Module 10: Hypothesis Testing and Circuit Function
Explore how neuroscientists formulate and test hypotheses about neural circuits using both biological and computational tools.
🧐 What is a Hypothesis?
A hypothesis is a testable prediction about a biological process. In connectomics, hypotheses often relate to how specific circuits enable computation or behavior.
- Difference between descriptive questions and mechanistic hypotheses
- Operational definitions and falsifiability
- Examples from published neuroscience studies
🔢 Designing Experiments
Hypothesis-driven research requires careful planning. This includes defining variables, controls, and outcome measures that meaningfully reflect circuit function.
- Independent vs. dependent variables
- Experimental vs. observational studies
- Confounds and sources of bias
📈 Testing and Interpretation
We explore logic-based approaches, simple statistics, and model-based reasoning to interpret data and draw conclusions.
- Statistical power and sample size considerations
- Understanding p-values and confidence intervals
- Replicability and interpretation frameworks
🌍 COMPASS Integration
- Knowledge: Principles of experimental design
- Skills: Statistical reasoning, logic, conceptual clarity
- Character: Scientific humility, rigor, honesty
- Meta-Learning: Learning from failed hypotheses
📚 References & Resources
- Popper, K. (1959). The Logic of Scientific Discovery
- Ioannidis, J. (2005). Why Most Published Research Findings Are False. PLoS Medicine
- Curran-Everett, D. (2000). Statistics 101. Advances in Physiology Education
✅ Assessment
- Given a hypothesis, design a testable experiment and identify the key variables
- Evaluate a flawed experiment and suggest improvements
- Interpret mock experimental results in light of the hypothesis