18 Postdoctoral Fellowship at Chalmers University of Technology, Gothenburg, Sweden

We are seeking an independent and motivated post-doctoral researcher interested in working on novel technology within the field of environmental biotechnology, with a particular focus on wastewater treatment, process innovation, and microbiology. While the primary focus of this position is research, you will also have opportunities to engage in teaching and mentoring at both undergraduate and graduate levels.

Stimulated by major needs and challenges in science and a sustainable society, the ambition of the Department of Physics is to foster a creative environment for academic research, learning and outreach. We provide a competitive advantage by linking our top-level international and interdisciplinary academic performance in the areas of material science, nanotechnology and energy research. We address a wide array of experimental, computational, methodological and theoretical challenges, from fundamental physics research, through the development of new materials to direct industrial projects generating new inventions. We have a strong learning commitment on all levels from undergraduate to PhD studies where physics meet engineering.

The research at the division of Materials Physics is directed towards fundamental molecular level understanding of structure and dynamics of materials in relation to macroscopic functionality. A particular focus is towards soft matter, energy applicaitons and the development and application of advanced characterization tools. We work at both in-house laboratories and at international synchrotron and neutron facilities.

As a postdoc in this project you will work on the application of X-ray imaging and scattering techniques towards functional materials materials. In particular the project targets cellulose based materials for a wide range of applications, from energy (next generation batteries) to health (pharmaceutial formulations). The project will be coupled to the Wallenberg Wood Science Centre and will also have connections to to the ForMAX beamline at MAX IV. The work will involve X-ray micro/nano tomography and SAXS imaging, including analysis tools and sample environments aiming towards in-situ studies.

This project focuses on Chemical Process Engineering, with an emphasis on understanding protein behavior at the molecular level during falling-film evaporation (FFE)—a process widely applied to thermally sensitive foods such as milk and alternative proteins. By employing molecular dynamics simulations, you will explore protein interactions and changes under specific processing conditions.

The project is aligned with broader sustainability goals, including the development of innovative processes to manufacture chemicals, materials, and fuels from renewable sources. These challenges also extend to areas such as recycling, process intensification, and energy-efficient systems. Achieving these objectives requires a detailed understanding of fundamental unit operations (e.g., separation, mixing, distillation, drying, filtration) and heat/mass transfer mechanisms.

This project emphasizes mathematical modeling, aiming to enhance both fundamental and applied research within Chemical Process Engineering. The project is in collaboration with the Fluid Mechanics division to integrate new, inter-disciplinary perspectives. Through fostering new alliances and collaborative efforts, this research will address current and emerging challenges relevant to society and industry, contributing significantly to the realization of a sustainable future.

The appointed postdoctoral researcher will join a dynamic research team working on cutting-edge advancements in process modeling and simulation for machining. This project builds on recent developments in physical process modeling, focusing on generating grinding. The work will contribute to developing adaptable simulation tools that integrate geometric, kinematic, and material factors, enabling process optimization for gear machining applications.

The research is part of the CentreX initiative, a collaboration between Chalmers University of Technology, KTH Royal Institute of Technology, Volvo Group and Scania. CentreX aims to advance manufacturing solutions for next-generation powertrains by providing a unique interdisciplinary and collaborative research environment. The project offers the opportunity to work closely with industry leaders and contribute to innovative solutions for sustainable and efficient powertrain systems.

The Materials and Manufacturing Division within the Department of Industrial and Materials Science (IMS) at Chalmers University of Technology covers the entire value chain from materials design, processing and characterization. We use a range of technologies, including powder metallurgy, electroplating, additive manufacturing and machining, supported by material characterization techniques.

You will be part of the Communication Systems group at Chalmers, which comprises 9 professors and a large number of PhD students and postdocs. The CS group is internationally known for its academic research in wireless systems, fiber-optical communications, coding, information theory, and machine learning.

CS is part of the Department of Electrical Engineering, where we value all our co-workers and we know that a variety of personalities and experiences makes the most creative workplaces. We therefore encourage applicants of any gender, background, and ability. Our overall ambition is to contribute to a sustainable future. We aim to create a positive impact on the development of society, both environmentally, socially and economically. The department is a dynamic and international work environment with about 200 employees from more than 20 countries. We collaborate closely with both national and international universities, industry and medical researchers.

The Photonics Laboratory at the Department of Microtechnology and Nanoscience (MC2), with about 35 researchers, is working on optoelectronics, ultrafast optics and fiber-optical communication. A strong research focus is on ultraviolet (UV) and blue surface-emitting devices, such as vertical-cavity surface-emitting lasers (VCSELs), photonic-crystal surface emitting lasers (PCSELs), light-emitting diodes (LEDs), and resonant-cavity LEDs (RCLEDs). Our expertise is in device design and simulation, laser fabrication, and material and device characterization. We have developed a novel thin-film lift-off process for AlGaN-materials based on electrochemical etching, which allows integration of III-nitride thin films with various photonic structures, such as dielectric cavities with improved quality factor. These have enabled us to demonstrate the world’s first blue VCSEL with a high-contrast grating for polarization pinning, thin-film flip-chip UVB LEDs and the shortest emission wavelength from an optically pumped VCSEL at 310 nm. We are now expanding our team to push the development of our UV VCSELs, where our main goal is to demonstrate electrically injected deep-UV VCSELs.

This position is based within the Division of Environmental Systems Analysis at the Department of Technology Management and Economics. Our division is dedicated to environmental and sustainability assessments of various technical systems, aiming to address environmental challenges and resource limitations through a systems approach. Our work extends beyond technology to include actors (such as organizations, groups, and individuals) and natural systems, embracing interdisciplinary perspectives. Our team brings together expertise across engineering, natural sciences, and social sciences to build a sustainable future.

Quantum networks are poised to surpass classical networks in terms of computing power and security. As a critical component of classical networks, the flexible optical fiber communication network must adapt to facilitate the transition to new communication and computing paradigms by connecting quantum processors in a networked configuration. This project focuses on deploying and enhancing quantum networks, with particular attention to switching techniques designed for quantum applications.

We seek a highly motivated and talented postdoctoral researcher to contribute to developing a state-of-the-art quantum network testbed to enable scalable quantum information exchange among quantum nodes through optical networking techniques. The successful candidate will focus on creating and managing a network environment that ensures end-to-end connectivity and resource allocation while maintaining quantum coherence.

We are seeking a highly motivated Postdoctoral Researcher to join our dynamic research group at Chalmers University of Technology. As a key member of our organic electronics team, you will focus on electrochemical doping and wearable electronics. Your primary goal will be to investigate how the mechanical properties of conjugated polymers change during electrochemical oxidation/reduction cycles and develop wearable electronic devices that leverage these changes, such as variations in stiffness or stretchability. You will collaborate closely with PhD students, Postdocs in our group, and external partners to study the mechanical, electrical, and electrochemical properties of diverse conjugated polymers. For an overview of the relevant research topics, please refer to our recent review: https://pubs.rsc.org/en/content/articlelanding/2024/cs/d3cs00833a

We are currently seeking an exceptional postdoctoral researcher to develop and lead an independent research program that fosters collaboration between the division’s various research areas. This position offers a horizon of up to four years (initial two-year contract), with a high degree of independence, a generous research budget, and ample opportunities for collaboration.

The successful candidate will design and lead a creative research program that bridges the division’s diverse research topics. Emphasis on fostering interdisciplinary collaborations within the division will be a key aspect of a strong application. Additionally, the candidate is expected to contribute to building a positive and inclusive work environment at AoP.

For more detailed information about our research topics and staff, please refer to the AoP homepages.

The project ERGODIC, proposes and demonstrates a novel system for integrated passenger and goods transport, consisting of flexible public transport with modular autonomous vehicles and last-mile travel/delivery service with active micromobility. Modular vehicles could flexibly change capacity by adjusting the number of connected and segregated cabins that carry either passengers or goods. The proposed system is compatible with current infrastructure, technically ready, and has great potential to reduce the use of or even replace private vehicles with comparable services. 

This project examines the impacts of charging station ownership models on the potential of vehicle-to-grid (V2G) technology. Based on real-world and synthetic data in the transport and energy sectors, this project establishes a comprehensive understanding of the charging station market and charging patterns. The research focuses on how commercial and public operators can optimize operational strategies (e.g., charging scheduling) to balance profit and social objectives, including grid management and equity in EV usage. An innovative approach will study competitive dynamics between different ownerships, operational objectives, and their socioeconomic impacts. Findings will inform strategic planning for charging infrastructure, aiming to improve sustainability, accessibility, and efficiency in the transport and energy sectors. The project is funded by the Swedish Energy Agency. English is the working language.

Materials performance stands as a crucial barrier inhibiting the transition towards sustainability in energy systems. Join us as we tackle this challenge head-on, with exciting opportunities for postdoctoral researchers.
Metallic interconnects for Solid Oxide Electrolysis Cells (SOEC) are a major lifetime limiting factor in today’s SOEC. Together with our partners we develop alloys and coatings to extend the lifespan of the interconnect aiming at unlocking the full potential of this highly promising technology.

Your Impact: As a member of our team, you’ll be part of an international project funded by the Nordic Grand Solutions program, collaborating with global leaders in the field. Furthermore funding is provided by Chalmers’ Area of Advance Energy. Your contributions won’t just advance your scientific career and broaden your network; but you will also contribute to the grand challenge of the energy transition we have ahead of us.

This research venture, lead by prof. Bo Albinsson, is directed towards increasing the efficiency of solar energy devices by exploiting new classes of dye-system for transforming the solar light spectrum to better fit the solar energy materials. In this project we will combine singlet fission materials with supramolecular cage compounds with the aim of driving demanding 2-electron transfer reactions using single photons. The development of the supramolecular cages will be done in collaboration with Angela Gromet´s research group at Chalmers university of technology. The aim of the project is to turn the research ideas about these physical phenomena into successful practice in solar energy technologies.

The division of chemistry and biochemistry has around 60 employees, including doctoral students and postdoctoral research fellows. Research at the division covers physical chemistry including ultrafast optical spectroscopy, biophysical chemistry, organic chemistry, and analytical chemistry.

This recruitment is connected to the Wallenberg Initiative Materials Science for Sustainability (WISE, wise-materials.org). WISE, funded by the Knut and Alice Wallenberg Foundation, is the largest-ever investment in materials science in Sweden and will encompass major efforts at Sweden’s foremost universities over the course of 10 years. The vision is a sustainable future through materials science.
Read more: https://wise-materials.org

 

(18) Postdoctoral Fellowship Position

Postdoc Fellowship Position summary/title: Two postdoctoral positions in the topic of massive galaxy evolution

Deadline : 29 November, 2024

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