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Structural Chemistry Analysis

Code: Q4001     Acronym: Q4001

Keywords
Classification Keyword
OFICIAL Chemistry

Instance: 2019/2020 - 2S

Active? No
Responsible unit: Department of Chemistry and Biochemistry
Course/CS Responsible: Master in Biochemistry

Cycles of Study/Courses

Acronym No. of Students Study Plan Curricular Years Credits UCN Credits ECTS Contact hours Total Time
M:BQ 0 Plano de Estudos do MBIOQ_2013-2014 1 - 6 56 162

Teaching language

Portuguese

Objectives

Recognize the role of structural analysis methods in the context of their biological applications - Known the fundamentals of each of the structural analysis methods to be addressed - Identify scope and limitations of each of the addressed structural analysis methods - Read/interpret scientific papers related to the course area - Present oral communications on a selected paper/topic related to the course area

Learning outcomes and competences








Structural analysis methods are transversal to a wide range of scientific and technological fields, and such interdisciplinary nature is clearly an advantage for developing skills in the analysis of complex problems. The teaching methodology meets this characteristic, by alternating typical magisterial classes with lectures by experts in different areas, followed by the analysis and debate of case studies. This methodology allows the students to increase their skills on complex situations, and to apply the theoretical concepts explained in the lectures to a real scenario. The main advantage of this methodology is that the students experience different perspectives in science and technology, and analyze/discuss alternative practices to solve real problems. On the other hand, the analysis of case studies has proven effective for learning, especially in advanced studies, allowing the students to attain the learning goals in an easy but solid way. Additionally, the students will apply their knowledge on relevant techniques to address complex problems, which will allow them to further develop their skills in interpretation/oral and written communication/discussion, etc. This strategy values the specific skills of each individual student, stressing the need for multi-disciplinary/team work for solving real cases, allowing the students to become confident in their specific abilities and expertise.


Working method

Presencial

Program








1 Mass spectrometry (MS): revision of the fundamentals and main types of ion sources and mass analyzers; MS techniques suitable for biological applications. 2 Vibrational spectroscopy: revision of the fundamentals and spectral interpretation; aspects of relevance in the study of biomolecules by vibrational spectroscopy. 3 Structural analysis techniques suited for inorganic substances/components of biological interest. 4 Case studies


Mandatory literature

M. Hesse, H. Meier, B. Zeeh, Thieme, ; Spectroscopic Methods in Organic Chemistry., 1997. ISBN: ISBN-10: 3131060417
Hoffman, V. Stroobant, Wiley-VCH, ; Mass Spectrometry: Principles and Applications – 3rd ed, 2007. ISBN: ISBN-10: 0470033118
B. H. Stuart. John Wiley & Sons, ; Infrared Spectroscopy: Fundamentals and Applications (Analytical Techniques in the Sciences (AnTs) *). , 2004. ISBN: ISBN-10: 0470854286
Iain D. Campbell; Raymond A. Dwek; Biological Spectroscopy, ISBN 0-8053-1849-6, 1984

Teaching methods and learning activities











The course’s main goal is to provide advanced training in structural analysis methods, allowing the students to understand the fundamentals and main applications of the most relevant techniques presently used for the characterization of biomolecules. Consequently, the program starts by the revision of the fundamentals of each of the techniques to be addressed, followed by an in-depth study of each one of them and of their main biological applications. Several case studies will be chosen on the basis of their interdisciplinary nature and inclusion of one or more relevant techniques. These case studies will be analyzed and discussed with the students, aiming at consolidating their training, allowing them to develop their own ability to analyze more complex situations.



-- Lectures: Presentation of syllabus topics using multimedia tools; occasionally, specialized topics will be presented by invited guests. The UC management will be made using the Moodle platform. - Tutorial sessions: Analysis of scientific papers and case studies; flash presentations on scientific papers or topics relevant to the course; summary reports on lectures by invited guests. -


Evaluation: Distributed with final exam Distributed evaluation component: based on the quality of the tasks attributed within tutorial sessions (discussion of scientific papers and case studies, oral presentations, reports on lectures by guests, homework)


Evaluation Type

Distributed evaluation with final exam

Assessment Components

designation Weight (%)
Participação presencial 20,00
Exame 60,00
Trabalho escrito 20,00
Total: 100,00

Amount of time allocated to each course unit

designation Time (hours)
Estudo autónomo 106,00
Frequência das aulas 56,00
Total: 162,00

Eligibility for exams

The mark of the work developed in the TP and the monograph (TTP + M) must be equal to, or greater than 9.5.

The mark in the final exam (EF) must be equal to or greater than 8.0.

Calculation formula of final grade

 

Final mark =  60%*EF +40%( TTP +M)

Classification improvement

The improvement of the classification in the following year can only be made on the final exam (EF) component.
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