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</p>A list of all the posts and pages found on the site. For you robots out there is an XML version available for digesting as well.
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</p>About me
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</p>Published:
This is a recent paper submitted to the Journal of the Audio Engineering Society. In this paper, we take word embeddings, and map them directly onto EQ parameters, using a Fully-Connected Neural Network. We show that a neural network can learn equaliser settings for completely unknown words, which produce EQ results that are both intutive, and perceptually sound plausable. Further subjective evaluations are required to validate these results, but in principal, the idea of mapping semantic word descriptors directly onto any audio effect parameters. This approach could be developed in the future, rolled out to a number of different semantic approaches to create a suite of semantically driven audio effects.
</p>Published:
The recent work of Satvik Venkatesh, on the YOHO paper. In this recently published paper, we present a neural network approach for audio detection. In this paper transition points, or sonic objects, are identifed directly through the neural network design, rather than the traditional approach of block based processing of audio and performing classification per block. The traditional approach quantizes the classification of the signal, and relies on accurate classification of every time step, which can be problematic in noisy environments. In this approach, the prediction of the model is a regression, of the transition points exactly, which means the model is much less likely to oscillate, and the predictions are generally considered more robust. A rigorous review of this approach, in noise environments, was presented in a paper at NeurIPS. The full paper is available here.
</p>Published:
David Moffat, Rod Selfridge, Joshua Reiss, "Sound Effect Synthesis." In the proceedings of Foundations in Sound Design for Interactive Media: A Multidisciplinary Approach, Chapter 13, 2019. https://doi.org/10.4324/9781315106342
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Published:
David Moffat, "AI Music Mixing Systems." In the proceedings of Handbook of Artificial Intelligence for Music, Chapter 13, 2021. https://doi.org/10.1007/978-3-030-72116-9_13
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Clive Mead, David Moffat and Gary Bromham, "A History of Distortion." In Distortion in Music Production, The Soul of Sonics. Chapter 1, Editors Gary Bromham and Austin Moore. Focal Press, June 2023. https://doi.org/10.4324/9780429356841
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M. Nyssim Lefford, David Moffat and Gary Bromham, "From Intelligent Digital Assistant to Intelligent Digital Collaborator." In Innovation in Music Performance: Technology and Creativity. (pp. 278-291) Editors Jan-Olof Gullö, Russ Hepworth-Sawyer, Justin Paterson, Rob Toulson and Mark Marrington. Focal Press. March 2024 https://doi.org/10.4324/9781003118817
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Nicholas Jillings, Brecht De, David Moffat, Joshua Reiss, "Web Audio Evaluation Tool: A Browser-Based Listening Test Environment." In the proceedings of Proceedings of the Sound and Music Computing Conference, 2015.
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David Moffat, David Ronan, Joshusa Reiss, "An Evaluation of Audio Feature Extraction Toolboxes." In the proceedings of Proceedings of the 18th International Conference on Digital Audio Effects (DAFx-15), 2015.
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David Ronan, David Moffat, Hatice Gunes, Joshua Reiss, "Automatic Subgrouping of Multitrack Audio." In the proceedings of Proceedings of the 18th International Conference on Digital Audio Effects (DAFx-15), 2015.
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David Moffat, Joshua Reiss, "Implementation and Assessment of Joint Source Separation and Dereverberation." In the proceedings of Proceedings of the Audio Engineering Society Conference: 60th International Conference: DREAMS (Dereverberation and Reverberation of Audio, Music, and Speech), 2016. https://dx.doi.org/10.17743/aesconf.2016.978-1-942220-07-7
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Lucas Mengual, David Moffat, Joshua Reiss, "Modal Synthesis of Weapon Sounds." In the proceedings of Proceedings of the Audio Engineering Society Conference: 61st International Conference: Audio for Games, 2016.
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Nicholas Jillings, Brecht De, David Moffat, Joshua Reiss, "Web Audio Evaluation Tool: A framework for subjective assessment of audio." In the proceedings of Proceedings of the 2nd Web Audio Conference, 2016.
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Brecht De, Nicholas Jillings, David Moffat, Joshua Reiss, Ryan Stables, "Subjective comparison of music production practices using the Web Audio Evaluation Tool." In the proceedings of 2nd AES Workshop on Intelligent Music Production, 2016.
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David Moffat, Joshua Reiss, "Perceptual evaluation of synthesised sound effects." In the proceedings of DMRN+11: Digital Music Research Network Workshop, 2016.
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Rod Selfridge, David Moffat, Joshua Reiss, "Real-Time Physical Model for Synthesis of Sword Swing Sounds." In the proceedings of Proceedings of the 14th International Conference on Sound and Music Computing (SMC), 2017.
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Rod Selfridge, David Moffat, Joshua Reiss, Eldad Avital, "Real-Time Physical Model for an Aeolian Harp." In the proceedings of Proceedings of the 24th International Congress on Sound and Vibration, 2017.
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Rod Selfridge, David Moffat, Joshua Reiss, "Physically Derived Sound Synthesis Model of a Propeller." In the proceedings of ACM Audio Mostly Conference, 2017.
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David Moffat, David Ronan, Joshusa Reiss, "Unsupervised Taxonomy of Sound Effects." In the proceedings of Proc. 20th International Conference on Digital Audio Effects (DAFx-17), 2017.
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David Moffat, Joshusa Reiss, "Objective Evaluations of Synthesised Environmental Sounds." In the proceedings of Proceedings of the 21th International Conference on Digital Audio Effects (DAFx-18), 2018.
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David Moffat, Florian Thalmann, Mark Sandler, "Towards a Semantic Web Representation and Application of Audio Mixing Rules." In the proceedings of Proceedings of the 4th Workshop on Intelligent Music Production (WIMP), 2018.
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David Moffat, Mark Sandler, "Adaptive Ballistics Control of Dynamic Range Compression for Percussive Tracks." In the proceedings of Audio Engineering Society Convention 145, 2018.
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Gary Bromham, David Moffat, György Fazekas, Mathieu Barthet, Mark Sandler, "The impact of compressor ballistics on the perceived style of music." In the proceedings of Audio Engineering Society Convention 145, 2018.
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David Moffat, Mark Sandler, "Automatic Mixing Level Balancing Enhanced through Source Interference Identification." In the proceedings of Audio Engineering Society Convention 146, 2019.
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Gary Bromham, David Moffat, Mathieu Barthet, Anne Danielsen, György Fazekas, "The Impact of Audio Effects Processing on the Perception of Brightness and Warmth." In the proceedings of ACM Audio Mostly Conference, 2019. https://doi.org/10.1145/3356590.3356618
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David Moffat, Mark Sandler, "An Automated Approach to the Application of Reverberation." In the proceedings of Audio Engineering Society Convention 147, 2019.
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David Moffat, Mark Sandler, "Machine Learning Multitrack Gain Mixing of Drums." In the proceedings of Audio Engineering Society Convention 147, 2019.
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Satvik Venkatesh, David Moffat, Eduardo Miranda, "RadioMe: Artificially Intelligent Radio for People with Dementia." In the proceedings of DMRN+14: Digital Music Research Network One-Day Workshop, 2019.
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Gary Bromham, David Moffat, Mathieu Barthet, György Fazekas, "Retro in Digital: Understanding the Semantics of Audio Effects." In the proceedings of DMRN+14: Digital Music Reserach Network One-Day Workshop, 2019.
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M. Lefford, Gary Bromham, David Moffat, "Mixing with Intelligent Mixing Systems: Evolving Practices and Lessons from Computer Assisted Design." In the proceedings of Audio Engineering Society Convention 148, 2020.
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Clive Mead, David Moffat, Eduardo Miranda, "Composing, Recording and Producing with Historical Equipment and Instrument Models." In the proceedings of Audio Engineering Society Convention 139, 2020.
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Shakeri Gozel, Stephen Brewster, Satvik Venkatesh, David Moffat, Alexis Kirke, Eduardo Miranda, Sube Banerjee, Alex Street, Jörg Fachner, Helen Odell-Miller, "RadioMe: Challenges During the Development of a Real Time Tool to Support People With Dementia." In the proceedings of Conference on Human Factors in Computing Systems (CHI), 2021.
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Satvik Venkatesh, David Moffat, Alexis Kirke, Gözel Shakeri, Stephen Brewster, Jörg Fachner, Helen Odell-Miller, Alex Street, Nicolas Farina, Sube Banerjee, Eduardo Miranda, "Artificially synthesising data for audio classification and segmentation to improve speech and music detection in radio broadcast." In the proceedings of International Conference on Acoustics, Speech and Signal Processing (ICASSP), 2021.
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Di Campli San Vito, P., Brewster, S., Venkatesh, S., Miranda, E., Kirke, A., Moffat, D., Banerjee, S., Street, A., Fachner, J. and Odell-Miller "RadioMe: Supporting Individuals with Dementia in Their Own Home... and Beyond?" In the proceedings of 2022 CHI Conference on Human Factors in Computing Systems (CHI 22) Workshop 32, New Orleans, LA, USA, 30 Apr 2022.
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Z. Liu, C. Luo, Z. Fu, and D. Moffat "VBLS: ViT-based Broad Learning System for Remote Sensing Scene Classification" In the proceedings of IEEE 2026 International Geoscience and Remote Sensing Symposium, 2026. pp. 180-184 https://doi.org/10.1109/IGARSS60577.2026.11730905
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Published:
Luca Turchet, David Moffat, Ana Tajadura-Jiménez, Joshua Reiss, Tony Stockman, "What do your footsteps sound like? An investigation on interactive footstep sounds adjustment." Applied Acoustics, 2016. https://doi.org/10.1016/j.apacoust.2016.04.007
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Published:
Rod Selfridge, David Moffat, Joshua Reiss, "Sound Synthesis of Objects Swinging Through Air Using Physical Models." Applied Sciences, 2017. https://doi.org/10.3390/app7111177
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Published:
David Moffat, Joshua Reiss, "Perceptual Evaluation of Synthesized Sound Effects." ACM Transactions on Applied Perception (TAP), 2018. https://doi.org/10.1145/3165287
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Published:
Rod Selfridge, David Moffat, Eldad Avital, Joshua Reiss, "Creating Real-Time Aeroacoustic Sound Effects Using Physically Derived Models." Journal of the Audio Engineering Society, 2018. https://doi.org/10.17743/jaes.2018.0033
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Published:
David Moffat, Mark Sandler, "Approaches in Intelligent Music Production." Arts, 2019. https://doi.org/10.3390/arts8040125
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Published:
Thomas Wilmering, David Moffat, Alessia Milo, Mark Sandler, "A History of Audio Effects." Applied Sciences, 2020. https://doi.org/10.3390/app10030791
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Published:
Marco Martínez, Daniel Stoller, David Moffat, "A Deep Learning Approach to Intelligent Drum Mixing with the Wave-U-Net." Journal of the Audio Engineering Society, 2021. http://doi.org/10.17743/jaes.2020.0031
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Published:
M. Lefford, Gary Bromham, György Fazekas, David Moffat, "Context Aware Intelligent Mixing Systems." Journal of the Audio Engineering Society, 2021. https://doi.org/10.17743/jaes.2020.0043
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Published:
Satvik Venkatesh, David Moffat, Eduardo Miranda, "Investigating the Effects of Training Set Synthesis for Audio Segmentation of Radio Broadcast." Electronics, 2021. https://doi.org/10.3390/electronics10070827
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Published:
Satvik Venkatesh, David Moffat, Eduardo Miranda, "You Only Hear Once: A YOLO-like Algorithm for Audio Segmentation and Sound Event Detection." Applied Sciences, 12, 3293. 2022. DOI 10.3390/app12073293 https://doi.org/10.3390/app12073293
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Published:
David Moffat, Brecht de Man and Joshua D. Reiss, "Semantic Music Production: A Meta-study." Journal of the Audio Engineering Society, vol. 70, no. 7/8, pp. 548-564, July 2022 https://doi.org/10.17743/jaes.2022.0023
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Published:
Satvik Venkatesh, David Moffat, Eduardo Miranda, "Word Embeddings for Automatic Equalization in Audio Mixing." Journal of the Audio Engineering Society, Vol 70 no.9 pp. 753-763; September 2022 https://doi.org/10.17743/jaes.2022.0047
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Published:
Phil Wilkes, Mathias Disney, John Armston, Harm Bartholomeus, Lisa Bentley, Benjamin Brede, Andrew Burt, Kim Calders, Cecilia Chavana-Bryant, Daniel Clewley, Laura Duncanson, Brieanne Forbes, Sean Krisanski, Yadvinder Malhi, David Moffat, Niall Origo, Alexander Shenkin, Wanxin Yang, "TLS2trees: a scalable tree segmentation pipeline for TLS data." Methods in Ecology and Evolution. Wiley. October 2023. https://doi.org/10.1111/2041-210X.14233
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Published:
Timothy J. Smyth, David Moffat, Glen A. Tarran, Shubha Sathyendranath, François Ribalet and John Casey "Determining drivers of phytoplankton carbon to chlorophyll ratio at Atlantic Basin scale." Frontiers in Marine Science. Volume 10, July 2023 https://doi.org/10.3389/fmars.2023.1191216
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Published:
Aser Mata, David Moffat, Sílvia Almeida, Marko Radeta, William Jay, Nigel Mortimer, Katie Awty-Carroll, Oliver R. Thomas, Vanda Brotas, Steve Groom "Drone imagery and deep learning for mapping the density of wild Pacific oysters to manage their expansion into protected areas." Ecological Informatics. 102708, July 2024 https://doi.org/10.1016/j.ecoinf.2024.102708
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Published:
Ming-Xi Yang, David Moffat, Yuanxu Dong and Jean-Raymond Bidlot "Deciphering the variability in air-sea gas transfer due to sea state and wind history." PNAS Nexus, pgae389. September 2024 https://doi.org/10.1093/pnasnexus/pgae389
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Published:
Lauren Biermann, David Moffat, Clive E. Sabel and Thomas E. Stovin "The theoretical role of the wind in aerosolising microplastics and nanoplastics from coastal combined sewer overflows." Nature Scientific Reports 15, 23623. July 2025 https://doi.org/10.1038/s41598-025-06115-5
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Published:
D. Sengupta, F. G. Bandao, S. Sathyendranath, G. Kulk, A. Conte, C. Ippolitti, L. Candeloro, D. Moffat, W. Wint, M. Maranesi, R. Scarano, J. Vitorino, G. Brandt and T. M Harish "Sensing human health from space: An assessment of applications and big data platforms." Remote Sensing Applications: Society and Environment 2025 https://doi.org/10.1016/j.rsase.2025.101701
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Published:
Lucie A. Delobel, David Moffat, Emma Tebbs, Andreas C.W. Baas, "Segmenting and characterising ripple patterns on sand dunes using machine learning and 2D semi-variogram." Remote Sensing of Environment Volume 331 (2025): 115031 https://doi.org/10.1016/j.rse.2025.115031
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Published:
Dawson, G., Vandaele, R., Taylor, A., Moffat, D., Tamura-Wicks, H., Jackson, S., Lickorish, R., Fraccaro, P., Williams, H., Luo, C. and Jones, A., 2025. "A Sentinel-3 foundation model for ocean colour". IEEE Transactions on Geoscience and Remote Sensing https://doi.org/10.1109/TGRS.2026.3732792
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Published:
Abigail Marie Waring, Darren Ghent, David Moffat, Carlos Jimenez and John Remedios, "A Deep Learning Approach to Downscaling Microwave Land Surface Temperatures for a Clear-Sky Merged Infrared-Microwave Product." Remote Sensing 2025, 17(23), 3893 https://doi.org/10.3390/rs17233893
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Published:
Joseph Smith, Cathryn Birch, John Marsham, and David Moffat, "SII-NowNet: A deep learning framework for nowcasting convection initiation and intensification in the Tropics." Artificial Intelligence for the Earth Systems (AIES) https://doi.org/10.1175/AIES-D-25-0043.1
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Published:
Rebecca Millington, Dale Partridge, Helen R. Powley, Gennadi Lessin, David Moffat and Jerry Blackford, "Consistency of clustering analysis of complex 3D ocean datasets." Ecological Informatics https://doi.org/10.1016/j.ecoinf.2025.103586
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Published:
Chavana-Bryant, C., Wilkes, P., Yang, W., Burt, A., Vines, P., Bennett, A. C., Pickavance, G. C., Cooper, D. L. M., Lewis, S. L., Phillips, O. L., Brede, B., Lau, A., Herold, M., McNicol, I. M., Mitchard, E. T. A., Coomes, D. A., Jackson, T. D., Makaga, L., Milamizokou Napo, H. O., Ngomanda, A., Ntie, S., Medjibe, V., Dimbonda, P., Soenens, L., Daelemans, V., Proux, L., Nilus, R., Labrière, N., Jeffery, K., Burslem, D. F. R. P., Clewley, D., Moffat, D., Qie, L., Bartholomeus, H., Vincent, G., Barbier, N., Derroire, G., Abernethy, K., Scipal, K., and Disney, M. "ForestScan: a unique multiscale dataset of tropical forest structure across 3 continents including terrestrial, UAV and airborne LiDAR and in-situ forest census data." Earth System Science Data, 18, 1243–1274 February 2026. https://doi.org/10.5194/essd-18-1243-2026
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Published:
Skákala, J., Sathyendranath, S., Artioli, Y., Banerjee, D. S., Bouman, H., Brewin, R. J. W., Butenschön, M., Ciavatta, S., Dutkiewicz, S., Fidai, Y., Ford, D., George, G., Guihou, K., Jönsson, B., Bačeković Koloper, M., Kovač, Ž., Krishnakumary, L., Kulk, G., Laufkötter, C., Lessin, G., Mattern, J. P., Melet, A., Mignot, A., Moffat, D., Monteiro, F., Rodriguez Bennadji, M., Rousseaux, C., Swaminathan, R., Ulloa, O., and Tjiputra, J. "Modelling primary production: multitude of theories, or multitude of languages? ", Ocean Science, 3.22; EGUsphere, 2026. 1-39 https://doi.org/10.5194/os-22-1457-2026
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Published:
D. Lomeo, S. Simis, M. Warren, D. Moffat, A. Jungblut and E. Tebbs "Mixture Density Networks Improve Inter-Sensor Consistency of Optical Water Type Classification", Transactions on Geoscience and Remote Sensing, 2026. https://doi.org/10.1109/TGRS.2026.3692980
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Published:
Jozef Skakala, Ieuan Higgs, David Moffat "Deep learning model emulators for marine biogeochemistry forecasting from days to decades", arXiv:2606.27168, 2026. https://doi.org/10.48550/arXiv.2606.27168
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Published:
David Moffat, Angus Laurenson, Victor Martinez-Vicente, Gemma Kulk, Xuerong Sun, Robert J. W. Brewin and Shubha Sathyendranath "Beyond chlorophyll: machine learning estimates of diagnostic phytoplankton pigments from multispectral ocean colour data", arXiv:2608.23348 [q-bio.OT], 2026. https://doi.org/10.48550/arXiv.2608.23348
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Published:
Camila Toledo-Jaime, Jennifer Graham, Ben Hudson, David Moffat, Bryony Townhill and Steven Palmer "Marine heatwave exposure is changing unevenly across Scottish aquaculture sites", Frontiers in Marine Science, 2026. 13:1963854. doi: 10.3389/fmars.2026.1963854 https://doi.org/10.3389/fmars.2026.1963854
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Short description of portfolio item number 1
Short description of portfolio item number 2 
Published:
The application of AI and machine learning is rapidly growing across the environmental research field. State-of-the-art machine learning techniques can be used to analyse and exploit environmental data, to produce greater insight into the current data captured, and enable better understanding of the environment.
</p>Published:
The detrimental effects of harmful algal blooms (HABs) on the marine ecosystem, human health, and shellfish and aquaculture industry are well known. Anthropogenic activities have led to an increase in frequency, extent and magnitude of HAB activity. As a result, the detection, monitoring and forecasting of HABs are key to agencies and marine managers, allowing them to implement prevention and remediation strategies.
</p>Published:
The application of artificial intelligence (AI) and machine learning (ML) is rapidly growing across Earth Observation (EO). State-of-the-art ML techniques can be used to analyse and exploit vast quantities of data, to produce greater insight into data, and enable better understanding of environmental issues. Over the past year, NEODAAS have been utilising their MAGEO GPU cluster to work with users on a range of projects including harmful algal bloom detection, tree monitoring, monitoring global mangroves, ocean oil-spill detection, road vehicle and ship exhaust tracking and underwater image maerl detection. This range of projects has provided opportunities and insights into common challenges in ML with EO data, and how best to overcome them.
</p>Published:
The detrimental effects of harmful algal blooms (HABs) on the marine ecosystem, human health, and shellfish and aquaculture industry are well known. Anthropogenic activities have led to an increase in frequency, extent and magnitude of HAB activity. As a result, the detection, monitoring and forecasting of HABs are key to agencies and marine managers, allowing them to implement prevention and remediation strategies. However, HAB events are relatively rare events, that can be challenging to detect. HAB detection with satellite image data improves the coverage and efficiency of tracking HABs. Existing remote sensing-based methods frequently rely on statistical classification algorithms. While comparison with cell concentration in situ data has identified two issues: reduced accuracy for the detection of certain species, and accuracy dependency with satellite training data availability. This talk will present a deep-learning technique to improve the performance of the existing models for HAB detection from ocean colour. To this end, we developed a Machine Learning (ML) system using a few-shot learning approach for the detection of Phaeocystis and Pseudo-nitzschia HABs across the French-English channel. We assessed the performance of the ML model in comparison to in situ cell abundance data. The ML system showed better performance than the S-3 EUROHAB model, with results for the detection of Phaeocystis blooms being particularly promising.
</p>Published:
An invited guest lecture exploring a career and research journey spanning music, acoustics, fluid mechanics, computer science and environmental science, and how computational methods can connect seemingly different research domains.
</p>Published:
Connecting Music and Environment Science: from philosophical approaches to fluid mechanics, and how computer science research can cover a range of domains. In this talk we will discuss a range of different computer science domains and approaches, and demonstrate how non-traditional career paths can be both more interesting but also more advantageous than traditional software development houses.
</p>Published:
In this talk, we will provide an overview of Machine Learning (ML) and it’s uses in Earth Observation (EO). This talk will introduce the concepts of AI and ML, with the aim of explaining the differences and the fundamental approaches that can be taken in the field, with some simple examples. We will then go on to discuss a variety of different potential approaches than can be taken, and how ML can be used to overcome some consistent challenges in EO, and where it is not necessarily appropriate to use.
</p>Published:
In this talk, we will provide an overview of recent ML developments from PML, discussing how ML has allowe us to extract further insight and extract meaningful information from earth observation data.
</p>Published:
I was a panel member at the opening of the inaugaral Machine Learning for Earth Observation Remote Sensing with the Environment Intelligence Network workshop at University of Exeter. The panel discussed example of how machine learning can enhance Earth observation science, emerging trend in AI or machine learning that are particularly exciting, the greatest challenges of using machine learning for Earth Observation studies, ethical and societal considerations associated with using AI and machine learning for Earth observation and future research priorities in using AI and machine learning for remote sensing in Earth observation science.
</p>Published:
An overview of machine learning and its use in Earth observation, highlighting approaches for remote sensing and environmental monitoring and focusing on where machine learning can provide genuine scientific benefit.
</p>Published:
An invited guest lecture reflecting on careers in data science and the application of computational and machine-learning methods across research domains.
</p>Published:
A keynote examining practical and scientific challenges in applying machine learning to Earth observation, including data characteristics, modelling choices, evaluation and robust use in environmental science.
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An invited guest lecture tracing a career in data science from audio and acoustics through Earth observation and marine science, illustrating how transferable computational skills can support very different scientific domains.
</p>Published:
An invited plenary examining the opportunities, limitations and practical challenges of using machine learning with aquatic-science data, with emphasis on robust, interpretable and scientifically useful applications.
</p>Published:
An invited seminar introducing NERC facilities supporting AI and Earth observation, illustrated through project examples and emerging directions in geospatial foundation models.
</p>Published:
An invited undergraduate lecture showing how computer science and data science are applied to environmental research, Earth observation and marine science.
</p>Published:
An invited presentation for faculty and PhD researchers on machine-learning approaches to ocean carbon-cycle research, including Earth-observation products, model parameterisation and primary-production estimation.
</p>Published:
A conference presentation examining within-site transferability of object-detection models for marine benthic imagery and the factors affecting model performance across imagery and ecological classes.
</p>Published:
An invited talk presenting AI developments across Plymouth Marine Laboratory and introducing NEODAAS support for environmental machine-learning research.
</p>Published:
A presentation on applying and evaluating a YOLOv8 benthic-species detector within deep-sea survey sites, including annotation correction and the influence of class and object size on error.
</p>Published:
A lightning talk on bringing heterogeneous deep-sea imagery together through harmonised metadata, quality-assured annotations and reusable foundation models for biodiversity mapping.
</p>Published:
A chaired panel session, including an introductory presentation, examining the opportunities and challenges of AI foundation models for Earth observation. The discussion considered scientific applications, trust and transparency, European capability, compute and data infrastructure, skills and partnerships, and the roadmap needed for foundation models to deliver lasting scientific and societal value.
</p>Published:
An invited seminar on using machine learning with Earth-observation data to support ocean carbon-cycle research, including primary-production modelling and marine foundation models.
</p>Teaching Associate, Queen Mary University of London, 2014
Teaching Associate contributions included Sound Recording and Production Techniques, Introduction to Digital Audio, Electronic Devices and Applications, and Sound Design.
</p>Programme leadership and teaching, University of Plymouth, 2019
As Programme Leader for the BSc Computing, Audio and Music Technology programme, I taught Audio Engineering, Introduction to Programming, Sound for Interactive Media, Creative Systems Design and Build, BA Music Dissertation, and ResM Computer Music. I also served as a personal tutor.
</p>Training course, NEODAAS / FSF, 2021
Virtual ML for EO training delivered within the joint NEODAAS and Field Spectroscopy Facility programme.
</p>CDT training, SENSE CDT, 2021
A three-day SENSE CDT course, delivered remotely, covering Earth observation and AI applications.
</p>CDT training, University of Exeter CDT, 2021
A hybrid doctoral training day on using Earth-observation data in AI research.
</p>Online training course, EUMETSAT, 2021
A co-led short course on coding for Earth observation for an international EUMETSAT audience.
</p>Researcher training, NCEO Researchers Forum, 2022
A two-day researcher training course on machine learning for Earth observation.
</p>CDT training, Exeter Environmental Intelligence CDT, 2022
A two-day doctoral training course on machine learning for Earth observation.
</p>Summer school leadership, PORTWIMS, 2022
I led a five-day summer school and delivered ML for EO training.
</p>Training course, NEODAAS / FSF, 2022
A four-day course. I presented and supported participants remotely while colleagues supported attendees in person.
</p>CDT training, SENSE CDT, 2022
A two-day SENSE CDT course with additional training in atmospheric correction and EO research methods.
</p>Short course, ONWARD, 2023
An online introduction to ML for EO for the Open Network for Water-Related Diseases.
</p>Recorded online short course, Trevor Platt Science Foundation, 2023
Approximately 200 people attended live; the recording subsequently reached approximately 737 views on YouTube.
</p>International training programme, Trevor Platt Science Foundation, 2023
I contributed two talks and led approximately half a day of course activity and project-based supervision.
</p>CDT training, SENSE CDT, 2023
A three-day course covering ML for EO, research techniques and atmospheric correction.
</p>University training, University of Plymouth, 2024
A practical session on applying AI to satellite imagery for mangrove detection.
</p>Training course, NEODAAS / FSF, 2024
A four-day practical Earth-observation training course.
</p>Conference workshop, ML4EO, University of Exeter, 2024
A practical course delivered in two shorter parts across 24 and 25 June.
</p>Training course, NEODAAS / FSF, 2025
A four-day Earth-observation training course.
</p>Conference workshop, ML4EO, University of Exeter, 2025
A half-day practical training workshop delivered on the opening day of ML4EO 2025.
</p>Online training course, To confirm, 2025
A small-group online training course on AI for Earth observation.
</p>Training course, NEODAAS / FSF, 2026
A four-day hybrid Earth-observation training course.
</p>Conference workshop, ML4EO 2026, hosted by NEODAAS, 2026
An introduction to preparing EO data for ML, classification, regression, segmentation, workflow design and a Random Forest example.
</p>Conference workshop, ML4EO 2026, hosted by NEODAAS, 2026
A hands-on Jupyter workshop using Python to build and train simple artificial neural networks for prediction.
</p>