Concept Guides
Clear explanations that focus on intuition, terminology, assumptions and the reasoning behind important quantitative concepts.
Use concise guides, technical references, practical workflows and applied examples alongside your courses and pathways.
Sometimes you need a clear explanation, a quick reference, a worked example or guidance on how to approach a technical task. Resources are designed for those moments.
Read focused explanations when you need to understand an idea without beginning an entire course.
Return to formulas, assumptions, terminology and technical patterns while working independently.
Use structured guides when moving from theoretical understanding into analysis, programming or research.
Move from a resource into the right course, pathway or interactive lab when you want to go deeper.
These resources connect directly into structured areas of the platform that are already available.
Build the probability, data and inference foundations required for later statistical modelling.
Strengthen functions, limits, derivatives and the mathematical reasoning used across quantitative subjects.
Develop practical Python skills for working with data, analysis and computational workflows.
Explore the foundations and workflow behind bulk transcriptomic analysis.
Build the reasoning required to understand efficient algorithms and core data structures.
Use Interactive Labs to make statistical, mathematical and computational ideas easier to see and reason about.
As the platform develops, these collections can become searchable libraries containing concise guides, worked examples and technical reference material.
Clear explanations that focus on intuition, terminology, assumptions and the reasoning behind important quantitative concepts.
Compact reference material for formulas, statistical methods, programming syntax and analytical workflows.
Resources for students and researchers working with data, statistical methods, computational workflows and reproducible analysis.
Practical guidance for understanding technical subjects, preparing for examinations and approaching university-level work.
Structured guidance for using programming tools in data analysis, statistics, bioinformatics and computational projects.
Worked examples that connect theory to realistic analytical, scientific and computational problems.
Research-oriented resources should help learners understand assumptions, analytical choices, reproducibility and interpretation—not simply reproduce a sequence of software commands.
Know what must be true for a method to be appropriate.
Connect the research question, data structure and analytical method.
Organise code, data and outputs so the analysis can be checked and repeated.
Understand what the result supports—and what it does not.
Interactive Labs complement written resources by allowing you to manipulate parameters, observe outcomes and build intuition visually.
Explore distributions, regression, calculus, optimisation, genomic data and algorithms through interactive visual experiences.
Explore Interactive LabsUse them independently, or move into deeper learning when the question becomes larger than a single guide can answer.
Explore focused resources when you need them, then move into structured courses, pathways, interactive learning or expert support when your goal requires more depth.