Your workplace:
- You will independently hold courses in accordance with the provisions of the collective agreement. (The 20 hours per week workload includes an average of 12 semester hours of instructional teaching/semester.)
- You will take on administrative tasks, especially in the administration of teaching.
- We expect from you the ongoing reception of the current state of science as well as the didactic further training especially during the lecture-free time.
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Your working place:
- You implement software products based on existing design documents for ELT instruments.
- You define, install, and maintain the network infrastructure needed to connect software and hardware during instrument Assembly, Integration, and Testing (AIT).
- You collaborate with the astronomers and instrument-builders in the MICADO and METIS consortia teams to test, verify, update, and document software and operational use cases.
- You solve technical IT challenges during integration in the AIT construction hall and later at the telescope site.
- You work closely with local scientists to guarantee that the developed software meets or exceeds ESO’s scientific and performance requirements.
- You hold courses independently within the scope of the provisions of the collective bargaining agreement.
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Your personal sphere of play:
- Management of the geoscientific X-ray diffraction laboratory "GeoX" in particular the technical maintenance of the instruments, as well as ensuring and documenting the operation of the individual diffractometers, as well as administration of the user base.
- Performing measurements, evaluations, report preparation, and invoicing for contract analyses in the field of X-ray crystallography.
- Supporting and training independent instrument users.
- Teaching theory and practice in X-ray crystallography and its application to powder diffractometry, X-ray phase analysis, and X-ray structure determination, with an extent of teaching as required by the universities' collective bargaining agreement.
- Willingness to collaborate across departments, faculties, and universities with research groups from various areas of materials-oriented geosciences and chemistry, especially within the future competence platform Cryst@VIE.
- Responsible implementation of the relevant official radiation protection guidelines for the operation of the instruments and relevant laboratory facilities, as well as interaction and communication with the responsible authorities.
- Willingness to raise third-party funds, and to establish and maintain active industry contacts.
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Tenure-Track Professorship in Demography and Human Capital Formation
- Doctoral degree/PhD
- Two years of international research experience during or after doctoral studies
- Outstanding research achievements, excellent publication and funding record, international reputation
- Gender and diversity competence
- Experience in designing of and participating in research projects, ability to lead research groups and acquire third-party funding
- Enthusiasm for excellent teaching and supervision at the bachelor's, master's, and doctoral level
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Your personal sphere of play:
The research group “Atmospheric Transport Processes”, led by Prof. Andreas Stohl, is part of the Department of Meteorology and Geophysics. The group develops the Lagrangian transport model FLEXPART and studies all aspects of transport in the atmosphere, ranging from greenhouse gases to pollutants, water vapour and heat, and we use inverse modelling techniques to determine sources of greenhouse gases, radionuclides, or air pollutants. Our future research strategy also includes studies of the higher atmosphere.
To learn more about our team, we invite you to visit our website: https://flexteam.univie.ac.at/. To learn more about FLEXPART, visit https://www.flexpart.eu/.
We seek a highly motivated postdoctoral researcher, who will contribute to the research conducted in our team. While we expect you to work with the FLEXPART model, you can also propose your own research topics. These could be, for instance, theoretical and numerical improvements of FLEXPART, development of new application fields for the model, or novel applications of the model in research fields that we already cover (e.g., analysis of ice core data; transport of heat, water, greenhouse gases, radionuclides or air pollutants in the atmosphere; inverse modelling; Lagrangian re-analyses; transport climatologies).
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