internationalisation - a pillar of development of the
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»The project will be implemented in line with the Operational Programme for Human Resources Development 2007-2013, 3rdpriority axis: Development of human resources and lifelong learning, activity 3.3: Quality, competitiveness and responsivenessof higher education.«
Internationalisation - a pillar of development of the University of MariborDoctoral studies: From study to research and further
Using Doctoral Schools to Improve Quality in Doctoral Education – good practicesProf. dr. Frank Dieter Uhlig, Dean of the Faculty of Technical Chemistry, Chemical &
Process Engineering and Biotechnology, TU Graz
W I S S E N T E C H N I K L E I D E N S C H A F T
u www.tugraz.at
Doctoral Schools
in
Natural Science
Examples of Cooperation
Frank Uhlig
Dean of the Faculty of Technical Chemistry, Chemical Engineering and Biotechnology
TU Graz Head of the NAWI Graz project
Doctoral Schools
at the location Graz
Two Universities
And a Unusual Situation in Natural Sciences
Frank Uhlig Maribor, 3. November 2014
NAWI Graz is
a strategic cooperation of
University of Graz and Graz University of Technology
in
- Teaching
- Research - Infrastructure - Doctoral Schools - Research Programs
NAWI Graz faculty work groups
• Molecular Bioscience, Biotechnology, Plant Science
• Chemistry, Chemical and Pharmaceutical Engineering
• Earth, Space and Environmental Sciences
• Fundamental and Applied Mathematics
• Physics
Key Facts:
• 35 Institutes on both large Universities in Graz
• > 1,020 FTE personnel
• > 640 PhD students
• approx. 25 Mio. Euro third party funds/year
NAWI Graz joint appointments of professors
• 6 NAWI Graz professorships (since 2010)
• Mathematics/Computational Sciences (K. Fellner)
• Algebra (K. Baur)
• Differential Equations (J. Behrndt)
• Physical Chemistry (L. Grill)
• Experimental Physics 1 (M. Sterrer, Start Sep. 2014)
• Computational Biotechnology (C. Sensen, Start Sep. 2014)
• 4 Fulbright professorships (since 2010)
NAWI Graz Gender Projects
• Support for female scientists
• 30+ research grants
• 8 travel grants
• 2 grants for young female researchers’ teams
Core figures NAWI Graz research
• Per year
• 450 active research projects
• 25 Mio. Euros third party funds
• 1,000+ journal articles
• 10 patents
NAWI Graz – joint research programmes
• 5 funded joint doctoral colleges
• DK “Molecular Enzymology”
• fForte Wissenschafterinnenkolleg “fForte –FreChe Materie“
• DK “Numerical Simulations in Technical Sciences”
• DK “Discrete Mathematics”
• DK/IGK “Optimization and Numerical Analysis for Partial Differential Equations with Nonsmooth Structures”
• 2 joint special research areas
• SFB “Mathematical Optimization and Applications in the Biomedical Sciences”
• SFB “Lipotoxicity: Lipid-induced Cell Dysfunction and Cell Death”
Core figures NAWI Graz infrastructure funding 2008 – 2014
• 100+ joint instrument acquisitions funded
• Total volume: 5.3 Mio Euros
• NAWI Graz funding: 2.3 Mio Euros
• 6 NAWI Graz Central Labs
• Total volume: 7 Mio Euros
• NAWI Graz Funding: approx. 2.8 Mio Euros
Graz Advanced School of Science (GASS)
• joint doctoral training within the framework of NAWI Graz
• separated PhD curricula on both universities; BUT
• harmonized statutes 5 involved doctoral schools
• these regulations of GASS fulfilling the requirements of the „Salzburg Criteria“
• state-of-the-art in terms in doctoral training
Graz Advanced School of Science (GASS)
Graz University of Technology
• Curriculum for the Doctoral Program of Engineering Science
• Curriculum for the Doctoral Program of Natural Science
University Graz
• Curriculum for the Doctoral Programme Natural Science
Common “Statutes of Doctoral School NAME”
Doctoral School Chemistry
23
David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Doctoral School Chemistry
Consisting of: teaching staff, PhD students (mainly 3 persons per university)
Coordinating Teams
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Aims
• Specification of a "general curriculum"
• Making Research Visible
• Facilitating Communication
• Enhancing Collaborations
• Providing a Platform for Information
• Addressing Specific Needs of PhD Students
EDUCATION
NETWORKING
VISIBILITY
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Organization
NAWI
Doctoral School
CHEMISTRY
DocDays
Seminars
Summer
Schools
Joint
advanced
courses/
lectures Travel
grants...
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Curriculum and Statutes
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Requirements
• 8 SWS* Lectures with contents related to Chemistry
• 4 SWS* Communication and Presentation
• 2 SWS* Privatissimum
• PhD-Student Seminar
* SWS:Semesterwochenstunden = Hours per week and
Semester, i.e. 1 SWS corresponds to 15 hours of teaching
per semester.
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Specific Lectures - Examples
• Paper Writing
• Writing a Proposal
• Advanced Topics in Chemistry
• Modern Aspects of Chemistry
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Statutes can be Adjusted
• Statutes are not part of a complicated curricular
procedures but can be adjusted.
• The adjusted rules have to be acknowledged by the
Commission for Doctoral Studies and University
Courses
• New members can be added (institutes, professors)
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Funding and Benefits
• Invited lectures
• Catering during the Doc
Days/Summer Schools
• Prizes
• Travel grants
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
COMMUNICATION
• Doc Days
• Summer School • Dedicated topics
• Lectures by prominent researchers
• Discussions
• PhD-student lectures with extended discussions
• Social events (conference dinner…)
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Doc Days / Summer Schools
DocDays (1–2 /year, 1–2 days)
June 2009 (First)
- current
Summer Schools (3 days)
(every two years)
Both types of events are exclusively
organized by PhD students.
(Exception: The topics and lecturers for
the summer schools are selected by the
coordinating teams of the Doctoral
School)
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Examples
Doctoral School Chemistry
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David Reishofer Maribor, 3. November 2014 Doc School Chemistry
Abstracts - Evaluations
13
Applying circular permutation to strictosidine synthase
Eva Fischereder, Desiree Pressnitz, Horst Lechner and Wolfgang Kroutil
Department of organic and bioorganic chemistry, University of Graz [email protected]
Keywords: Strictosidine synthase, Pictet-Spengler reaction, circular permutation, monoterpenoid-indole alkaloids,
non-natural aldehydes
Abstract:
Strictosidine synthase (STR) has been recognized as a key enzyme in the biosynthesis of indole alkaloids, including highly therapeutically valuable derivatives, via a Pictet Spengler reaction.
1 STR
from Rauvolfia serpentina was subjected to an enzyme engineering technique called circular permutation (cp).
2 Traditionally engineering techniques rely on amino acid substitution to alter enzyme
properties, instead circular permutation benefits of reorganizing a poly peptide chain. Conceptually cp
of a protein involves the covalent linkage of the native C- and N-termini by a peptide linker, followed by the cleavage of specific peptide bonds elsewhere in the peptide chain.
3 Based on the crystal structure
of the enzyme which resembles a six bladed β-propeller fold, two areas where chosen to be permuted. On the one hand a α-helix in blade three and a loop in blade five which together form a cap over the
active side. In total eleven permutants where synthesized whereby eight were able to convert the
natural substrates tryptamine and secologanine to form stereospecifically (S)-strictosidine. Since not much is known about non-natural
substrates transformed by this enzymes the cp library as well as a set of strictosidine synthases from naturalsources were tested against the chiral aldehyde R/S-citronellal. Unexpectedly the non-natural aldehyde showed promising results and was transformed by some natural synthases as well as by candidates of the permutation library.
Table 1: A = introduced permutation sides, B: biotransformation with the non-natural chiral aldehyde citronellal
References:
[1]
Stöckigt J., Antonchick A. P., Wu F., Waldmann H., Angew. Chem. Int. Ed. 2011, 50, 8538–8564. [2]
Cunningham B. A., Hemperly J. J., Hopp T. P., Edelman G. M., Biochemistry 1979, 76, 3218-3222. [3] Yu Y., Lutz S., Trends in Biotechnology 2011, 29, 18-25.
276
275
278
273A
B