Mission-critical innovations such as remote surgery, autonomous vehicles and Industry 4.0 will require an exceptionally high quality of service from ultra-reliable, low-latency communications networks.
How to design, deploy, and configure robust networks, beyond the ‘five 9s’
How to provision networks so they provide ultra-low, deterministic latency towards the milli-second range, possibly even lower
The use of data analytics to properly design, monitor and tune the performance of dependable networks
Networks that can efficiently scale to accommodate increasing numbers of devices and data traffic.
Sustainable IoT integrates energy-autonomous devices, efficient networking, low-power platforms, and resilient security to provide eco-friendly solutions ensuring functionality, flexibility, and protection at the network edge.
Energy harvesting and storage, with power-management algorithms to allow the device to be completely energy autonomous for its entire lifetime
Efficient protocols and networking principles for connecting devices at the edge to the network
Highly reconfigurable software-defined devices based on low-power platforms, which can be reused for new use cases by changing, for example, communication protocols and sensing algorithms.
Resilient security mechanisms beyond classical cryptography to address future threats
5G and beyond networks will require multi-Gbps wired and wireless data transmission. In addition to increased capacity, ultra-reliable low latency links will be required.
New RF circuitry, new waveforms and significant improvements in the design of power amplifiers to increase the wireless link capacity at three orders of magnitude.
Building a converged photonic networking platform that can seamlessly bridge the wireless and the wireline links.
Use of advanced signal processing algorithms and modulation schemes for multiple-antenna systems, addressing error correction codes for short packets to support ultra-reliable, ultra-low latency communication links.
THz communication and the design challenges for building RF systems.
Biological nano-communication models that can be deployed within the human body, e.g., to support medical applications.
The shared network is the essential platform to build affordable customised networks where resources can be sliced and stitched together to provide an end-to-end network substrate with an allocation and configuration of resources to suit niche operators.
Virtualisation and dynamic resource sharing, as well as resource characterisation, provisioning, and isolation
Isolating each network slice, with embedded trust and security mechanisms, so that each tenant only sees and monitors the resources and the performance of that slice of the network
Stitching together the resources and various segments of a shared network to provide a complete end-to-end network service
Monitoring resources and the performance of individual network slices but also the composite
Telecommunication networks and the research that produces them exist within, and as part of, larger social and environmental networks. Network Ecologies brings research from broad disciplinary contexts into networks research.
Finding ways to understand the complex interactions of emerging technologies with the contexts in which they are deployed
Looking at how different forms of knowledge and context shape the outcomes of our research process.
Investigating policies, tools and frameworks that can help direct innovation towards wider forms of social and environmental benefit.
Identify strategies from art practice and social sciences that can contribute to greater understanding of networks.
Smart cities leverage technology to enhance residents’ quality of life. Our Connect Centre research explores urban dynamics and offers innovative solutions to drive sustainability, inclusivity, and advancement.
We delve into the integration of cutting-edge technologies such as IoT, AI, and data analytics within the urban fabric. Our aim is to uncover how these technologies can be seamlessly woven into the urban environment to improve efficiency, sustainability, and citizen well-being.
Smart cities are built for people, and we prioritize citizen-centric research. Our work revolves around understanding the needs, aspirations, and concerns of urban residents. We investigate how technology can empower citizens and ensure their active participation in shaping their urban futures.
Sustainability is at the core of smart cities. We explore sustainable practices in transportation, energy, waste management, and urban planning. Our research seeks to create blueprints for environmentally responsible urban development that can be replicated in cities worldwide.
Data is the lifeblood of smart cities. We investigate data collection, analysis, and utilisation strategies to inform urban decision-making. Our goal is to enhance city governance through data-driven insights, promoting transparency and efficiency.
Quantum and satellite communications enable secure, high-speed data transmission. The Connect Centre advances these frontiers, revolutionising global information exchange with quantum and satellite technologies.
We are at the forefront of quantum communication research, exploring the potential of quantum key distribution, quantum teleportation, and quantum entanglement for ultra-secure and efficient data transmission. Our work aims to harness the power of quantum mechanics for secure information exchange.
Satellite communication is a cornerstone of global connectivity. Our research explores satellite constellations, low Earth orbit (LEO) satellites, and next-generation satellite technologies to enhance global coverage, bandwidth, and reliability.
Security is paramount in modern communication. We focus on developing encryption techniques and protocols that are quantum-resistant, ensuring the confidentiality and integrity of data exchanged over quantum and satellite communication networks.
Beyond traditional communication, we investigate how satellite networks can support a range of data applications, including Earth observation, disaster management, and remote sensing. Our research explores the potential societal and environmental benefits of satellite data.
In the realm of cybersecurity, our research theme centers on the pivotal concept of trust within network connectivity. We understand that establishing and maintaining trust is essential in an interconnected digital world.
We embrace the Zero Trust approach, recognizing that trust should not be assumed, even within network boundaries. Our research focuses on strategies and technologies that verify and authenticate every user and device, regardless of their location, to prevent unauthorized access and protect critical data.
Our primary mission is to develop advanced security measures that safeguard digital networks from a wide range of threats. We explore innovative strategies to secure data in transit and at rest, ensuring the confidentiality and integrity of network communication.
We work to enhance network resilience, enabling connectivity to persist even in the face of disruptions caused by natural disasters or cyberattacks. Our research aims to develop robust protocols and technologies that ensure uninterrupted network services.
Recognizing the proliferation of Internet of Things (IoT) devices and their increasing integration into our daily lives, we investigate strategies to secure these interconnected devices within networks. Our research focuses on IoT security measures that protect both individual privacy and the overall integrity of the network.
Connected Autonomous Vehicles leverage advanced communication systems to ensure seamless coordination, real-time data exchange, and safety, driving innovations in mobility for smarter and sustainable transportation solutions.