Sort by
Refine Your Search
-
Listed
-
Category
-
Country
-
Employer
- Technical University of Denmark
- ETH Zurich
- Forschungszentrum Jülich
- <span lang="en">Leipzig University</span>
- AIT Austrian Institute of Technology
- CEA
- Chalmers University of Technology
- Fraunhofer-Gesellschaft
- Ghent University
- Lulea University of Technology
- NIST
- University of Basel
- University of Twente
- 3 more »
- « less
-
Field
-
Job Description If you are eager to advance your scientific career and explore the frontiers of laser-material interaction, multiphase flow and additive manufacturing under extreme environments, this
-
ultrafast lasers, we advance the application perfor-mance and potential. Our group is interdisciplinary with projects spanning from ultrafast laser technology to biomedical imaging and optical
-
. You are interested in and ideally also have previous knowledge in the fields of electron microscopy, solid state physics, and laser optics. You can work independently and reponsibly, show commitment
-
-matter interaction that studies the evolution of materials transitioning from the solid phase to the plasma phase under the effect of an intense radiation pulse (laser, X-rays, electrons, ions, etc
-
electron microscope combined with ultrafast laser excitation and pulsed electron beams, the project probes electrostatic potentials and charge carrier dynamics with high spatial and temporal resolution
-
, pulsed laser deposition, and additive manufacturing. We are particularly interested in using these autonomous systems to verify and identify the synthesis-process-structure-property relationship for
-
<span lang="en">Leipzig University</span> | Leipzig, Sachsen | Germany | about 22 hours ago
thermodynamics and control theory. The project combines:
- Self-thermophoretic Janus microswimmers driven by dynamic laser landscapes (Cichos group, Leipzig)
- Light-powered bristle robots on
-
journey? As a doctoral student with us, you will work closely with leading researchers in a strong, international research environment, with access to advanced laboratory equipment and solid funding
-
performance metric. This project will investigate how AI-driven techniques can jointly optimize nano-laser-based transmitters and their waveforms to reduce energy consumption while sustaining high data
-
focused on multi-material additive manufacturing and thermal management for next-generation chip packaging. You will develop novel metal–silicon interfaces and integrated cooling solutions using Laser