The aim of this module is to provide a basis for future studies in chemistry and allied subjects. Students select two areas of Chemistry from Inorganic, Organic, and Physical Chemistry according to the needs of their programme of study.
Please consult with the leader of your programme or your personal academic tutor in deciding which two modules to follow.
Aims and Objectives
Having successfully completed this module you will be able to:
- The ability to interpret NMR spectra
- the ability to apply such knowledge and understanding to the solution of problems related to the synthesis of organic target molecules
- the ability to demonstrate knowledge and understanding of essential facts, concepts, principles and theories relating to retrosynthetic analysis and heterocyclic chemistry
- skills in communicating synthetic organic chemistry
1) Retrosynthetic Analysis and the Disconnection Approach
- Introduction to retrosynthetic analysis and the disconnection approach.
- Functional Group Interconversions. Application to the synthesis of amines (amide reduction, reductive amination, nitrile, nitroalkane alkylation/reduction
- Timing of disconnections: synthesis of aromatic compounds (regioselectivity), reactions of aromatic side chains (emphasis on reversal of directing effects)
- Protecting groups (Benzyl ether acetal, phthalimide, carbamate)
- Functional Group Additions. Ester and ketone alkylation, malonate and acetoacetate chemistry. Decarboxylations.
- 1,3-disconnections. Aldol, Reformatski, (Horner-) Wittig, Knoevenagel, Mannich, Claisen, conjugate addition
- 1,5-disconnections: enolate conjugate addition
- 1,4-disconnections: Umpolung. Reactions of thioketals as an acyl anion synthon, nitro compounds
- 1,2-disconnections. Epoxide opening, pinacol and acyloin couplings, alkene functionalisation
- Alkene formation. Wittig reactions, alkyne reductions (synthetic applications of acetylenes)
- Ring formation methods. Dieckmann condensation, Birch reduction of aromatic rings, Robinson annelation, pinacol and acyloin couplings, Diels-Alder (brief).
2) Synthetic Manipulation of Specific Functional Groups
- Application of important methodology (aldol reactions, conjugate addition, electrophilic aromatic substitution, heterocycle synthesis)
- Application of spectroscopic methods in organic characterisation. Coupling constants in cyclohexane chair conformations, C-F and H-F couplings.
3) Aromaticity and the Chemistry of Aromatic Hetrocycles
- Structure and bonding in benzene and COT, Hückel rules, aromatic ions and introduction to aromatic heterocycles.
- Overview of the importance of aromatic heterocycles in biochemistry, technology, medicine and agriculture.
- Principles of reactivity and ring-synthesis of aromatic heterocycles.
- Pyrrole, furan and thiophene: structure, reactivity and synthesis.
- Indole and benzofuran: structure, reactivity and synthesis.
- Imidazole, oxazole and thiazole: structure, reactivity and synthesis.
- Pyridine, pyridinium, quinoline and isoquinoline: structure, reactivity and synthesis.
4) NMR spectra interpretation
Learning and Teaching
Teaching and learning methods
Lectures, problem-solving Seminars with group working and tutor support
|Practical classes and workshops||6|
|Preparation for scheduled sessions||32|
|Total study time||72|
Resources & Reading list
J A Joule, K Mills. Heterocyclic Chemistry. Wiley.
A Randazzo. Guide to NMR Interpretation. Loghia.
P Sykes. Guidebook to mechanism in Organic Chemisty. Editorial Longman.
D T Davies. Aromatic Heterocyclic Chemistry. OUP (primer).
S Warren. Organic Synthesis: The Disconnection Approach. Wiley.
J Clayden, N Greeves and S Warren.. Organic Chemistry. OUP.
The theory (examination plus tutorial) components must be passed at the module pass mark for the student’s programme, i.e. 40% if core, 25% if compulsory or optional (if compensation is allowed).
This is how we’ll formally assess what you have learned in this module.
This is how we’ll assess you if you don’t meet the criteria to pass this module.
Repeat type: Internal & External