Solomon Warsop

Phone +44 7965 226707 | Mail sw@solwarsop.com | LinkedIn www.linkedin.com/in/solwarsop/

Specialist in applied artificial intelligence, experienced in designing and deploying production machine-learning systems for identity verification, due diligence, and financial-crime controls. My work spans end-to-end model development, AI application architecture, LLM-enabled agentic workflows, and client-facing advisory projects in regulated environments. It reflects strong technical depth and a product-minded approach to delivery, underpinned by academic rigour.


CORE EXPERTISE



EXPERIENCE


Head of Artificial Intelligence Research, Idenfo, London (Hybrid), Jul. 2025 - Present

Innovation Specialist - AI & Machine Learning, Idenfo, London (Hybrid), Feb. 2023 - Jul. 2025

Innovation Associate - AI & Machine Learning, Idenfo, London (Hybrid), Jul. 2022 - Feb. 2023

Mathematics and Science Tutor, Freelance, Frome, England, 2019

Intern, Centre for the Analysis of Motion, Entertainment Research and Applications, Bath, England, 2017

Assistant Database Administrator, Kensington Domestic Appliances, Heathfield, England, 2015 - 2016


PUBLICATIONS


Warsop, S.J.E.T., Caixeiro, S., Bischoff, M., Kursawe, J., Bruce, G.D., and Wijesinghe, P., Estimating full-field displacement in biological images using deep learning, npj Artif. Intell. 1, 6 (2025). https://doi.org/10.1038/s44387-025-00005-x:

The estimation of full-field displacement between biological image frames or in videos is important for quantitative analyses of motion, dynamics and biophysics. However, the often weak signals, poor biological contrast and many noise processes typical to microscopy make this a formidable challenge for many contemporary methods. Here, we present a deep-learning method, termed Displacement Estimation FOR Microscopy (DEFORM-Net), that outperforms traditional digital image correlation and optical flow methods, as well as recent learned approaches, offering simultaneous high accuracy, spatial sampling and speed. DEFORM-Net is experimentally unsupervised, relying on displacement simulation based on a random fractal Perlin-noise process and optimised training loss functions, without the need for experimental ground truth. We demonstrate its performance on real biological videos of beating neonatal mouse cardiomyocytes and pulsed contractions in Drosophila pupae, and in various microscopy modalities. We provide DEFORM-Net as open source, including inference in the ImageJ/FIJI platform, for rapid evaluation, which will empower new quantitative applications in biology and medicine.


EDUCATION


Master's in Physics (First-class, Integrated), University of St Andrews, Scotland, 2018 - 2022:

A Levels, Frome Community College, England, 2016-18: