of signal processing models, which interpret these key fingerprints via statistical fitting and machine learning into observations of rainfall rate and water level. 

Signal processing
An illustrated representation of the complexity of signal processing, showing how each feature of a radio signal changes with environmental impact

The use of ISAC can expand the use of mobile networks beyond just that of communication and has been utilised for applications such as uncrewed aerial vehicles (UAVs), automated guided vehicles (UGV) and autonomous mobile robots (AMRs). In the case of the TPG-UTS Network Sensing lab, ISAC is utilised for what is referred to as “immersive sensing”; that is, sensing of the environment around us; measuring location of rain, rainfall rates and water levels in nearby rivers and lakes. This data can be used to create a “digital twin”—in this case, a model of waterways and rivers and their interactions with rainfall. This model, in turn, can be used to provide a rapid prediction of river heights and possible flooding locations over time based on current measurements through the mobile phone network.


World-leading expertise in Integrated Sensing and Communications

UTS researchers pioneering Integrated Sensing and Communication Technology for nearly a decade

Since 2016 Dist. Professor Jay Guo, Founding Director of the UTS Big Data Technologies Centre, has been leading a team of researchers who have been pioneering ISAC technology for radar applications, as well as rainfall and water level sensing. 

They have published numerous scientific articles on the subject, including the world’s first book on Joint Communications and Sensing (also known as Integrated Sensing and Communications, or ISAC).

This book, titled “Joint Communications and Sensing: From Fundamentals to Advanced Techniques” introduces JCAS technologies (also referred to as ISAC) and is the first book to comprehensively cover the subject. The book covers basic JCAS concepts and applications, the signal processing used, and how the sensing can be integrated into communications networks (such as 5G and 6G) and also in various radar sensing platforms and technologies.

In 2023, the team secured a $4.9M grant via NSW Government’s Digital Restart Fund months to work with the NSW State Emergency Service to develop their cutting edge ISAC technologies for flood and storm sensing. 

Over the 18-month period of their collaboration with the NSW SES and TPG Telecom, the team further developed their technology and proved through a series of field trials that 5G Network sensing can be utilised to deliver unprecedented accuracy for flood monitoring and prediction anywhere in the world. This culminated in a world-first live demonstration of the Technology on 16 June 2025.

Cover of Joint Communication and Sensing
Photo

Learn more about the Network Sensing Lab

Smart Flood and Storm Intelligence

A pivotal project demonstrating world first real-time results and high accuracy in the field

TPG Telecom partners

It’s easy to find researchers, but it’s difficult to find researchers who can translate results into practical real-world impacts

Establishing the TPG-UTS Network Sensing Lab

Pioneering network sensing for real-time flood intelligence.

NSW Government media release

NSW Government unveils innovative flood and storm intelligence project.

Flood and storm Intelligence sensing

New data to help our emergency storm and flood response, and better protect people and properties.

Meet the leadership team

Distinguished Professor Jay Guo

Director

UTS Global Big Data Technologies Centre

Jeff Owen

Co-Director

TPG Telecom

Professor Andrew Zhang

Technical Director

UTS School of Electrical and Data Engineering

Des Ward

Technical Co-Director

TPG Telecom

Grants and awards

Our groundbreaking technology has been recognised by the NSW and Federal government through targeted grants: 

Year Title Amount
2023 Smart Flood and Storm Intelligence Project $4.9M
2024 Telecommunications Disaster Resilience Innovation Grant $1.2M
2025 Australian Research Council Industry Early Career Fellowship $680k (total)

Frequently asked questions

Contact us

We’re located at CB11.08.118, 81 Broadway, Ultimo NSW. Get in touch with us at tpgnetworksensinglab@uts.edu.au to find out more about the work we do and how to partner with us.