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emphasis is placed on molecular spin systems, where you can harness quantum correlations of many-body spin systems, enabled by atomically precise bottom-up synthesis. In our newly established lab, you will
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energy production. In this PhD project, you will explore the fundamental mechanisms that will enable the development of more sustainable thermosets containing dynamic crosslinks in the future. We are a
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-troversial, particularly in the setting of "low grade" DS. Currently, DS is measured based on static radiographs, which do not capture the dynamic nature of this instability. Basic data sets on a dynamic
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grades. Good experimental capability is of high value. Good command of English is required. Our offer A highly interdisciplinary and dynamic research environment with state-of-the-art laboratory equipment
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, simulate and monitor skin wound evolution, with the ultimate aim to treat and even prevent chronic wounds. We will couple an in vitro analytical, omics-based platform to self-care wearables
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-on work and problem-solving Excellent communication skills in English, both written and verbal Our offer We offer a dynamic and interdisciplinary research environment, with access to state-of-the-art
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in hands-on work and problem-solving Excellent communication skills in English, both written and verbal Our offer We offer a dynamic and interdisciplinary research environment, with access to state
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(spoken and written) Interested in working in a multidisciplinary environment Highly motivated team player who is dynamic and curious Previous experience in one or more of the following topics: nanomaterial
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, computational fluid dynamics). Knowledge of heat and mass transport processes in materials and the human-body interface. Experience in thermal measurements (temperature, heat flux, infrared, anemometry
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, called Wound Booster focused on the design of a self-care integrated system to completely understand, simulate and monitor skin wound evolution, with the ultimate aim to treat and prevent chronic wounds