The University of Southampton

Published: 8 January 2021
Illustration
Caption: ArchAI can automatically detect archaeology from earth observation data.

Innovative technologies developed by computer scientists at the University of Southampton will be unveiled in an online edition of the world’s largest and most influential technology show, CES 2021.

Postgraduate researchers Iris Kramer and Ryan Beal will demonstrate two AI-based startups based on cutting-edge Electronics and Computer Science (ECS) research across the four-day show, running from Monday 11th to Thursday 14th January.

ArchAI, founded by Iris Kramer in the Vision, Learning and Control Group, uses deep-learning software to automatically detect unknown archaeological sites.

Sentient Sports, co-founded by Ryan Beal in the Agents, Interaction and Complexity (AIC) Group, uses artificial intelligence to help sports managers build the best teams for the world’s top leagues.

The ECS entrepreneurs are among two of eight startups exhibiting at CES 2021 through Future Worlds, the on-campus startup accelerator at the University of Southampton.

CES usually takes place in Las Vegas and attracts over 170,000 visitors who flock to see the newest technology being showcased by the 4,000+ tech firms in attendance. 2021 sees the event go all-digital, taking the global reach of CES wider than ever before.

ArchAI uses technology developed during Iris’ PhD and previous degree in archaeology. She combines the two domains to deliver rapid results and improved outcomes for the construction industry by automatically detecting archaeological sites on Earth Observation data.

"By using our technology over conventional techniques, developers could save tens of thousands in costs, as well as months of time that would be spent surveying land pre-development," Iris says. "Going forward there are wide ranging environmental challenges globally that our world-first technology can address."

Sentient Sports, together with their partner AI Abacus, are working with decision makers at leading clubs across Europe to help aid with recruitment.

The startup's solution uses research-developed algorithms to boost football managers' decision-making and scouting process for buying and selling players, which promises to drive up footballing and financial results.

"Football, like other sports, has huge amounts of data associated with it," Ryan says. "Our algorithms can assess a number of qualities, including the suitability of a player to the style of a new team, to optimise the decision-making and scouting process when buying and selling players."

Future Worlds is returning to CES for a sixth consecutive year as the UK's only exhibiting university.

Current University of Southampton startups being exhibited at CES 2021 also include Absolar, an AI-powered software that simulates solar radiation to inform renewable energy decisions, Aquark Technologies, a revolutionary miniaturised cold atom chip for quantum hardware, and Inpulse, smart clothing to correct muscle imbalances and improve sports performance.

They will be joined by three University of Southampton startups previously supported by Future Worlds. Aura Vision, co-founded by former ECS postgraduate researchers Daniel Martinho-Corbishley and Jaime Lomeli, offers a revolutionary in-store analytics for offline retailers using existing security cameras. BOON, co-founded by Electronic Engineering graduates Dylan Grey and Mike Oakley, creates privacy-first personalised experiences for online retailers. Emitwise, founded by Acoustical Engineering graduate Mauro Cozzi, is helping speed up the carbon accounting and reporting process for environmentally-conscious companies.

Ben Clark, Future Worlds Director, says: "We are very excited as Southampton steps up as the only university representing the UK at CES for a sixth consecutive year. The startups we have selected to exhibit are inspirational future leaders in their field, destined to make a huge change in the world of AI and quantum.

"More startups than ever before are exhibiting with Future Worlds at this year's CES, reflecting the immeasurable vision, talent and determination to push through the pandemic to help create a more sustainable, connected and healthy world to come."

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Published: 4 January 2021
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Tom Moody collects his runner-up prize. Image credit: UKESF

Final year electronic engineering student Tom Moody has been announced as a runner-up in a national Radio Frequency Engineering and Communications Competition with an ambitious individual project at the University of Southampton.

Tom designed, simulated and fabricated four Frequency Reconfigurable Patch Antennas during his MEng Electronic Engineering project, which followed two summer internships with Meggitt Avionics.

Radio Frequency (RF) engineering creates high frequency systems and circuits, with a strong dependence on electromagnetic design and simulation.

The UK Electronics Skills Foundation (UKESF) 2020 RF Engineering and Communications Competition, run in partnership with the Radio Communications Foundation (RCF) and with support from Leonardo, highlights the achievements of major individual projects in the field from partner universities.

"I love working and studying in RF and am thrilled my work has been recognised by the UKESF and RCF,” Tom says. “RF design is very important to modern electronics with the latest developments catering for the reduction in component cost and size required for the ever-increasing frequency of communications systems, such as with millimetre wave 5G.

"RF engineering also plays a key role in sensing systems, such as the development of compact scanning RADAR units for the automotive industry. This technology was until recently confined to specialist applications, such as defence, but is now making its way into family cars thanks to the latest fast and exciting developments."

Tom's third-year project developed antennas that can be electronically reconfigured to tune to different frequencies.

Many modern smart devices utilise multiple communication bands for different communication protocols, either requiring several individual antennas designed for each band, or a wideband or multiband antenna design.

Tom’s alternative, electronically-tuneable antenna can be adaptively tuned to the active frequency band while maintaining the high selectivity characteristic of narrowband antennas, potentially lowering cost and space requirements.

The prizewinning project produced four antenna designs on a common FR-4 printed circuit substrate.

Tom has spent two placements at Meggitt Avionics during his degree through a UKESF scholarship. The industrial scholarships, which were awarded to a record-breaking number of Southampton students this spring, offer invaluable industry experience alongside an annual bursary and a place on a residential UKESF Scholar Workshop. In return, scholars carry out electronics outreach work each year, such as by giving a talk at a local school.

"I have worked on various tasks over my placements, such as the development of automated EMC pre-compliance testing and the development of gamma calibration software for avionics display screens," Tom says. "I would strongly recommend the UKESF Scholarship scheme to Southampton undergraduates due to the wide-spanning benefits and the work experience."

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Email:
jb3006@soton.ac.uk

 PhD, BSc

Research Fellow ECS

Jonathan is a research fellow in the School of Electronics and Computer Science, with cross-disciplinary expertise (BSc Biomedical Science, PhD Optoelectronics). His work is focused on using integrated optical technology and microfluidics for biomedical applications most notably microflow cytometry.

Projects:

- Deployable microflow cytometer for impedance and fluorescence based analysis of marine phytoplankton.

- Microflow cytometer for the analysis of pigment content of commercial algae crops.

- Microflow cytometer for the analysis of extracellular vesicle sized particles using multiangle scattering analysis  https://doi.org/10.1039/C9LC01182J

- "Algae Farmer" interactive game for science communication and outreach.

- Antimicrobial light in urinary catheters.

Jonathan has a broad skill base in optical theory and design, microfabrication, microfluidics, electronics and experimental biology. JB has been awarded £16K as PI from HEFCE (Zepler Institute Stimulus Fund) for research into anitmicrobial light guiding technology in biomedical devices. He has also been the researcher co-I on a £20K Higher Education Innovation Fund projects from HEFCE (Zepler Institute Stimulus fund). In 2019 JB was funded to attend the British Council/Newton fund, UK-India Researcher Links Multi-disciplinary Workshop on TB Diagnostics and AMR.

Research

Research interests

Microflow cytometry, Integrated optics, Microfluidics, Lab-on-a-chip, Biosensing, Antimicrobial photonics

Teaching

Jonathan has supervised masters students in interdisciplinary discertation projects.

Publications

Braddick, Lucy M., Garland, Patrick J., Praeger, Matthew F., Butement, Jonathan, Friedrich, Daniel, Morgan, David J. and Melvin, Tracy (2012) Uniform aligned bioconjugation of biomolecule motifs for integration within microfabricated microfluidic devices. Analytical Biochemistry, 424 (2), 195-205. (doi:10.1016/j.ab.2012.02.020).

Sones, C.L., Katis, I.N., Mills, B., Feinäugle, M., Mosayyebi, Ali, Butement, J. and Eason, R.W. (2014) Rapid and mask-less laser-processing technique for the fabrication of microstructures in polydimethylsiloxane. Applied Surface Science, 298, 125-129. (doi:10.1016/j.apsusc.2014.01.138).

Sones, C.L., Katis, I.N., He, P., Mills, B., Mosayyebi, A., Butement, Jonathan, Feinäugle, M. and Eason, R.W. (2014) Laser-based printing and patterning for biological applications. International Workshop on the Fabrication and Application of Microstructured Optical Devices, Yokohama, Japan. 27 - 28 Feb 2014.

Butement, J.T.G., Hunt, H.C., Rowe, D.J., Karabchevsky, Alina, Hua, P., Murugan, G.S., Clark, O., Holmes, C., Carpenter, L.G., Gates, J.C., Smith, P.G.R, Chad, J.E. and Wilkinson, J.S. (2014) A microflow cytometer for microsphere-based immunoassays using integrated optics and inertial particle focussing. Biosensors '14, Melbourne, Australia. 26 - 29 May 2014.

Sones, C.L., Katis, I.N., Mills, B., Feinäugle, M., Mosayyebi, Ali, Butement, Jonathan and Eason, R.W. (2013) Rapid, low-cost patterning of microstructures in polydimethylsiloxane via mask-less laser-machining. 2013 Conference on Lasers & Electro-Optics Europe & International Quantum Electronics Conference CLEO EUROPE/IQEC, , Munich, Germany. 12 - 16 May 2013. (doi:10.1109/CLEOE-IQEC.2013.6801592).

Sones, C.L., Katis, I.N., Mills, B., Feinäugle, M., Mosayyebi, Ali, Butement, Jonathan and Eason, R.W. (2013) Mask-less laser-machining for rapid low-cost patterning of microstructures in polydimethylsiloxane (PDMS). E-MRS '13 Materials Research Society Spring Meeting, , Strasbourg, France. 27 - 31 May 2013.

Mittal, Vinita, Aghajani, Armen, Carpenter, Lewis, Gates, James C., Butement, Jonathan, Smith, Peter G.R., Wilkinson, James S. and Murugan, Ganapathy Senthil (2015) Fabrication and characterization of high-contrast mid-infrared GeTe4 channel waveguides. Optics Letters, 40 (9), 2016-2019. (doi:10.1364/OL.40.002016).

Butement, Jonathan, Hunt, Hamish, Rowe, David, Sessions, Neil, Clark, Owain, Hua, Ping, Murugan, G. Senthil, Chad, John and Wilkinson, James (2016) Integrated optical waveguides and inertial focussing microfluidics in silica for microflow cytometry applications. Journal of Micromechanics and Microengineering, 26 (10), [105004]. (doi:10.1088/0960-1317/26/10/105004).

Butement, Jonathan (2016) Integrated optical microflow cytometer for bead-based immunoassays. University of Southampton, Faculty of Physical Sciences and Engineering, Doctoral Thesis, 152pp.

Holloway, Paul M., Butement, Jonathan, Hegde, Manjunath and West, Jonathan (2018) Serial integration of Dean-structured sample cores with linear inertial focussing for enhanced particle and cell sorting. Biomicrofluidics, 12 (4), [044104]. (doi:10.1063/1.5038965).

Lane, Simon, Butement, Jonathan, Harrington, Jack, Underwood, Timothy, Shrimpton, John and West, Jonathan (2019) Perpetual sedimentation for the continuous delivery of particulate suspensions. Lab on a Chip, 19, 1-5. (doi:10.1039/C9LC00774A).

Butement, Jonathan (2020) Dataset for: Monolithically-integrated cytometer for measuring particle diameter in the extracellular vesicle size range using multi-angle scattering. University of Southampton doi:10.5258/SOTON/D1173 [Dataset]

Butement, Jonathan, Holloway, Paul, Welsh, Joshua A, Holloway, Judith, Englyst, Nicola, Horak, Peter, West, Jonathan and Wilkinson, James S (2020) Monolithically-integrated cytometer for measuring particle diameter in the extracellular vesicle size range using multi-angle scattering. Lab on a Chip, 20 (7), 1267-1280. (doi:10.1039/C9LC01182J).

Harrington, Jack, Esteban, Luis Blay, Butement, Jonathan, Vallejo, Andres F, Lane, Simon I R, Sheth, Bhavwanti, Jongen, Maaike S A, Parker, Rachel, Stumpf, Patrick S, Smith, Rosanna C G, MacArthur, Ben D, Rose-Zerilli, Matthew J J, Polak, Marta E, Underwood, Tim and West, Jonathan (2021) Dual dean entrainment with volume ratio modulation for efficient droplet co-encapsulation: extreme single-cell indexing. Lab on a Chip, 21 (17), 3378-3386. (doi:10.1039/d1lc00292a).

Qi, Yanli, Zheng, Zhexuan, Banakar, Mehdi, Wu, Yangbo, Gangnaik, Anushka, Rowe, David, Mittal, Vinita, Butement, Jonathan, Wilkinson, James S, Mashanovich, Goran and Nedeljković, Miloš (2021) Integrated switching circuit for low-noise self-referenced mid-infrared absorption sensing using silicon waveguides. IEEE Photonics Journal, 13 (6), [6600110]. (doi:10.1109/JPHOT.2021.3121331).

Butement, Jonathan (2022) Data set For : A light-guiding urinary catheter for the inhibition of Proteus mirabilis biofilm formation. University of Southampton doi:10.5258/SOTON/D2300 [Dataset]

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