Molecular structural characterization and analysis

Introduction

I. Molecules

II. Non Covalent Interactions

III. Importance of Separation Sciences

A. Separation Sciences

A.I. HPLC instrumentation and hyphenation to detectors

A.II. Types of Liquid Chromatography

A.III. Optimization of HPLC separations

A.IV. Band broadening in LC

A.V. Kinetic performance limits

A.VI. Multi-dimensional separations

A.VII. Chip Technology

A.VIII. Gas chromatography

B. Molecular Structure Characterization

B.I. Spectroscopy: general considerations

B.II. Electronic spectroscopies

B.III. Vibrational spectroscopies

B.IV. NMR spectroscopy

The aim of the course is to give you insight into the chromatographic methods available for the isolation and purification of (bio)molecules of industrial importance. In addition, we aim to teach you the fundamentals and application possibilities of different spectroscopic methods available for the determination and characterization of molecular structures.

Connaissances et compétences pré-requises ou co-requises

Basic knowledge in organic chemistry and intermolecular interactions. 

Interactive course with powerpoint presentation.

Seminars and practicals illustrate the theory seen during classes.

Contribution au profil d'enseignement

This teaching unit contributes to the following competences:

• In-depth knowledge and understanding of exact sciences with the specificity of their application to engineering and bioengineering

• A creative, problem-solving, result-driven and evidence-based attitude, aiming at innovation and applicability in industry and society

• The flexibility and adaptability to work in an international and/or intercultural context

• An integrated insight in (bio)chemical process technology and materials' technology

• Insight in chemistry as a link between process and materials technology

Références, bibliographie et lectures recommandées

Separation Sciences

www.chromacademy.com

HPLC Columns: Theory, Technology, and Practice; U.D. Neue
Wiley-VCH (1997)

Contemporary Instrumental Analysis; K.A. Rubinson and J.F. Rubinson
Prentice-Hall (2000)

Molecular Structure Determination

Introduction to Organic Spectroscopy; L.M. Harwood and T.D.W Claridge
Oxford Chemistry Primers, Oxford Science Publications (1997)

Molecular Spectroscopy; J.M. Brown
Oxford Chemistry Primers, Oxford Science Publications (1998)

Spectrometric Identification of Organic Compounds; R. M. Silverstein, F. X. Webster
John Wiley & Sons Inc (7th edition, 2005 or any other edition)

Understanding NMR Spectroscopy, J. Keeler
Wiley–Blackwell; 2nd Edition (2010)

Support(s) de cours

• Podcast
• Université virtuelle

Contacts

Prof. Gilles Bruylants: gilles.bruylants@ulb.be; Office: P2.2.110 (ULB)

Prof. Sebastiaan Eeltink: Sebastiaan.Eeltink@vub.be (VUB)

Campus

Solbosch, Autre campus

Méthode(s) d'évaluation

• Examen écrit
• Travail de groupe

Examen écrit

Travail de groupe

The exercices and practicals illustrate the content of the courses and are as important as the theory.

Written examination Spectroscopy: students have to elucidate the structure of a molecule on the basis of spectra (IR, UV-Vis, NMR) and to be able to answer to theoretical questions regarding the conditions to record a quantitative spectrum. 

Construction de la note (en ce compris, la pondération des notes partielles)

A graded practical will account for 20 % of the final mark. Modalities will be given during class.

A written examination, covering all the material seen during classes and exercise sessions, accounts for the remaining 80% of the final mark.

This grade is the weighted average of two grades, one for each of the teaching units (40% separation science - 60% spectroscopy). 

Langue(s) d'évaluation

• anglais