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• M.Sc. // attosecond spectroscopy and lightwave electronics (theory)

  We are seeking a highly motivated and talented Master's student to join our research group “attosecond spectroscopy 2.0”. Our research focuses on the theoretical investigation of ultrafast processes induced by strong laser fields, with the aim of understanding and controlling the motion of electrons at petahertz frequencies.

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  The successful candidate will have the opportunity to work on challenging and exciting research projects involving the development and application of theoretical models and computational tools to study the light-controlled electron dynamics in solids. The research will involve a combination of analytical calculations and numerical simulations.

  Required qualifications:

  1. Strong background in quantum mechanics, electromagnetism, and solid-state physics;
  2. Experience with programming languages such as Python, C++ etc;
  3. Excellent communication and interpersonal skills

  Desired qualifications:

  1. Experience with numerical simulations;
  2. Familiarity with density functional theory or other electronic structure methods;

  Benefits:

  1. Gain hands-on experience in theoretical modeling, computational physics, and high-performance computing;
  2. Access to state-of-the-art computational resources (https://www.mpcdf.mpg.de);
  3. Collaborate with experimentalists working on cutting-edge experiment;
  4. Contribute to the advancement of attosecond science and lightwave electronics.

  Please send your CV and transcripts to Apl. Prof. Dr. Vladislav S. Yakovlev.

  Contact:

  Apl. Prof. Dr. Vladislav S. Yakovlev
  Email: vladislav.yakovlev@mpq.mpg.de

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• M.Sc. // spectral broadening and self-compression towards sub-cycle pulses

  This master's thesis project involves the characterization of spectral broadening and temporal compression of near-infrared pulses, from the 30-fs transform limit to sub-10 fs durations.

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  By exploring the nonlinear dynamics within various solid-state media, the project aims to gain insights into their behavior under high-intensity laser conditions and understand how these dynamics scale with pulse energy. Additionally, the project seeks to optimize the processes involved in spectral broadening, with a focus on achieving stability and optimizing output pulse duration. This research opportunity offers a chance to contribute to the field of laser physics, uncover fundamental aspects of spectral broadening, and pave the way for advancements in ultrafast laser applications.

  Only students enrolled at the LMU will be considered.

  Contact:

  Dr. Nicholas Karpowicz
  Email: nicholas.karpowicz@mpq.mpg.de

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