Übungen - ANKA

LAS - Laboratorium für Applikationen der
Synchrotronstrahlung
M
LAS - Laboratorium für Applikationen der
Synchrotronstrahlung
AS
TE
R
Modern X-ray Physics
Modern X-ray Physics
Das LAS bietet Master-Studierenden der
Studiengänge
Physik
und
Materialwissenschaft in den Vorlesungen und
Übungen der Modern X-ray Physics Reihe (bauen nicht
aufeinander auf) theoretische sowie experimentelle Grundlagen in
verschiedenen
Röntgenstreumethoden.
Vorlesungen für Master-Studierende
6
EC
TS
Modern X-ray Physics:
Condensed Matter Physics with Synchrotron
Radiation
+ Übung
ECTS 2V+1Ü, 6 ECTS (Teilnahme + Problembehandlung)
Dozent Prof. Dr. T. Baumbach
Dr. S. Stankov
Tutor Dipl. Mineralogin Anja Seiler
Turnus nur im WS
Modern X-ray Physics:
Optical coherence in Microscopy, Tomography
and Diffraction
ANKA - Synchrotronstrahlungsquelle
KIT Campus Nord
Hermann-von-Helmholtz-Platz 1
D-76344 Eggenstein-Leopoldshafen
www.anka.kit.edu
LAS - Laboratorium für Applikationen der
Synchrotronstrahlung
KIT Campus Süd
Kaiserstr. 12
D-76131 Karlsruhe
www.las.physik.kit.edu
Master-Studium
S
LA
Herausgeber:
Karlsruher Institut für Technologie (KIT) - ANKA
© KIT 2013
I
+
www.anka.kit.edu
KIT – University of the State of Baden-Wuerttemberg and
National Research Center of the Helmholtz Association
AN
www.kit.edu
Vorlesungen
bauen nicht aufeinander
auf!
MoreDie
information
in Vorlesungsverzeichnis
and Modulhandbuch
Vorlesungen
Übungen
P
TC
+ Übung
ECTS 2V+1Ü, 6 ECTS (Teilnahme + Problembehandlung)
Dozent Prof. Dr. T. Baumbach
PD Dr. habil. R. Hofmann
Tutor Dipl. Phys. Martin Köhl / Dipl.-Phys. Philipp Schroth
Turnus im SS und WS
Kontakt
K Awww.kit.edu
IPS
Die Vorlesungen bauen nicht aufeinander auf!
Modern X-ray Physics
Modern X-ray Physics
Optical Coherence in Microscopy, Tomography and Diffraction...
Condensed Matter Physics with Synchrotron Radiation
ECTS
Dozent
Tutor
Turnus
The lectures give an introduction to X-ray physics and X-ray
techniques involving scattering, imaging, and spectroscopy.
These allow to characterize macroscopic, microscopic,
nanoscopic, and atomic structure properties ranging from
condensed-matter systems to living organisms.
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•
•
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•
ECTS
Dozent
2V+1Ü, 6 ECTS (Teilnahme + Problembehandlung)
Prof. Dr. T. Baumbach
PD Dr. habil. R. Hofmann
Dipl. Phys. Martin Köhl / Dipl. Phys. Philipp Schroth
im SS und WS
Which are the characteristic properties of X-rays
compared to other elementary probes (neutrons,
electrons, etc.)?
How do X-rays interact with matter?
What is common, what is special to X-ray optics
compared with light optics?
How do we use this in X-ray diagnostics and
analytics, studying structure and dynamics of
condensed matter, devices, and organisms?
Why and how can X-rays be used to probe several cm
thick volume specimen, as well as single atomic layers,
surfaces or buried interfaces?
How do coherent X-ray wave fields propagate through
homogeneous and through inhomogeneous media?
How do coherence properties develop during propagation in vacuum?
How do we describe the wave-field properties in the near
and far field, and how do we use both to
characterize our specimen?
X-ray methods for imaging of cells, tissues, organs and in vivo imaging of organisms
Tutor
Turnus
How can we use the interaction and propagation properties
of X-rays, e.g.,
•
to image 2D and 3D structures together with their evolution
achieving spatial resolutions from mm down to the nm?
•
to resolve the atomic structure of crystals, interfaces,
and membranes?
•
to reconstruct the nanostructure (e.g., shape, size,
strain, and composition) of dots, wires, rods?
•
to measure lattice strain and atomic displacements
in crystals and epitaxial films down to deep subatomic distances?
2V+1Ü, 6 ECTS (Teilnahme + Problembehandlung)
Prof. Dr. T. Baumbach
Dr. S. Stankov
Dipl. Mineralogin Anja Seiler
nur im WS
This lecture provides a bridge between the condensed-matter physics and X-ray scattering techniques accessible at
modern synchrotron radiation facilities.
The emphasis is given to nuclear-resonance scattering methods
for investigating magnetic, diffusion, and lattice dynamics phenomena in solids.
Special attention is paid to various applications of these techniques to thin films, surfaces, interfaces, and nanostructures.
What is X-ray diffractometry, coherent diffraction imaging,
X-ray holography, and X-ray topography?
How does computed tomography provide 3D images and
cine-tomography reconstruct spatiotemporal data?
And what can be discovered by hard X-ray microscopy?
Which modern X-ray sources, detectors, and optics are
available, and how do they function?
Which unique research opportunities are offered by modern
synchrotron radiation facilities?
How can we contribute with X-ray physics and advanced X-ray
technology to
•
solid state physics / condensed matter research
•
nano sciences
•
life sciences
•
materials research •
cultural heritages?
X-ray medhods for In-situ and in-operando characterization of materials and devices
Die Vorlesungen bauen nicht aufeinander auf!
“The nuclear resonance scattering methods accessible at third-generation
synchrotron radiation sources:
European Synchrotron Radiation Facility (France), Advance Light Source (USA),
Spring 8 (Japan) and PETRA III (Germany).“