Analytical Magnetic Systems (AMS)

Prof. Dr. Jürgen J. Brandner [Contact] /KIT Lecturer for Micro Process Engineering/ Professor (hon) for Micro Process Engineering at Technische Universität Dresden/ Complex materials development and characterization, 3D structuring and printing, MEMS and sensors implementation, microfluidics, Imaging and Analysis

Welcome ...

...to the Brandner lab! We develop and characterize microsystems for a variety of topics, ranging from advanced materials development and characterization, design, manufacturing and characterization of nano and microstructure devices to microfluidics, microsensors and visualization techniques. Miniaturized systems provide precisely controlled environments to study destinct aspects of their behaviour, but allow us also to develop novel devices, systems and tools tob e implemented for research. Generating nano and microstructures with 3D printing technology using different materials is the base of many  of our activities. A major part then focuses on microfluidics and visualization as well as research in miniaturized magentic resonance systems, sensor integration and in-situ, operando measurement with magnetic resonance or x-ray.
We are we are implemented in the research field „Information“ in the program 3 "Material Systems Engineering" (MSE), topic 5 "Materials Information Discovery" (MID) as defined by the Helmholtz Association. Link to MSE website.
Mikrotechnologie-Komponenten und Schaltkreise in einer wissenschaftlichen Anordnung.

Some examples oft he work within the AMS department.

Research Groups

 

High field compact super conducting magnets (HCM) - Dr. Martin Börner

Over the last 30 years, the capabilities for manufacturing of very tiny structures have shrunk from micrometers to nanometers and have become more and more controllable. That’s almost a factor of 1000 (10 per decade). With the techniques developed, we are now able to build and manipulate crystal structures and with this quantum devices. And that’s also one of the ideas to improve and manufacture tiny, high field, superconducting magnts . We are going to improve the properties of superconducting material in terms of stability, higher critical temperatures and ampacity by introducing “nanodefects”. We are convinced that this will enable us to miniaturize and enhance NMR systems, paving the way for introducing these techniques in everyday applications, not only in areas like biomedicine and chemical industry, but also in power engineering (one of our biggest questions these days), digitalisation, and so on. This broader range of applications will be a breakthrough for mankind.

 

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Low-cost MEMS (LCM) - Dr. Dario Mager

We focus on developing non-conventional microtechnology that is not dependent on expensive high-quality cleanrooms. These components can naturally often not compete with the performance of standard cleanroom MEMS devices. To compensate that drawback, we use embedded systems that digitally compensates, for example, a fairly big variation among the devices. Beside that we also explore less complicated fabrication routes like glassy carbon.

 

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NMR-Micro Imaging and Spectroscopy (MIS) - Dr. Mazin Jouda

Our research is dedicated to advancing magnetic resonance microspectroscopy and imaging through the development of innovative hardware solutions and microsystems. This encompasses designing high-sensitivity radio-frequency and microwave detectors, miniaturized shimming systems, CMOS-integrated RF electronics, and advanced signal processing circuits. Our developments aim to enable high-sensitivity, high-throughput multi-sample spectroscopy, higher-resolution micro-imaging, faster spectroscopy and imaging, and the creation of platforms for correlative spectroscopy and imaging applications.

 

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Microstructures and Process Sensors (MPS) - Prof. Dr. Jürgen Brandner

The MPS group’s research is focused on materials and designs for advanced microsystems in visualization and measurement of (bio-) chemical processes. From design, simulation and modeling of devices to manufacturing using the latest technologies to applications in in-situ and operando mode is covered. For manufacturing, 3D printing of various materials, ranging from polymers to glass and ceramics, and from millimeter to nanometer range, is performed.

 

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Spectroscopy for Metabolomic Signalling (SMS) - Dr. Neil MacKinnon

Is it possible to monitor a native biological process at the molecular level in real-time?  The NMR Spectroscopy for Metabolomics and Signaling group at the Institute of Microstructure Technology (IMT), Karlsruhe Institute of Technology (KIT), aims to develop technologies targeting this challenge.  The central analytical technique driving these technologies is Nuclear Magnetic Resonance due to its non-invasive and non-destructive treatment of samples.

 

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