Name: QURS Days 2024
Start: 2024-02-05T08:30:00+01:00
End: 2024-02-08T20:00:00+01:00
Location: Campus Bahrenfeld, Bldg. 99 (CFEL)

QURS Days 2024

from Monday 5 February 2024 (08:30) to Thursday 8 February 2024 (20:00)

Monday 5 February 2024

08:30 Registration
Registration
08:30 - 09:00
09:00 Introductory course Higgs - Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
Introductory course Higgs
- Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
09:00 - 10:15
Room: SR III The Higgs boson was discovered in 2012 as the last missing piece of the Standard Model of Particle Physics. It is often seen as a key particle in our search for the origins of dark matter and the matter-antimatter asymmetry. In these lecture, I will cover basic Higgs theory, the discovery of the Higgs boson, and our state-of-the-art knowledge of the Higgs boson properties, as well as possible connections to physics beyond the Standard Model.
Introductory course: GW detection - Gudrun Wanner
Introductory course: GW detection
- Gudrun Wanner
09:00 - 10:15
Room: SR I In this lecture, we will discuss a number of fundamental questions concerning gravitational wave detection with a particular focus on the space-based gravitational wave detector LISA. With these questions and their high-level answers, we will work on an overview spanning all relevant aspects: What are gravitational waves, what is their effect, and how can they be measured? Why do we need multiple detectors on the ground and, additionally, a space-based detector (or several)? What do we learn from gravitational wave detection? What are the key differences between ground-based and space-based detectors, and how does a space-based gravitational wave detector like LISA actually work? We will substantiate the fundamental and conceptual overview with a number of technical details. For example, we will speak about Gaussian beams, laser frequency noise, time-delay interferometry, power spectral densities, the computation of LISA sensitivity curves, and many more. Chair: Oliver Gerberding
10:15 Coffee break
Coffee break
10:15 - 10:45
10:45 Introductory course: DM - Hyungjin Kim (T (Cosmology))
Introductory course: DM
- Hyungjin Kim (T (Cosmology))
10:45 - 12:00
Room: SR I In this lecture, we will discuss the basics of dark matter. In particular, we discuss the evidence of dark matter from astrophysical scales to cosmological scales, for instance, galaxy rotation curves, lensing, cosmic microwave background, etc. We then discuss the cosmological origin of dark matter, namely how it is produced in the first few seconds of the universe, how it evolves throughout the history of the universe, and how it affects the structure of the universe we observe today. Lastly we will briefly discuss possible ways to detect dark matter with terrestrial detectors and with astrophysical observation. This includes conventional dark matter direct and indirect detection strategies. Chair: Dieter Horns
Introductory course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Introductory course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
10:45 - 12:00
Room: SR III The geometry and topology of supergravity. The term supergravity refers to a class of gravitational theories invariant under a conjectured symmetry called supersymmetry. Once considered as a potential candidate for a theory of everything, supergravity is nowadays understood as the low energy limit of string theory and as such, supergravity has played a fundamental role in our current understanding of the latter. Aside from its remarkable relevance in modern theoretical physics, supergravity has had, and continues to have, a tremendous impact on the development of differential geometry and topology. In this set of lectures, I will give an elementary introduction to four-dimensional supergravity, focusing on its most important applications to differential geometry and topology and describing some of its most salient features from a mathematical physics perspective. In particular, I will give a pedagogical introduction about how idealized exact gravitational waves naturally occur as supersymmetric solutions of four-dimensional ungauged supergravity. Chair: Mateo Galdeano
12:00 Break (coffee and tea will be served from 1pm on)
Break (coffee and tea will be served from 1pm on)
12:00 - 13:30
13:30 Advanced course: GW - Andrea Mitridate (T (Cosmology))
Advanced course: GW
- Andrea Mitridate (T (Cosmology))
13:30 - 14:45
Room: SR I Title: GW detection with PTAs Abstract: In this lecture, we will review the basics of Gravitational Waves (GWs) detection using Pulsar Timing Arrays (PTAs). We will start by discussing how GWs perturb the apparent period of pulsars and derive the famous Hellings and Downs correlation curve describing the correlation of these perturbations among pairs of pulsars. Armed with these results, we will look into methods to dig out these GW-induced perturbations from detector and astrophysical noise and characterize possible GW signals. Finally, we will review the recent results presented by several PTA collaborations claiming the presence of a GW background in the nHZ window and discuss possible interpretations of this background. Chair: Oliver Gerberding
Advanced course: Higgs - Johannes Braathen (T (Phenomenology))
Advanced course: Higgs
- Johannes Braathen (T (Phenomenology))
13:30 - 14:45
Room: SR III Abstract: This lecture will provide an overview of some of the main questions of modern research around the Higgs boson at the LHC and future experiments. A first part of the lectures will discuss the crucial role of the Higgs boson to probe Physics beyond the Standard Model (our current best description of Physics at high energies, but which we know to be only an effective theory of some more complete theory of Nature). In particular, we will review a number of deficiencies of the Standard Model – hierarchy problems, matter-antimatter asymmetry of the Universe, dark matter, inflation, etc. – and how these relate to the Higgs sector. Next, we will consider properties of the Higgs boson that can be accessed experimentally – its mass, decay widths, trilinear self-coupling, etc. – and what can be learnt from them. Finally, we will consider the relation between the Higgs sector, the dynamics of the electroweak phase transitions, and the evolution of the early Universe.
Key skills: Introduction to Markow-Chain Monte Carlo Techniques - Steffen Schumann (Uni Goettingen)
Key skills: Introduction to Markow-Chain Monte Carlo Techniques
- Steffen Schumann (Uni Goettingen)
13:30 - 14:45
Room: SR II Monte Carlo methods are omnipresent in the physical sciences. Use cases include, for example, multi-dimensional integration, parameter-space explorations and Bayesian inference. In this lecture an introduction to Monte Carlo techniques will be given, including Importance Sampling, Markov Chain Monte Carlo and Nested Sampling with application examples from high-energy physics to cosmology.
14:45 Coffee break
Coffee break
14:45 - 15:15
15:15 Advanced course: DM - Hyungjin Kim (T (Cosmology))
Advanced course: DM
- Hyungjin Kim (T (Cosmology))
15:15 - 16:30
Room: SR I In the advanced dark matter lectures, we cover a specific class of dark matter candidate, wave dark matter. The wave dark matter encompasses a wide range of bosonic dark matter candidates whose mass is smaller than several electron-volt scales. Being that light, it behaves similar to classical waves rather than a particle, offering unique phenomenology across scales. We will discuss some of the theoretical motivations of wave dark matter. We will also discuss its behavior in the early universe, e.g. how it is produced. Furthermore, we will discuss unique phenomenological consequences of wave dark matter over astrophysical and cosmological scales, emphasizing its differences and similarities with usual particle dark matter. Finally we will discuss several detection strategies for wave dark matter.
Advanced course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Advanced course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
15:15 - 16:30
Room: SR III The geometry and topology of supergravity. In this set of lectures, I will give an introduction to the ongoing quest of discovering the mathematical theory of four-dimensional ungauged supergravity and developing its potential applications to geometry and topology. In particular, I will use the cohomology of an appropriately chosen locally constant sheaf to implement the Dirac- Schwinger-Zwanziger integrality condition on four-dimensional classical ungauged supergravity, interpreting it geometrically to obtain its duality-covariant, gauge-theoretic, differential-geometric global model. Using this construction, I will prove that four-dimensional bosonic ungauged supergravity is completely determined by a choice of polarized Siegel bundle defined over the total space of a vertically Riemannian submersion equipped with a complete Ehresmann connection, showing that its gauge sector reduces to a polarized self-duality condition for connections on the underlying polarized Siegel bundle. Furthermore, I will explore the continuous and arithmetic U-duality groups of the theory, characterizing them through short exact sequences and realizing the latter through the automorphism group of the underlying Siegel bundle acting on its adjoint bundle. This elucidates the geometric origin of U-duality and justifies its miraculous existence in supergravity as a gauge group. Finally, and time permitting, I will discuss the structure of a simple class of supersymmetric solutions in supergravity, explaining how the concept of idealized gravitational wave arises naturally in this context
Key skills: Quantum Computing - Frank Schlawin (MPSD)
Key skills: Quantum Computing
- Frank Schlawin (MPSD)
15:15 - 16:30
Room: SR II In this lecture, we will provide an overview of the most important concepts in quantum computing. Starting from an introduction to elementary quantum gates, we will analyze how these can be combined into algorithms with the promise to speed up calculations compared to their classical counterparts. This will be followed by a brief overview of the most promising platforms for the implementation of a universal quantum computer and developments in the current noisy intermediate-scale quantum (NISQ) era. Chair: Dieter Horns
16:30 Break
Break
16:30 - 17:00
17:00 ECR News and Announcements - Matthias Koschnitzke (T (Phenomenology)) Gulden Othman (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))
ECR News and Announcements
- Matthias Koschnitzke (T (Phenomenology))
- Gulden Othman (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))
17:00 - 17:10
Room: SR I-III Zoom https://uni-hamburg.zoom.us/j/64337689760?pwd=aFNwVDN4MnBOTlQxOE4xd3lDMHBSQT09 Meeting-ID: 643 3768 9760 Kenncode: 86228795
17:10 MINGZ introduction and IDP - Anne-Catherine Zappe (Universität Hamburg)
MINGZ introduction and IDP
- Anne-Catherine Zappe (Universität Hamburg)
17:10 - 17:30
Room: SR I-III Zoom https://uni-hamburg.zoom.us/j/64337689760?pwd=aFNwVDN4MnBOTlQxOE4xd3lDMHBSQT09 Meeting-ID: 643 3768 9760 Kenncode: 86228795
17:30 Panel Discussion on Mental Health - Henriette Ullmann (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik)) Marios Maroudas (HH_F (Forschung)) Birte Walther (BGM (Betriebliches Gesundheitsmanagement)) Annette Juchems-Brohl (psychologist from UHH)
Panel Discussion on Mental Health
- Henriette Ullmann (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))
- Marios Maroudas (HH_F (Forschung))
- Birte Walther (BGM (Betriebliches Gesundheitsmanagement))
- Annette Juchems-Brohl (psychologist from UHH)
17:30 - 18:15
Room: SR I-III Mental health services at DESY and UHH by Annette Juchems-Brohl from UHH, Birte Walther from DESY (tbc), and Henriette from QU Zoom https://uni-hamburg.zoom.us/j/64337689760?pwd=aFNwVDN4MnBOTlQxOE4xd3lDMHBSQT09 Meeting-ID: 643 3768 9760 Kenncode: 86228795
18:15 Dinner
Dinner
18:15 - 20:00
Tuesday 6 February 2024
09:00 Introductory course: GW detection - Gudrun Wanner
Introductory course: GW detection
- Gudrun Wanner
09:00 - 10:15
Room: SR I In this lecture, we will discuss a number of fundamental questions concerning gravitational wave detection with a particular focus on the space-based gravitational wave detector LISA. With these questions and their high-level answers, we will work on an overview spanning all relevant aspects: What are gravitational waves, what is their effect, and how can they be measured? Why do we need multiple detectors on the ground and, additionally, a space-based detector (or several)? What do we learn from gravitational wave detection? What are the key differences between ground-based and space-based detectors, and how does a space-based gravitational wave detector like LISA actually work? We will substantiate the fundamental and conceptual overview with a number of technical details. For example, we will speak about Gaussian beams, laser frequency noise, time-delay interferometry, power spectral densities, the computation of LISA sensitivity curves, and many more.
Introductory course: Higgs - Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
Introductory course: Higgs
- Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
09:00 - 10:15
Room: SR III The Higgs boson was discovered in 2012 as the last missing piece of the Standard Model of Particle Physics. It is often seen as a key particle in our search for the origins of dark matter and the matter-antimatter asymmetry. In these lecture, I will cover basic Higgs theory, the discovery of the Higgs boson, and our state-of-the-art knowledge of the Higgs boson properties, as well as possible connections to physics beyond the Standard Model.
10:15 Coffee break
Coffee break
10:15 - 10:45
10:45 Introductory course: DM - Hyungjin Kim (T (Cosmology))
Introductory course: DM
- Hyungjin Kim (T (Cosmology))
10:45 - 12:00
Room: SR I In this lecture, we will discuss the basics of dark matter. In particular, we discuss the evidence of dark matter from astrophysical scales to cosmological scales, for instance, galaxy rotation curves, lensing, cosmic microwave background, etc. We then discuss the cosmological origin of dark matter, namely how it is produced in the first few seconds of the universe, how it evolves throughout the history of the universe, and how it affects the structure of the universe we observe today. Lastly we will briefly discuss possible ways to detect dark matter with terrestrial detectors and with astrophysical observation. This includes conventional dark matter direct and indirect detection strategies.
Introductory course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Introductory course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
10:45 - 12:00
Room: SR III The geometry and topology of supergravity. The term supergravity refers to a class of gravitational theories invariant under a conjectured symmetry called supersymmetry. Once considered as a potential candidate for a theory of everything, supergravity is nowadays understood as the low energy limit of string theory and as such, supergravity has played a fundamental role in our current understanding of the latter. Aside from its remarkable relevance in modern theoretical physics, supergravity has had, and continues to have, a tremendous impact on the development of differential geometry and topology. In this set of lectures, I will give an elementary introduction to four-dimensional supergravity, focusing on its most important applications to differential geometry and topology and describing some of its most salient features from a mathematical physics perspective. In particular, I will give a pedagogical introduction about how idealized exact gravitational waves naturally occur as supersymmetric solutions of four-dimensional ungauged supergravity.
12:00 Break (coffee and tea will be served from 1pm on)
Break (coffee and tea will be served from 1pm on)
12:00 - 13:30
13:30 Advanced course: GW - Andrea Mitridate (T (Cosmology))
Advanced course: GW
- Andrea Mitridate (T (Cosmology))
13:30 - 14:45
Room: SR I Title: GW detection with PTAs Abstract: In this lecture, we will review the basics of Gravitational Waves (GWs) detection using Pulsar Timing Arrays (PTAs). We will start by discussing how GWs perturb the apparent period of pulsars and derive the famous Hellings and Downs correlation curve describing the correlation of these perturbations among pairs of pulsars. Armed with these results, we will look into methods to dig out these GW-induced perturbations from detector and astrophysical noise and characterize possible GW signals. Finally, we will review the recent results presented by several PTA collaborations claiming the presence of a GW background in the nHZ window and discuss possible interpretations of this background.
Advanced course: Higgs - Johannes Braathen (T (Phenomenology))
Advanced course: Higgs
- Johannes Braathen (T (Phenomenology))
13:30 - 14:45
Room: SR III This lecture will provide an overview of some of the main questions of modern research around the Higgs boson at the LHC and future experiments. A first part of the lectures will discuss the crucial role of the Higgs boson to probe Physics beyond the Standard Model (our current best description of Physics at high energies, but which we know to be only an effective theory of some more complete theory of Nature). In particular, we will review a number of deficiencies of the Standard Model – hierarchy problems, matter-antimatter asymmetry of the Universe, dark matter, inflation, etc. – and how these relate to the Higgs sector. Next, we will consider properties of the Higgs boson that can be accessed experimentally – its mass, decay widths, trilinear self-coupling, etc. – and what can be learnt from them. Finally, we will consider the relation between the Higgs sector, the dynamics of the electroweak phase transitions, and the evolution of the early Universe.
Key skills: High Performance Computing - Martin Stieben (PHYSnet)
Key skills: High Performance Computing
- Martin Stieben (PHYSnet)
13:30 - 14:45
Room: SR II Introduction to PHYSnet and UHH GPU-Ressources The PHYSnet-RZ as well as the UHH-RRZ each provide compute resources, including GPUs, for you. This talk will provide you with an overview of the available resources, their differences and individual target use-cases and how-to access them. We will focus on GPUs in particular, as this type of accelerator hardware currently receives a lot of attention due to its particular benefits for increasingly popular machine-learning use-cases. We will discuss GPU's potential in speeding up your computations along with which use-cases do or don't benefit from including GPUs and why that's the case. The talk will include a short live demonstration on how-to access the PHYSnet compute cluster, setup a common base-environment for machine learning tasks with Python and run a tiny example compute job using GPUs. Chair: Dieter Horns
14:45 Coffee break
Coffee break
14:45 - 15:00
15:00 Advanced course: DM - Hyungjin Kim (T (Cosmology))
Advanced course: DM
- Hyungjin Kim (T (Cosmology))
15:00 - 16:15
Room: SR I In the advanced dark matter lectures, we cover a specific class of dark matter candidate, wave dark matter. The wave dark matter encompasses a wide range of bosonic dark matter candidates whose mass is smaller than several electron-volt scales. Being that light, it behaves similar to classical waves rather than a particle, offering unique phenomenology across scales. We will discuss some of the theoretical motivations of wave dark matter. We will also discuss its behavior in the early universe, e.g. how it is produced. Furthermore, we will discuss unique phenomenological consequences of wave dark matter over astrophysical and cosmological scales, emphasizing its differences and similarities with usual particle dark matter. Finally we will discuss several detection strategies for wave dark matter.
Advanced course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Advanced course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
15:00 - 16:15
Room: SR III The geometry and topology of supergravity. In this set of lectures, I will give an introduction to the ongoing quest of discovering the mathematical theory of four-dimensional ungauged supergravity and developing its potential applications to geometry and topology. In particular, I will use the cohomology of an appropriately chosen locally constant sheaf to implement the Dirac- Schwinger-Zwanziger integrality condition on four-dimensional classical ungauged supergravity, interpreting it geometrically to obtain its duality-covariant, gauge-theoretic, differential-geometric global model. Using this construction, I will prove that four-dimensional bosonic ungauged supergravity is completely determined by a choice of polarized Siegel bundle defined over the total space of a vertically Riemannian submersion equipped with a complete Ehresmann connection, showing that its gauge sector reduces to a polarized self-duality condition for connections on the underlying polarized Siegel bundle. Furthermore, I will explore the continuous and arithmetic U-duality groups of the theory, characterizing them through short exact sequences and realizing the latter through the automorphism group of the underlying Siegel bundle acting on its adjoint bundle. This elucidates the geometric origin of U-duality and justifies its miraculous existence in supergravity as a gauge group. Finally, and time permitting, I will discuss the structure of a simple class of supersymmetric solutions in supergravity, explaining how the concept of idealized gravitational wave arises naturally in this context
16:15 Break
Break
16:15 - 16:30
16:30 Key skills: Time management - Matthias Mayer (mmsc.de)
Key skills: Time management
- Matthias Mayer (mmsc.de)
16:30 - 17:45
Room: SR I-III Learn how to unlock the secrets to academic time mastery with our power-packed workshop! You will receive directly applicable strategies. Visit this session as your introduction to conquering overwhelming research challenges, defeating procrastination, and optimizing your daily routines for peak productivity. Key Takeaways: 1. Plan long term: cultivate setting clear goals and have a realistic plan (free master plan template included) 2. Use the daily lists & calendar system - manage all your to-dos reliably 3. Kiss your frog daily! 4. Establish phases of highest concentration - follow specific protocols for optimal productivity 5. Align your days to your Ideal Workday - re-think what you do when 6. Plan weekly - install this ritual to connect short & long term planning and to ensure great work-life balance Join this transformative session and leave with specific strategies to fine-tune your time management. Enroll now to accelerate your academic success in just 1 1/4 hours. This workshop is conducted by Dr. Matthias Mayer, founder of the [young scientists' academy](https://youngscientistsacademy.com/).
Wednesday 7 February 2024
09:00 Introductory course: GW detection - Gudrun Wanner
Introductory course: GW detection
- Gudrun Wanner
09:00 - 10:15
Room: SR I In this lecture, we will discuss a number of fundamental questions concerning gravitational wave detection with a particular focus on the space-based gravitational wave detector LISA. With these questions and their high-level answers, we will work on an overview spanning all relevant aspects: What are gravitational waves, what is their effect, and how can they be measured? Why do we need multiple detectors on the ground and, additionally, a space-based detector (or several)? What do we learn from gravitational wave detection? What are the key differences between ground-based and space-based detectors, and how does a space-based gravitational wave detector like LISA actually work? We will substantiate the fundamental and conceptual overview with a number of technical details. For example, we will speak about Gaussian beams, laser frequency noise, time-delay interferometry, power spectral densities, the computation of LISA sensitivity curves, and many more.
Introductory course: Higgs - Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
Introductory course: Higgs
- Sarah Heim (ATLAS (ATLAS Dark Matter with Higgs))
09:00 - 10:15
Room: SR III The Higgs boson was discovered in 2012 as the last missing piece of the Standard Model of Particle Physics. It is often seen as a key particle in our search for the origins of dark matter and the matter-antimatter asymmetry. In these lecture, I will cover basic Higgs theory, the discovery of the Higgs boson, and our state-of-the-art knowledge of the Higgs boson properties, as well as possible connections to physics beyond the Standard Model.
10:15 Coffee break
Coffee break
10:15 - 10:45
10:45 Introductory course: DM - Hyungjin Kim (T (Cosmology))
Introductory course: DM
- Hyungjin Kim (T (Cosmology))
10:45 - 12:00
Room: SR I In this lecture, we will discuss the basics of dark matter. In particular, we discuss the evidence of dark matter from astrophysical scales to cosmological scales, for instance, galaxy rotation curves, lensing, cosmic microwave background, etc. We then discuss the cosmological origin of dark matter, namely how it is produced in the first few seconds of the universe, how it evolves throughout the history of the universe, and how it affects the structure of the universe we observe today. Lastly we will briefly discuss possible ways to detect dark matter with terrestrial detectors and with astrophysical observation. This includes conventional dark matter direct and indirect detection strategies.
Introductory course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Introductory course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
10:45 - 12:00
Room: SR III The geometry and topology of supergravity. The term supergravity refers to a class of gravitational theories invariant under a conjectured symmetry called supersymmetry. Once considered as a potential candidate for a theory of everything, supergravity is nowadays understood as the low energy limit of string theory and as such, supergravity has played a fundamental role in our current understanding of the latter. Aside from its remarkable relevance in modern theoretical physics, supergravity has had, and continues to have, a tremendous impact on the development of differential geometry and topology. In this set of lectures, I will give an elementary introduction to four-dimensional supergravity, focusing on its most important applications to differential geometry and topology and describing some of its most salient features from a mathematical physics perspective. In particular, I will give a pedagogical introduction about how idealized exact gravitational waves naturally occur as supersymmetric solutions of four-dimensional ungauged supergravity.
12:00 Break (coffee and tea will be served from 1pm on)
Break (coffee and tea will be served from 1pm on)
12:00 - 13:30
13:30 Advanced course: GW - Andrea Mitridate (T (Cosmology))
Advanced course: GW
- Andrea Mitridate (T (Cosmology))
13:30 - 14:45
Room: SR I Title: GW detection with PTAs Abstract: In this lecture, we will review the basics of Gravitational Waves (GWs) detection using Pulsar Timing Arrays (PTAs). We will start by discussing how GWs perturb the apparent period of pulsars and derive the famous Hellings and Downs correlation curve describing the correlation of these perturbations among pairs of pulsars. Armed with these results, we will look into methods to dig out these GW-induced perturbations from detector and astrophysical noise and characterize possible GW signals. Finally, we will review the recent results presented by several PTA collaborations claiming the presence of a GW background in the nHZ window and discuss possible interpretations of this background.
Advanced course: Higgs - Johannes Braathen (T (Phenomenology))
Advanced course: Higgs
- Johannes Braathen (T (Phenomenology))
13:30 - 14:45
Room: SR III This lecture will provide an overview of some of the main questions of modern research around the Higgs boson at the LHC and future experiments. A first part of the lectures will discuss the crucial role of the Higgs boson to probe Physics beyond the Standard Model (our current best description of Physics at high energies, but which we know to be only an effective theory of some more complete theory of Nature). In particular, we will review a number of deficiencies of the Standard Model – hierarchy problems, matter-antimatter asymmetry of the Universe, dark matter, inflation, etc. – and how these relate to the Higgs sector. Next, we will consider properties of the Higgs boson that can be accessed experimentally – its mass, decay widths, trilinear self-coupling, etc. – and what can be learnt from them. Finally, we will consider the relation between the Higgs sector, the dynamics of the electroweak phase transitions, and the evolution of the early Universe.
14:45 Coffee break
Coffee break
14:45 - 15:15
15:15 Advanced course: DM - Hyungjin Kim (T (Cosmology))
Advanced course: DM
- Hyungjin Kim (T (Cosmology))
15:15 - 16:30
Room: SR I In the advanced dark matter lectures, we cover a specific class of dark matter candidate, wave dark matter. The wave dark matter encompasses a wide range of bosonic dark matter candidates whose mass is smaller than several electron-volt scales. Being that light, it behaves similar to classical waves rather than a particle, offering unique phenomenology across scales. We will discuss some of the theoretical motivations of wave dark matter. We will also discuss its behavior in the early universe, e.g. how it is produced. Furthermore, we will discuss unique phenomenological consequences of wave dark matter over astrophysical and cosmological scales, emphasizing its differences and similarities with usual particle dark matter. Finally we will discuss several detection strategies for wave dark matter.
Advanced course: QT - Carlos Shahbazi Alonso (UNED - Madrid)
Advanced course: QT
- Carlos Shahbazi Alonso (UNED - Madrid)
15:15 - 16:30
Room: SR III The geometry and topology of supergravity. In this set of lectures, I will give an introduction to the ongoing quest of discovering the mathematical theory of four-dimensional ungauged supergravity and developing its potential applications to geometry and topology. In particular, I will use the cohomology of an appropriately chosen locally constant sheaf to implement the Dirac- Schwinger-Zwanziger integrality condition on four-dimensional classical ungauged supergravity, interpreting it geometrically to obtain its duality-covariant, gauge-theoretic, differential-geometric global model. Using this construction, I will prove that four-dimensional bosonic ungauged supergravity is completely determined by a choice of polarized Siegel bundle defined over the total space of a vertically Riemannian submersion equipped with a complete Ehresmann connection, showing that its gauge sector reduces to a polarized self-duality condition for connections on the underlying polarized Siegel bundle. Furthermore, I will explore the continuous and arithmetic U-duality groups of the theory, characterizing them through short exact sequences and realizing the latter through the automorphism group of the underlying Siegel bundle acting on its adjoint bundle. This elucidates the geometric origin of U-duality and justifies its miraculous existence in supergravity as a gauge group. Finally, and time permitting, I will discuss the structure of a simple class of supersymmetric solutions in supergravity, explaining how the concept of idealized gravitational wave arises naturally in this context
Key skills: Leadership - Nelly Nguyen (https://www.nellynguyen.org/de/home.php)
Key skills: Leadership
- Nelly Nguyen (https://www.nellynguyen.org/de/home.php)
15:15 - 16:30
Room: SR IV As academic leaders, your role is to empower your students and group members and help them tap into their full potential to perform at their best. The academic environment has specific additional requirements as people work under extremely high uncertainty with long periods of delayed gratification and limited resources. With these specific needs in mind, the aim of this skill-building course is to help you navigate the unique demands of academic leadership with more confidence and impact. We will explore evidence-based insights on leadership from positive psychology, learning research, and contemporary neuroscience to understand the principles behind effective academic leadership. We will discuss helpful action-based practices (including practices from agile frameworks) that will enable you to communicate and support your students and research group members more effectively. Depending on the need of the audience, we will be able to investigate topics such as motivation, mindset, emotional competence, communication, feedback, progress tracking, and coaching through challenges. For further resources or support, reach out to Dr. Nelly Nguyen at nell@appliedlife.is
16:30 Break (soft drinks)
Break (soft drinks)
16:30 - 17:00
17:00 Alumni panel/ industry talk - Anna Bartling (http://www.annabartling.com/)
Alumni panel/ industry talk
- Anna Bartling (http://www.annabartling.com/)
17:00 - 18:30
Room: SR I-III invited Alumni: Bijan Chokoufe Nejad Nelly Nguyen Lars Wacker Thomas Wulf
Thursday 8 February 2024

09:00 Coffee break
Coffee break
09:00 - 09:30
09:30 News & Highlights
News & Highlights
09:30 - 11:00
Room: SR I-III
Contributions

09:30 News and Announcements - Erika Garutti (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))

09:50 Impressions from the first QURS Days - Matthias Koschnitzke (T (Phenomenology))

10:15 The MAGO cavity and  prospects for high-frequency GW searches - Krisztian Peters (DESY)

10:35 How to distinguish Quantum Field Theories? - Craig Lawrie (T (Theorie))
11:00 Poster Pitches - Ulrich Einhaus (FTX (Fachgruppe SLB))
Poster Pitches
- Ulrich Einhaus (FTX (Fachgruppe SLB))
11:00 - 12:00
Room: SR I-III Zoom-Meeting beitreten https://uni-hamburg.zoom.us/j/69166819654?pwd=OUVhOWZQNUJ1Kys0eFpLbFBKeC9UZz09 Meeting-ID: 691 6681 9654 Kenncode: 58660305
12:00 Break (coffee and tea will be served from 1pm on)
Break (coffee and tea will be served from 1pm on)
12:00 - 13:30

13:00 exchange among PIs&Key researchers
exchange among PIs&Key researchers
13:00 - 14:00
Room: SR I-III

13:30 Poster session
Poster session
13:30 - 14:30
Room: Foyer
14:30 Awards
Awards
14:30 - 16:00
Room: SR I-III
Contributions

14:30 QU Best Paper Awards - Erika Garutti (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))

14:45 Postdoc Grant Winner 2022 - Final Results "First Calibration of the ALPS-II TES to Enable Direct Dark Matter Searches" - Gulden Othman (UNI/EXP (Uni Hamburg, Institut fur Experimentalphysik))

15:05 Postdoc Grant Winner 2023 I - Project Plan "High-Energy Phenomena in the Galactic Centre: Models and Visualisation" - Diego Calderón (Hamburg Observatory)

15:25 Postdoc Grant Winner 2023 II - Project Plan "Sustainable software development with a continuous testing and integration infrastructure supporting GPUs" - Philipp Grete (Universität Hamburg)

15:45 Poster Awards
16:00 exchange among PIs&Key researchers
exchange among PIs&Key researchers
16:00 - 17:00
Room: SR I-III

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