University of Bristol, UK

• 1. What is Systems Biology and Why Do It? 2. The Circuitry of Circadian Rhythms 3. Intracellular Signalling During Bacterial Chemotaxis 4. Intercellular Signalling and Self-Organisation of Dictyostelium discoideum 5. Modelling the Mammalian Heart 6. Using Mathematical Models to Probe Experimental Data 7. Bioinformatic Approaches to Biological Systems 8. Modelling Tools for Systems Biology and MAPK Cascade Dynamics 9. An Introduction to Metabolic Modelling 10. Vertical Systems Biology: From DNA to Flux and Back 11. Cell Sampling and RNA Amplification Methods 12. Proteomics Methods 13. Towards a Virtual Devleoping Organ

University of Bristol, UK

• 1. What is Systems Biology and Why Do It? 2. The Circuitry of Circadian Rhythms 3. Intracellular Signalling During Bacterial Chemotaxis 4. Intercellular Signalling and Self-Organisation of Dictyostelium discoideum 5. Modelling the Mammalian Heart 6. Using Mathematical Models to Probe Experimental Data 7. Bioinformatic Approaches to Biological Systems 8. Modelling Tools for Systems Biology and MAPK Cascade Dynamics 9. An Introduction to Metabolic Modelling 10. Vertical Systems Biology: From DNA to Flux and Back 11. Cell Sampling and RNA Amplification Methods 12. Proteomics Methods 13. Towards a Virtual Devleoping Organ

University of Bristol, UK

• 1. What is Systems Biology and Why Do It? 2. The Circuitry of Circadian Rhythms 3. Intracellular Signalling During Bacterial Chemotaxis 4. Intercellular Signalling and Self-Organisation of Dictyostelium discoideum 5. Modelling the Mammalian Heart 6. Using Mathematical Models to Probe Experimental Data 7. Bioinformatic Approaches to Biological Systems 8. Modelling Tools for Systems Biology and MAPK Cascade Dynamics 9. An Introduction to Metabolic Modelling 10. Vertical Systems Biology: From DNA to Flux and Back 11. Cell Sampling and RNA Amplification Methods 12. Proteomics Methods 13. Towards a Virtual Devleoping Organ