Technical University of Munich (TUM)
Technische Universität München (TUM)

Germany

The Technical University of Munich (TUM) is one of Europe’s leading universities in research and teaching. As the Entrepreneurial University, it doesn’t just want to understand the world – it wants to improve it. That is why the entire university revolves around one core goal: innovation.

Interdisciplinary solutions to future challenges

TUM’s unparalleled range of disciplines covers engineering and natural sciences, life sciences and medicine, management and social sciences – a combination found nowhere else in Europe. TUM leverages this enormous potential by intensively and intelligently combining the different subjects. This inspires modern fields of research extending from bioengineering to machine intelligence. At the same time, TUM links technological change more closely with social, political and ethical issues than other technical university.
www.tum.de

Excellent career prospects for graduates

Its outstanding degree programs are strongly oriented towards research and, at the same time, tightly coupled to practical experience. Managers regularly choose TUM as one of the 10 best universities worldwide for the quality of graduates. (Global Employability University Rankings)

TUM offers amazing opportunities at every level of study and research – starting with the first semester right through to professorship. It invests more than other universities in the professional development of individual talent.
www.tum.de/studies

Awakening the entrepreneurial spirit

No other German university produces more start-up founders – the result of a support infrastructure unrivalled in Europe. TUM also builds long-term research partnerships with the most innovative global players. More and more companies are establishing roots directly on campus.

A global university

TUM is an international university with a high proportion of foreign students and researchers as well as more than 150 partner universities around the globe. With the founding of TUM Asia in 2012 in Singapore, it became the first German university to establish an overseas campus. TUM also has offices in Brussels, Cairo, Mumbai, Beijing, San Francisco, and São Paulo.
www.tum.de/global

Among the top

TUM was awarded the title of “University of Excellence” in 2006 and 2012 in recognition of its innovative, dynamic culture. Far from resting on its laurels, though, TUM remains entrepreneurial – constantly striving to reach new heights.
www.exzellenz.tum.de

Portrait: Technical University of Munich – 150 Years culture of excellence

1 November 2017 - 31 October 2018

Region: Global
Subject/journal group: All

The table to the right includes counts of all research outputs for Technical University of Munich (TUM) published between 1 November 2017 - 31 October 2018 which are tracked by the Nature Index.

Hover over the donut graph to view the FC output for each subject. Below, the same research outputs are grouped by subject. Click on the subject to drill-down into a list of articles organized by journal, and then by title.

Note: Articles may be assigned to more than one subject area.

AC	FC
477	131.28

Outputs by subject (FC)

Subject	AC	FC
Earth & Environmental Sciences	26	7.02
Life Sciences	182	30.75
Physical Sciences	195	55.51
ACS Nano	5	1.67
Advanced Functional Materials	5	2.16
Advanced Materials	3	0.31
Applied Physics Letters	11	3.36
European Physical Journal C	22	4.06
Journal of High Energy Physics	29	10.45
Monthly Notices of the Royal Astronomical Society: Letters	1	0
Nano Letters	17	5.61
Nature	4	2.64
Nature Communications	24	6.05
Nature Materials	2	0.25
Nature Nanotechnology	1	0.11
Nature Photonics	2	0.17
Nature Physics	4	0.66
Physical Review B	15	3.05
Physical Review Letters	25	6.64
Physical Review X	5	1.34
Proceedings of the National Academy of Sciences of the United States of America	10	4.51
Science	3	1.18
Science Advances	1	1
The Astrophysical Journal Letters	6	0.29
Chemistry	140	59.93

Highlight of the month

Photoelectric effect timed by atomic clock

An atomic stopwatch has clocked the photoelectric effect to within a few billionths of a billionth of a second.

The photoelectric effect, for which Albert Einstein was awarded his Nobel prize, occurs when a metal absorbs high-energy light and releases an electron. The reaction is so rapid that only the direction and energy of escaping electrons have been accurately measured, until now.

A team that included researchers from the Technological University of Munich stuck iodine atoms onto a tungsten crystal and hit them with X-rays. Iodine atoms react extremely quickly to X-rays so served as a stopwatch for the moment the X-rays hit the crystal’s surface, while a laser pulsing above the crystal measured the arrival time of the escaping tungsten electron. This enabled the researchers to calculate the photoelectric effect duration with attosecond (10⁻¹⁸ second) accuracy, and they observed tungsten generate photoelectrons in about 40 attoseconds.

Understanding photochemical reactions on different surfaces could help improve the efficiency of harvesting solar energy.

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