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Theoretical Nuclear Physics - 05-21-3282-vl

Digital Teaching
The lectures will take place in person.

Course Contents
This course provides an introduction to modern nuclear theory, including many concepts and methods that are applicable across physics fields. The discussion and homework problems are designed to improve the understanding and to explore the topics covered in the lecture.

Course outline:

1. Guiding principles

2. Nuclei and strong interactions

3. Nuclear forces: scattering and bound states

4. Effective theories for low energies

5. Many-body basics for fermions

6. Many-body methods for nuclei and nuclear matter

7. Chiral interactions and applications to nuclei

Literature
Detailed lecture notes will be provided for each chapter of the course, including literature recommendations for further reading.

Preconditions
Theoretical Physics II (Quantum Mechanics), IV (Statistical Mechanics), and Physics VI (Nuclear Physics).

Expected Number of Participants
40

Online Offerings
Lecture materials, including lecture notes, exercises and solutions, will be provided via Moodle.

Categoría: FB05 Physik
Semester: WT 2025/26
Jupyterhub API Server: https://tu-jupyter-t.ca.hrz.tu-darmstadt.de

Theoretical Particle Physics - 05-21-1122-vl

Digital Teaching
Lecture and exercise sessions in person. Supplementary materials on moodle.

Course Contents
[list]
[*]Overview: standard model of particle physics
[*]Tools of theoretical particle physics
[*]Strong interactions
[*]Electroweak interactions
[*]Physics beyond the standard model
[/list]

Literature
[list]
[*]M.E. Peskin, Concepts of elementary particle physics, Oxford University Press, 2019
[*]F. Halzen, A. Martin, Quarks and Leptons: An Introductory Course in Modern Particle Physics, Wiley, 1984
[*]D. Griffiths, Introduction to Elementary Particles, Wiley-VCH, 2008
[*]D. Perkins, Introduction to High Energy Physics, Cambridge University Press, 2006
[/list]

Preconditions
Knowledge and competences in the topics of the lectures Theoretical Physics I-V, especially quantum mechanics, symmetries and classical field theory.

Expected Number of Participants
20

Online Offerings
moodle

Categoría: FB05 Physik
Semester: WT 2025/26
Jupyterhub API Server: https://tu-jupyter-t.ca.hrz.tu-darmstadt.de

Tunable properties in nanomaterials - 11-01-2018-vl

Lehrinhalte
The conventional control of material properties is achieved by compositional (e.g. alloying) or microstructural modifications, such as variation of grain size, introduction of point (e.g. vacancies, dopant atoms), line (dislocations, twins) or planar (stacking faults) defects etc. These modifications establish relationships between microstructure and material properties.

Going beyond these well-known concepts, the present course will introduce the idea and physics behind the reversible control of material properties. Among others, the electric potential as control parameter will be discussed in detail; especially dielectric and electrolytic gating concepts in printed electronics will be covered. Besides the electric potential, reversible chemical surface and bulk reactions can control the properties of a material in a reversible manner. In this context case studies of reversible and irreversible modifications of magnetic and electrical properties will be presented and connected to state of the art research results (e.g. nanostructured materials for energy storage, novel high entropy alloy materials).

Categoría: FB11 Material- und Geowissenschaften
Semester: ST 2022
Jupyterhub API Server: https://tu-jupyter-t.ca.hrz.tu-darmstadt.de

Tunable properties in nanomaterials - 11-01-2018-vl

Lehrinhalte
The conventional control of material properties is achieved by compositional (e.g. alloying) or microstructural modifications, such as variation of grain size, introduction of point (e.g. vacancies, dopant atoms), line (dislocations, twins) or planar (stacking faults) defects etc. These modifications establish relationships between microstructure and material properties.

Going beyond these well-known concepts, the present course will introduce the idea and physics behind the reversible control of material properties. Among others, the electric potential as control parameter will be discussed in detail; especially dielectric and electrolytic gating concepts in printed electronics will be covered. Besides the electric potential, reversible chemical surface and bulk reactions can control the properties of a material in a reversible manner. In this context case studies of reversible and irreversible modifications of magnetic and electrical properties will be presented and connected to state of the art research results (e.g. nanostructured materials for energy storage, novel high entropy alloy materials).

Categoría: FB11 Material- und Geowissenschaften
Semester: ST 2021
Jupyterhub API Server: https://tu-jupyter-t.ca.hrz.tu-darmstadt.de
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