Nanoelectronics and Nanophotonics Lab
We are interested in all aspects of nanoelectronic and nanophotonic materials and devices, with a particular interest in resistance switching for non-volatile memories (RRAM) and other applications
We have a wide range of other research interests, which you can find out more about by looking at our research pages, and we collaborate widely with many other universities and industry worldwide. Please have a look at our webpage, and if you have any questions feel free to contact us. We are always open to new collaborations.
Research
Neuromorphic devices
Silicon oxide-based devices that mimic synaptic and neuronal behaviour
Oxygen dynamics in oxides
Electric field-driven changes in oxides; mechanisms of dielectric breakdown and resistance switching
Nanofabrication
Techniques to fabricate structures at the nanometre scale for electronic, photonic and other applications: MEMS, hydrophobic surfaces, photonic structures and more
Electrospinning and electrospraying nanometre-scale structures
Nanoscale fibres and porous nanospheres by electrospinning and electrospraying
Silicon photonics
Overcoming some of the limitations of microelectronics by integrating photonics with silicon CMOS electronics; light emission from silicon
Resistive RAM (RRAM)
Resistance switching in silicon oxide; non-volatile memory devices; post-Flash memory devices
Quantum effects in RRAM
Quantisation of conductance in resistance switching devices
Tomography at the nanoscale using conductive AFM
Imaging internal structures in 3D using CAFM tomography
2D materials
Stability studies of 2D materials; novel electronic devices
People
Prof Tony Kenyon
Head of group
Dr Adnan Mehonic
RAEng Research Fellow
Dr Wing Ng
Research Associate
Mark Buckwell
PhD student
Luca Montesi
PhD student
Mark Wentink
PhD student
Mohamed Ibrahim
PhD student
Konstantin Zarudnyi
PhD student
Alumni
- Dr Manveer Singh Munde
- Dr Salman Malik
- Dr Hazel Kitching
- Dr Daniele Diamare
- Dr Miraj Shah
- Dr Matthew Shiers
- Dr Maciej Wojdak
- Dr Ijaz Ahmed
- Dr Dan Konopinski
- Dr Harith Saleh
- Dr Ben Jones
- Dr Paul French
- Dr Amedeo Pagliarani
- Dr Sylvia Bergamini
- Dr Haito Ye
- Dr Costas Chryssou
Visitors
- Professor Enrique Miranda
- Dr Edward Steinman
Latest news
Superhydrophobic nanostructures research published in Scientific Reports
We demonstrated controlling the wetting properties of semiconductor surfaces using re-entrant nanostructures alone, without applying additional chemical coatings. Our large area nanostructures were fabricated using single shot electron beam lithography technique. doi:10.1038/s41598-018-21864-2
Spin-on oxide RRAM paper accepted for publication
Our latest research on high performance nano RRAM devices using spin-on oxide (HSQ) has been accepted for publication in IEEE Transactions on Nanotechnology. Our HSQ-based devices exhibit excellent performance - less than 1V switching voltage and over 10 million switching cycles without failure.
New Microelectronic Engineering paper
Our new Microelectronic Engineering paper reports outstanding results from our newest SiOx devices, with >10,000,000 cycles, excellent uniformity and very low switching voltages.
RAEng Fellowship success
Adnan Mehonic has been awarded a highly prestigious Royal Academy of Engineering 5-year Reseach Fellowship. One of only 7 awarded in the UK this year.
Tony in the media
Tony Kenyon was interviewed for BBC Radio 4’s “In their Element” about the use of silicon in microelectronics, and about our RRAM technology. See Radio 4 online for the 24th May episode.
New Research grant
We have been awarded a £734k research grant from EPSRC to study resistance switching devices and dielectric breakdown in oxides.
Cover image in Advanced Materials
Our recent work on oxygen dynamics in amorphous silicon-rich silicon oxide, published in Advanced Materials, was featured on the journal cover.
New Research grant
We have been awarded a £348k research grant from The Leverhulme Trust to study oxygen dynamics in amorphous oxides under electrical stress.
Contact
Email: t.kenyon@ucl.ac.uk
Tel: +44 (0)207 679 3270