Course summary
The development and use of machine learning (ML) and artificial intelligence (AI) have revolutionised areas such as computer vision, speech recognition and language processing. On this course you will learn how to apply ML and AI techniques to real scientific problems. This will help you build vital skills, enhancing your employability in a rapidly expanding area. Graduates of this course will learn how to: identify and use relevant computational tools and programming techniques apply statistical and physical principles to break down algorithms, and explain how they work design strategies for applying machine learning to the analysis of scientific data sets. In addition, you will develop a broad set of transferable skills, including communication, critical thinking, and problem-solving. Previous students of this course have undertaken paid part-time internships with external partners. Find out what our graduates say about the course on our Physics Blog. You will have the opportunity to develop your own research project on a topic of your choice. Previous projects have looked at: Deep Learning for drug discovery Machine Learning for sustainable solvent selection Quantum reinforcement learning Supervised machine learning on a quantum computer Deep Learning network for fatigue monitoring of wind turbine blades Shaking all over – vibration cancellation at the atomic level Using machine learning to automatically segment the placenta from pregnancy MRI scans Machine learning assisted high-throughput computational screening of metal organic frameworks for biogas upgrading Simulating the Universe Detecting dark matter substructure in galaxies Personalised modelling of cerebral blood flow from multi-modal features for early detection of dementia Machine Learning natural product biosynthesis Advanced natural language processing in Fintech
Modules
This course consists of 180 credits, split into 120 credits of taught modules during the autumn and spring semesters, and a 60 credit research project that is completed in the summer period. Modules Year one Pathways Mathematics Bootcamp Prior to delving into the intricacies of machine learning, students will undertake an intensive mathematics bootcamp. This will ensure you are equipped with the robust quantitative skills necessary for this course. Core modules Machine Learning in Science – Part 120 credits Machine Learning in Science – Part 220 credits Applied Statistics and Probability - 20 credits Machine Learning in Science – Project - 60 credits Optional modules Professional Ethics in Computing - 10 credits Introduction to Practical Quantum Computing - 10 credits Computer Vision - 20 credits Designing Intelligent Agents - 20 credits Neural Computation Big Data Learning and Technologies - 20 credits Statistical Foundations Autonomous Robotic Systems - 20 credits Simulation for Decision Support - 20 credits Linear and Discrete Optimisation - 20 credits Handling Uncertainty with Fuzzy Sets and Fuzzy Systems - 20 credits
Assessment method
Modules are assessed using a variety of individual assessment types which are weighted to calculate your final mark for each module. There will be a research project assessed by a 8,000 word report. You will need an average mark of 50% to pass the MSc overall – you won't get a qualification if you don't achieve this. You will be given a copy of our marking criteria when you start the course and will receive regular feedback from your tutors.
Entry requirements
2.1 (or international equivalent) in one of the following areas: physics, mathematics, computer science, chemistry, engineering. A 2.2 (or international equivalent) may be considered if the applicant has relevant work experience or another supporting factor.
Fees and funding
Tuition fees
No fee information has been provided for this course
Tuition fee status depends on a number of criteria and varies according to where in the UK you will study. For further guidance on the criteria for home or overseas tuition fees, please refer to the UKCISA website .
Additional fee information
Provider information
University of Nottingham
University Park
Nottingham
NG7 2RD