Metamaterials for Information and Communications Technology (ICT) Management of signals and digital data: From processing, modulation, and transmission to absorption and storage
Our research expertise in acoustics, photonics, RF and microwaves drives applications in areas such as antennas, signature control, sensing, beam steering, frequency selective wallpaper, electronic tagging, energy harvesting, absorbers, noise control, acoustic wave forming and imaging.
Examples of relevant studies include
- 2D metasurfaces and 3D metamaterials for electromagnetics (IR, visible, microwave) and acoustics, involving tunability and reconfigurability for some applications:
- to control energy or data propagation;
- to enhance the performance of detectors and antennas;
- to control field distribution and beam steering;
- for filtering and absorption;
- for imaging
- single-photon source development to generate, manipulate and measure light as the underpinning element of modern communication;
- magnetic and elastic waves generated in magnetic materials using designed electromagnetic and bias field transducers for signal transmission, storage and processing;
- spin waves (or magnons) offering the technology to carry and process both analog signals and digital data at low power, with magnetic reconfigurability and scalability to nanometre dimensions;
- development of RFID tags and gate systems, using electromagnetic and acousto-magnetic designs;
- novel acoustic sources, e.g. thermally generated sound;
- the coupling of sound to mechanical vibrations and fluid flow, and vice versa for wake control, noise reduction and energy harvesting;
- phase change materials for photonic memory and processing;
- flexible and optically transparent graphene-based electronics and electronic textiles;
- the control of surface acoustic waves (SAW) for RF communications, sensing, and wireless communications;
- harvesting of energy from the environment to power IoT devices.
Prof Janet Anders: Quantum thermodynamics: nano-machines; data storage; computation and communication; diagnostic healthcare |
Prof Mustafa Aziz: Magnetic materials and transducers; magnetic materials; phase-change materials |
Prof Monica Craciun: Optoelectronic materials and devices; quantum phenomena; nanoelectronics |
Dr Jacopo Bertolotti: Wavefront shaping and imaging |
Prof Alastair Hibbins: RF and microwave metamaterials; acoustic metamaterials |
Dr David Horsell: Thermoacoustics; electrical conduction in nanostructures |
Dr Simon Horsley: Theory of electromagnetic and acoustic materials; absorption |
Prof Robert Hicken: Magnetic and spintronic materials |
Dr Ian Hooper: RF and microwave metamaterials |
Prof Volodymyr Kruglyak: Magnonics |
Dr Isaac Luxmoore: Quantum nanophotonics |
Prof Geoff Nash: Infrared sources; detectors and spectroscopy; surface acoustic wave devices |
Dr Ana Neves: Wearable technology; graphene; 2D materials |
Prof Dave Phillips: Imaging; complex photonics; optical tweezers |
Prof Roy Sambles: Electromagnetic and acoustic materials |
Prof David Wright: Integrated photonics and optoelectronics; phase-change materials |
Dr Dibin Zhu: Energy harvesting |
- A new software to identify metamaterials that could accelerate the future of 5G communication
- Communicating in a crowded electromagnetic environment – how metamaterials can give us more space
- EAS tags - Metamaterials can protect merchandise where standard security tags fail
- Metasurfaces making airborne communication antennas compact and lightweight
- Wearable electronics - From internet of things (IoT) to human-machine interfacing