Fluid Dynamics in Practice: Applications to Real-World Challenges
Learn to apply fluid-dynamics principles to real-world problems
Fluid Dynamics in Practice: Applications to Real-World Challenges is an online short course offered by the University of Leeds that introduces how fluid dynamics informs engineering and scientific decisions. It links mathematical and physical concepts—covering laminar versus turbulent flow and the Bernoulli principle—to practical tasks in measurement, modelling, and prediction.
The course uses interactive activities and case studies to help learners visualise datasets and evaluate experimental, theoretical, and computational models as applied to airborne infection, air-quality monitoring, and extreme-weather events. Learners with a basic maths or physical-science background can expect an applied, evidence-focused pathway that points toward further study or professional roles in engineering, environmental science, and public health.
At a Glance
Fluid Dynamics in Practice: Applications to Real-World Challenges is an online course delivered by academics at the University of Leeds on the FutureLearn platform.
The course presents core principles of fluid movement and shows how measurement, modelling, and prediction are applied to real-world issues such as air quality, airborne infection, weather systems, and engineering decision-making.
| Level | Beginner to Intermediate |
| Rating | 4.6 out of 5 |
| Duration | 2 weeks |
| Languages | English |
| Certificate | Optional paid certificate (upgrade required) |
| Access | Free access to course content during the course; paid upgrade required for extended access and certificate |
| Course includes |
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| Price | Free to access basic course content; paid upgrade or subscription required for certificate and extended access |
What This Course Teaches
Outcomes are presented as measurable competencies that learners can demonstrate after completing the course. By the end of the course learners will be able to investigate core fluid-dynamics principles, explain their impacts across health and environmental contexts, and describe how experimental, theoretical, and computational models inform practical decision-making.
How the Course Is Structured
The course is organised across two weeks and is presented as a sequence of nine discrete steps grouped into Week 1 and Week 2, combining short instructional activities with case studies and summaries.
Overall structure: 9 modules (across 2 themed weeks), with the course delivered as a guided two-week learning path.
Curriculum overview
01Welcome to the course▾
Introduces the course structure and outlines the learner journey across the two-week programme.
02What is a fluid?▾
Covers properties of laminar and turbulent flow and the mathematical principles used to distinguish between them.
03Predicting fluid behaviour with the Bernoulli principle▾
Explores prediction techniques using the Bernoulli principle with a practical example monitoring aircraft velocity.
04Modelling turbulent flow▾
Examines how complex fluid behaviour is modelled and the practical considerations for different scales of prediction.
05Summary▾
Consolidates Week 1 topics and signposts opportunities at Leeds as well as links to Week 2 content.
06About Week 2▾
Introduces the themes and activities that will be covered in the second week of the course.
07Case Study 1: Airborne infection and monitoring air quality▾
Applies fluid-dynamics principles to particle movement, airborne disease spread, and mitigation strategies in indoor environments.
08Case Study 2: Modelling and predicting extreme weather▾
Examines how fluid dynamics underpins the formation, structure, movement, and decay of cyclones and other extreme-weather events.
09Summary▾
Summarises Week 2 topics, reflects on the broader impact of fluid dynamics, and outlines options for continuing study.
Audience & Requirements
This course is aimed at maths, science and engineering students and early-career professionals who want to apply fluid-dynamics principles to health, environment and engineering challenges.
Learners will benefit most if they have basic mathematical and physical-science grounding and an interest in using models and measurements to inform real-world decisions.
- Undergraduate students in maths, physics, and engineering seeking applied understanding.
- Early-career engineers, environmental scientists, or public-health practitioners upskilling in fluid-related modelling.
- Professionals and researchers wanting to connect theory and experimental/computational models with practical measurement.
- Lifelong learners interested in how fluid dynamics affects weather, air quality, and safety.
- Basic algebra and introductory physics (comfort with concepts such as velocity and pressure).
- No specialised software or laboratory equipment required.
- Willingness to complete interactive case studies and short assessments.
Final Verdict
Fluid Dynamics in Practice delivers a compact, application-focused introduction that connects core principles to real-world problems, and it is a cost-effective entry point because core content is available free with an optional paid certificate and extended access. Given its solid user rating and the platform’s free-to-audit model with a paid upgrade for certification, the course is a good value for learners seeking an applied overview rather than deep technical training.
It is best suited to undergraduate students, early-career practitioners, and curious professionals who want to understand how measurement and models inform decisions in health, environment, and engineering contexts. Those needing hands-on CFD training, heavy numerical methods, or laboratory practice should plan to follow this with more specialised, technical courses or accredited degree programmes.
