📚 Official Curriculum & Master Syllabus
📐 Structural Biology: Syllabus & Course Map
Explain what a macromolecular structure is, which experiment can establish which part of it, and how that structure accounts for cooperativity, catalysis, membrane permeation, nucleic-acid recognition, and the limits of a predicted model.
10
Syllabus Modules
44
Mapped Topics
10
Chapter Pages
CURRICULUM ROADMAP
Interactive Syllabus & Modular Structure
Official curriculum mapped to university degree syllabi and competitive examinations. Each module links directly to its dedicated study notes page and relevant subtopics.
10 Modules
Module 01
Notes →
Levels of macromolecular structure
Module 02
Notes →
Folding and stability
Module 03
Notes →
X-ray crystallography
Module 04
Notes →
NMR of macromolecules
Module 05
Notes →
Cryo-electron microscopy
Module 06
Notes →
Complementary methods
Module 07
Notes →
Case studies in mechanism
Module 08
Notes →
Membrane proteins
Module 09
Notes →
Nucleic acid structure
Core Learning Outcomes & Competencies
Upon mastery of this comprehensive syllabus, students and researchers are expected to:
✓
Distinguish configuration from conformation, read a Ramachandran plot including glycine and proline, and describe helix, sheet, turn, domain, and quaternary symmetry.
✓
State Anfinsen's thermodynamic hypothesis, name what stabilises a fold, and separate ordinary folding from chaperone dependence, pro-region dependence, sickle-cell polymerisation, amyloid, and prion disease.
✓
For X-ray crystallography, solution NMR, and single-particle cryo-electron microscopy, state what is measured, how a model is obtained, what a stated resolution shows, and what the method misses.
✓
Choose among small-angle scattering, circular dichroism, hydrogen–deuterium exchange, cross-linking mass spectrometry, super-resolution microscopy, and atomic force microscopy for a stated question, and say what that choice cannot resolve.
✓
Explain haemoglobin cooperativity from the quaternary switch, serine-protease catalysis from the triad and the specificity pocket, and the structural conclusions of the ribosome and ATP synthase work.
✓
Compare transmembrane helical bundles with β barrels, and explain why a potassium channel conducts K+ rather than Na+.
✓
Compare A, B, and Z DNA, describe three protein strategies for reading sequence, and explain what an RNA tertiary motif and a ribozyme demonstrate.
✓
Apply a sequence-identity rule of thumb to a homology model, read a Protein Data Bank entry critically, and judge an AlphaFold or RoseTTAFold prediction by its confidence score and its failure modes.
CHAPTER DIRECTORY
Dedicated Chapter & Lecture Pages (10)
Browse every individual chapter, experimental protocol, and specialized topic module published in this discipline.
10 Pages
Structural Biology: Chapter 1 — Levels of macromolecular structure
Structural Biology: Chapter 2 — Folding and stability
Structural Biology: Chapter 3 — X-ray crystallography
Structural Biology: Chapter 4 — NMR of macromolecules
Structural Biology: Chapter 5 — Cryo-electron microscopy
Structural Biology: Chapter 6 — Complementary methods
Structural Biology: Chapter 7 — Case studies in mechanism
Structural Biology: Chapter 8 — Membrane proteins
Structural Biology: Chapter 9 — Nucleic acid structure
Structural Biology: Chapter 10 — From structure to prediction and design