What problem does it solve?
Brain connectivity studies demand precise judgment to decide whether to treat coactivation as correlation, infer directed influences, or summarize network topology, yet researchers often conflate these frameworks, overlook motion artifacts, or neglect the rigorous planning checklist that this skill enforces before any analysis.
Core Features & Use Cases
- Method selection decision tree that distinguishes functional connectivity (correlation/partial correlation/ICA), task-modulated PPI, causal DCM, and graph-theoretic descriptions so you can choose the right lens for your task or resting-state question.
- PPI/DCM implementation guidance covering seed definition, deconvolution, interaction construction, model matrices, Bayesian model selection, and the constraints on model space, sample homogeneity, and reporting so workflows stay hypothesis-driven.
- Graph theory pipeline and pitfalls outlining node/edge definitions, threshold sensitivity, normalization against null models, and the checklist of key metrics plus warnings about motion and global signal effects to keep network statistics interpretable.
- Verification protocol and reporting checklist ensures you state the research question, justify the method, declare expected outcomes, note assumptions, and document preprocessing, motion thresholds, and software versions before acting.
- Use case: Prepare connectivity advice for an fMRI study by combining motion control, z-transformed correlations, DCM/BMS families, or graph metrics depending on whether you need exploratory patterns or causal claims.
Quick Start
Ask the Brain Connectivity Modeler to outline the most appropriate connectivity framework, including preprocessing, modeling, and validation steps, for your current fMRI study.