This report describes a linked series of Masters-level computer practical workshops. They comprise an advanced functional genomics investigation, based upon analysis of a microarray dataset probing yeast DNA damage responses. The workshops require the students to analyse highly complex transcriptomics datasets, and were designed to stimulate active learning through experience of current research methods in bioinformatics and functional genomics. They seek to closely mimic a realistic research environment, and require the students first to propose research hypotheses, then test those hypotheses using specific sections of the microarray dataset. The complexity of the microarray data provides students with the freedom to propose their own unique hypotheses, tested using appropriate sections of the microarray data. This research latitude was highly regarded by students and is a strength of this practical. In addition, the focus on DNA damage by radiation and mutagenic chemicals allows them to place their results in a human medical context, and successfully sparks broad interest in the subject material. In evaluation, 79% of students scored the practical workshops on a five-point scale as 4 or 5 (totally effective) for student learning. More broadly, the general use of microarray data as a ''student research playground'' is also discussed.Keywords: Saccharomyces cerevisiae, DNA damage response, transcript profiling, microarray, bioinformatics.It is generally accepted that students learn best through inquiry-based approaches, (active learning) and this is particularly true in science courses. Actively constructing knowledge from a combination of experiences, interactions and interpretations optimizes the acquisition of an expert understanding of scientific concepts [1]. Therefore, it is not surprising that social constructivism is the dominant learning theory in science education [2]; the investigative nature of science lends itself well to such effective teaching and learning strategies. Science research now uses a vast array of technology and it is both desirable, and increasingly possible, to incorporate the use of such technology into a University classroom setting to provide methodological training. This allows students to interact with information in new ways, to create their own visualizations and understanding of scientific data. We have been guided by these core principles in the design of a new series of computer workshops centred on functional genomics and systems biology. The workshops, which analyse microarray data, crucially have a strong research theme running through them, taking advantage of the vast information resource represented by transcriptomic datasets to allow students to propose, then test, their own hypotheses. Students thus actively construct knowledge from a self-directed investigation, applying a range of research tools to their own experiments.Systems biology is a relatively new discipline, in which mathematical modeling of biological systems is used as a tool to understand the structure...