de

Dr.-Ing. Markus Wilke

Bild von Markus Wilke
Head of the Core Facility

Dr.-Ing. Markus Wilke

CMMA - Core Facility for Microscopy and Materials Analysis
Universtitätsplatz 2, 39104 Magdeburg, G50-006

seit 2016

Ingenieur für Forschung und Lehre am Institut für Werkstoff- und Fügetechnik
(OvGU Magdeburg)
Bereich Rasterelektronenmikroskopie

2014 - 2016

Wissenschaftlicher Mitarbeiter am Institut für Werkstoff- und Fügetechnik
(OvGU Magdeburg)

2013 - 2014

Wissenschaftlicher Mitarbeiter am Institut für Fertigungstechnik und Qualitätssicherung (OvGU Magdeburg)

2012 - 2013

Wissenschaftlicher Mitarbeiter am Institut für Lacke und Farben Magdeburg e. V.
Abteilung Physik / Analytik

09/2012

Abschluss des Studiums Maschinenbau / Vertiefungsrichtung Werkstofftechnik
(Otto-von-Guericke-Universität Magdeburg)

Current projects

Cross-Disciplinary Multidimensional Material Analysis
Duration: 01.03.2024 to 31.12.2027

The Cross-Disciplinary Multidimensional Material Analysis project plans to make efficient use of the infrastructure available at OVGU and to promote the targeted further development of multidimensional, coupled methods of scanning electron and ion microscopy with structure elucidation, element analysis and in-situ testing technology in the field of interdisciplinary material development.
This text was translated with DeepL

View project in the research portal

Completed projects

"Sustainable powder coatings for industrial applications" (Eco-Coat)
Duration: 01.12.2023 to 30.11.2025

Due to current environmental and health policy requirements, the reduction of energy and use of sustainable raw materials, while at the same time sustainably improving economic, technological and environmental aspects, is a central concern of paint raw material suppliers, paint manufacturers and industrial paint users.
The industrial coating of metal components in Germany and Europe is a multi-billion euro market. On the one hand, it serves to protect against corrosion, but should also meet the visual requirements of the user. One of the coating technologies under consideration here is powder coating application. It has many advantages, such as the non-use of solvents, a high degree of automation, high coating quality, lower material consumption and high cost-effectiveness due to powder recovery. According to the current state of the art, the limitations lie in the curing temperatures of approx. 180-220°C established on the market, i.e. there is a high energy consumption. Many raw materials are traded on the world market, i.e. there are long transportation routes, no influence on availability and the purchase price. Furthermore, some pigments are harmful to health or poorly available due to problematic supply chains (e.g. TiO2, heavy metals)[1].
For these reasons, the project partners iLF Magdeburg GmbH, Ganzlin Beschichtungspulver GmbH and Otto von Guericke University Magdeburg have set themselves the ambitious goal of developing a sustainable powder coating. All raw materials should come from Europe and be renewable and biodegradable. Furthermore, these coatings should be processed using standard application technology, but also require the lowest possible processing temperatures in order to be able to produce economically and in an environmentally friendly manner in times of massively rising energy costs. The aim of the development is for the coating to achieve the service life of the components without any loss of function and to offer a wide range of industrial applications with the highest demands on product performance. By reducing the curing temperatures to approx. 130 °C, the aim is to achieve energy savings of 30-50 %.

Furthermore, powder coating offers the possibility of recovering the proportion of powder not used during the coating process (overspray). Here, almost complete utilization of the starting material can be achieved.
This text was translated with DeepL

View project in the research portal

PC4PM - Powder Coatings for Printed Materials
Duration: 01.08.2020 to 31.07.2022

As part of the R&D cooperation project "PC4PM - Powder Coatings for Printed Materials", powder coating is to be tested and established for the first time as a surface coating process for additively manufactured materials. The planned development work includes the coating of generatively manufactured plastics and metals with abrasion-resistant powder coatings. This reduces the production-related surface roughness of generatively manufactured components and significantly increases their wear resistance, which contributes to an improvement in component properties in numerous applications. In addition to influencing the look and feel, it is also possible to increase abrasion and wear resistance. The project is also pursuing the development of low-melting powder coatings with low cross-linking temperatures. Lowering the crosslinking temperature would result in a reduction in the process energy required and therefore significant cost and energy savings in the coating process. In addition, the range of applications for powder coating of plastics would be significantly expanded, as the high cross-linking temperatures of powder coatings mean that plastics are currently not suitable for this type of coating
This text was translated with DeepL

View project in the research portal

AEro-Lack: Abrasion- and erosion-resistant powder coatings for industrial applications
Duration: 01.01.2017 to 30.06.2019

As part of the R&D cooperation project AEro-Lack, the development and testing of innovative powder coating systems with hard material particles is planned, which are used to coat components for industrial applications whose service life is currently severely restricted by abrasive and erosive stresses. These coating layers are intended to significantly improve the service life of various industrial applications compared to the state of the art. In addition, the development of suitable test methods, particularly with regard to abrasion and erosion resistance, the development of new types of surface pre-treatment and a comprehensive characterization of the paint coatings are planned. The R&D project is a cooperative project between H+E Produktentwicklung GmbH (SME), IWB Werkstofftechnologie GmbH (SME), Ganzlin Beschichtungspulver GmbH (SME), Institut für Lacke und Farben Magdeburg gGmbH (research institute) and Otto von Guericke University Magdeburg (research institute). The planned project is designed to run for 2.5 years.
This text was translated with DeepL

View project in the research portal

AEro-Lack: Abrasion- and erosion-resistant powder coatings for industrial applications
Duration: 01.01.2017 to 30.06.2019

he R&D cooperation project "AEro-Lack" aims to develop and test innovative powder coating systems with hard material particles, which are used to coat components for industrial applications whose service life is currently severely restricted by abrasive and erosive stresses. These coating layers are intended to significantly improve the service life of various industrial applications compared to the state of the art. In addition, the development of suitable test methods, particularly with regard to abrasion and erosion resistance, the development of new types of surface pre-treatment and a comprehensive characterization of the paint coatings are planned. The R&D project is a cooperative project between H+E Produktentwicklung GmbH (SME), IWB Werkstofftechnologie GmbH (SME), Ganzlin Beschichtungspulver GmbH (SME), Institut für Lacke und Farben Magdeburg gGmbH (research institute) and Otto von Guericke University Magdeburg (research institute). The planned project is designed to run for 2.5 years.
This text was translated with DeepL

View project in the research portal

DFG large-scale equipment funding: Scanning electron microscope for 3-dimensional investigations
Duration: 01.08.2016 to 31.01.2019

Research in the field of new materials requires high-performance electron microscopy to clarify microstructural properties and mechanisms. Equipment and methods for clarifying interactions on a nanoscale level are necessary for the successful processing of research projects. This involves characterizing the microscopic and macroscopic properties of materials, for example, deriving metal-physical findings and thus developing technical alloys for use under a wide range of conditions. Electron microscopic investigations using analytical methods such as X-ray spectroscopy and electron diffraction are an integral part of almost all current projects and plans. For competitive research in the field of materials science, comprehensive characterization of materials using state-of-the-art methods, such as imaging and analysis in three dimensions using a combination of SEM and FIB with EDX/EBSD, is essential. In addition to tomographic images for characterizing the microstructure (microstructure, inhomogeneities, etc.), the requested device can also be used to obtain information on the chemical composition, crystallographic orientation, phase fractions and stress states in the volume of a sample. In addition, target preparation using FIB makes it possible to extract sample areas of interest and examine them separately. In this way, lamellae can be prepared for STEM investigations and/or the lateral resolution of EDX and WDX analyses can be improved. This is of particular interest for imaging and analyzing ultrafine-grained material areas, diffusion processes or precipitation processes. For the derivation of mechanical and thermal properties, there are possibilities for in-situ tensile-compression and heating tests, as an important component of current and planned research topics. Crack initiation and crack propagation processes, as well as changes in orientation ratios and stress gradients under load can be determined. Heating the samples makes it possible to investigate phase transformations, diffusion processes at interfaces and precipitation processes.
This text was translated with DeepL

View project in the research portal

X-ELMA: X-ray fluorescence elemental analysis for microscopic applications
Duration: 01.09.2016 to 30.09.2018

Light microscopes are an important part of research and technology, especially in areas such as quality assurance, failure analysis, forensics and geology. In addition to the structure of a material, its chemical composition is often of interest here. This requires additional equipment such as electron microscopes or X-ray fluorescence spectroscopes. By using a miniature X-ray source, it is possible to carry out X-ray fluorescence analyses directly on the light microscope. A spectroscope is integrated directly into the nosepiece of a conventional light microscope. The use of optics also enables spatially resolved analyses. The low energy requirement of the spectroscopy unit also enables portable, battery-operated use. A measurement takes approx. 90 seconds and makes it possible to examine all technically relevant materials (atomic number >5 qualitative and >11 quantitative). The product is currently in the development phase, although its feasibility and functionality have already been demonstrated experimentally.
This text was translated with DeepL

View project in the research portal

Process simulation of induction hardening of unalloyed and low-alloyed steel components
Duration: 01.03.2016 to 28.02.2018

The complete geometry-independent development of a simulation setup makes it very easy to take new component geometries into account. Through a series of simulations with different inductor geometries, less suitable inductors can already be excluded on the basis of the simulations. This reduces the number of experimental iterations when developing or adapting new component and/or inductor geometries. In a subsequent step, it is also possible to identify the range of process parameters that still lead to suitable austenitization (heating) and thus the necessary hardness in the component after quenching with the most efficient process parameters possible. In addition, predictions on the reduction of the grinding allowance and statements on the residual austenite content in the edge area of hardened components should be made possible.
This text was translated with DeepL

View project in the research portal

Apparatus and method for analyzing crystalline materials by backscattered electron diffraction
Duration: 01.09.2015 to 31.08.2016

The invention relates to a novel method for generating electron diffraction patterns for, for example, characterization of crystallographic properties, texture analyses or determination of distortion states using detector units and analysis software, wherein the pyroelectric effect is used for generating and accelerating the electrons. Pyroelectric materials such as LiTaO3 or LiNbO3 are used for electron generation and acceleration. Crystalline materials, preferably metals, are generally used as samples or objects of investigation.
This text was translated with DeepL

View project in the research portal

Simulation of the inductive hardening of components made of 100Cr6
Duration: 01.03.2014 to 28.02.2015

The aim of the project is to support the design of inductive process parameters using computer-based simulations and to enable a prediction of the hardness pattern. In this way, costs can be minimized by eliminating experimental iterations in the process design. The combination of material and process model enables concrete results, which are validated by experimental investigations. These consist of temperature measurements in a test induction plant, microscopic microstructure investigations and hardness profile measurements.
This text was translated with DeepL

View project in the research portal

2026

Peer-reviewed journal article

Investigation of x-ray energy characteristics in x-ray fluorescence applications using dual pyroelectric crystals

Ebrahim, Irshad; Harnisch, Carsten; Wilke, Markus

In: Journal of vacuum science & technology. B, Microelectronics processing and phenomena - New York, NY : Inst., Bd. 44 (2026), Heft 1, Artikel 014201, insges. 13 S.

Investigation of x-ray energy characteristics in x-ray fluorescence applications using dual pyroelectric crystals

Ebrahim, Irshad; Harnisch, Karsten; Wilke, Markus

In: Journal of vacuum science & technology. B, Microelectronics processing and phenomena - New York, NY : Inst., Bd. 44 (2026), Heft 1, Artikel 014201, insges. 13 S.

2025

Book chapter

Optimization of X-ray energy for XRF applications using dual LiTaO3 pyroelectric crys

Ebrahim, Irshad; Harnisch, Karsten; Wilke, Markus

In: 2025 38th International Vacuum Nanoelectronics Conference (IVNC) , 2024 - [Piscataway, NJ] : IEEE ; Knápek, Alexandr, insges. 2 S. [Konferenz: 38th International Vacuum Nanoelectronics Conference (IVNC), Reykjavik, Iceland, 08-11 July 2025]

2024

Book chapter

Archaeometallurgical investigations into the production of early and middle bronze age flanged axes in Central Germany

Michael, Oliver; Dieck, Sebastian; Wilke, Markus; Wunderlich, Christian; Bunnefeld, Jan-Heinrich; Meller, Harald; Halle, Thorsten

In: Der soziale Wert prähistorischer Beile - neue archäologische und archäometrische Ansätze ; Band 2 / Mitteldeutscher Archäologentag , 2023 - Halle (Saale) : Landesamt für Denkmalpflege und Archäologie Sachsen-Anhalt, Landesmuseum für Vorgeschichte . - 2024, S. 467-478 - (Tagungen des Landesmuseums für Vorgeschichte Halle; Band 31,2)

Peer-reviewed journal article

Gruson’s Fahrpanzer - historical insights thanks to non-destructive materials science - Der Gruson’sche Fahrpanzer - historische Einblicke dank zerstörungsfreier Werkstofftechnik

Dieck, Sebastian; Wilke, Markus; Halle, Thorsten; Strohbach, L.

In: Practical metallography - Berlin : de Gruyter, Bd. 61 (2024), Heft 5, S. 276-291

Development of a preparation method for Bronze Age flanged axes - Entwicklung einer Präparationsmethode für bronzezeitliche Randleistenbeile

Michael, Oliver; Dieck, Sebastian; Wilke, Markus; Wunderlich, C.-H.; Bunnefeld, J.-H.; Meller, H.; Halle, Thorsten

In: Practical metallography - Berlin : de Gruyter, Bd. 61 (2024), Heft 9/10, S. 728-745

Archaeometallurgical investigation of the Nebra Sky Disc

Dieck, Sebastian; Michael, Oliver; Wilke, Markus; Halle, Thorsten; Wunderlich, Christian-Heinrich; Bunnefeld, Jan-Heinrich; Bauer, Herbert R.; Meller, Harald

In: Scientific reports - [London] : Springer Nature, Bd. 14 (2024), Artikel 28868, insges. 11 S.

2023

Peer-reviewed journal article

Gruson’s chilled cast iron - a legendary wonder material of the 19th century - Gruson‘scher Hartguss - legendärer Wunderwerkstoff des 19. Jahrhunderts

Dieck, Sebastian; Michael, Oliver; Wilke, Markus; Halle, Thorsten

In: Practical metallography - Berlin : de Gruyter, Bd. 60 (2023), Heft 12, S. 796-819

2022

Peer-reviewed journal article

3D-Druck - Funktionalisierte Pulverlackbeschichtungen

Harnisch, Karsten; Wilke, Markus; Schulz, Jana; Sureck, Ludwig

In: Journal für Oberflächentechnik - Wiesbaden : Vieweg, Bd. 62 (2022), Heft 11, S. 46-49

Dissertation

Pyroelektrische Röntgenquellen zur Materialanalyse

Wilke, Markus; Halle, Thorsten; Weiß, Helmut

In: Magdeburg: Universitätsbibliothek, Dissertation Otto-von-Guericke-Universität Magdeburg, Fakultät für Maschinenbau 2022, 1 Online-Ressource (XII, 118 Blätter, 22,27 MB) [Literaturverzeichnis: Blatt 112-118][Literaturverzeichnis: Blatt 112-118]

2020

Book chapter

Deformation twinning in bcc iron - experimental investigation of twin formation assisted by molecular dynamics simulation

Ecke, Martin; Michael, Oliver; Wilke, Markus; Hütter, Sebastian; Krüger, Manja; Halle, Thorsten

In: Plasticity, damage and fracture in advanced materials - Cham : Springer ; Altenbach, Holm . - 2020, S. 43-51 - ( Advanced structured materials; 121)

Peer-reviewed journal article

Transient softening at the fusion boundary of resistance spot welds - a phase field simulation and experimental investigations for AlSi-coated 22MnB5

Sherepenko, Oleksii; Kazemi, Omid; Rosemann, Paul; Wilke, Markus; Halle, Thorsten; Jüttner, Sven

In: Metals - Basel : MDPI, Bd. 10 (2020), Heft 1, insges. 13 S.

Neuartiger Pulverlack beständig gegen Abrasion und Erosion

Ecke, Martin; Wilke, Markus; Bender, Susanne; Schulz, J.; Süß, T.; Hoffmann, K.; Engel, G.; Halle, Thorsten

In: Journal für Oberflächentechnik - Wiesbaden : Vieweg, Bd. 60 (2020), Heft 4, S. 44-45

Pyroelectric X-ray generator for XRF in combination with optical microscopy

Wilke, Markus; Hanns, L.; Harnisch, Karsten; Knapp, Wolfram; Ecke, Martin; Halle, Thorsten

In: IOP conference series. Materials science and engineering / Institute of Physics - London [u.a.] : Institute of Physics - Vol. 882 (2020), Paper 012026, insgesamt 8 Seiten [Symposium: Symposium on Materials and Joining Technology, Magdeburg, Germany, 7-8 September 2020]

Microstructure evolution and mechanical properties of refractory Mo-Nb-V-W-Ti high-entropy alloys

Regenberg, Maximilian; Hasemann, Georg; Wilke, Markus; Halle, Thorsten; Krüger, Manja

In: Metals - Basel : MDPI - Vol. 10 (2020), 11, Article 1530, insgesamt 13 Seiten

2019

Peer-reviewed journal article

Focusing of x-rays emitted by a pyroelectric x-ray generator for micro x-ray fluorescence

Wilke, Markus; Harnisch, Karsten; Knapp, Wolfram; Ecke, Martin; Halle, Thorsten

In: Journal of vacuum science & technology. B, Microelectronics processing and phenomena - New York, NY : Inst. - Vol. 37.2019, 1, Artikel 011203

2018

Abstract

Self-focusing of electrons emitted by rectangular pyroelectric crystals - a study on geometrical conditions for optimized X-ray intensities

Harnisch, Karsten; Wilke, Markus; Knapp, Wolfram; Ecke, Martin; Hanns, Lucas; Halle, Thorsten

In: 2018 31st International Vacuum Nanoelectronics Conference (IVNC) - [Piscataway, NJ] : IEEE, insges. 2 S. [Konferenz: 31st International Vacuum Nanoelectronics Conference (IVNC)Kyoto, Japan, 9-13 July 2018]

Investigations on electrical properties and correlations to electron and X-ray energies of pyroelectric LiTaO3and LiNbO3

Wilke, Markus; Harnisch, Karsten; Knapp, Wolfram; Ecke, Martin; Senft, Thorsten; Halle, Thorsten

In: 2018 31st International Vacuum Nanoelectronics Conference (IVNC) - [Piscataway, NJ] : IEEE ; Gotoh, Yasuhito, insges. 2 S. [Konferenz: 31st International Vacuum Nanoelectronics Conference (IVNC) Kyoto, Japan, 9-13 July]

Peer-reviewed journal article

Optimization of pyroelectric electron sources for the generation of x-rays for x-ray fluorescence applications

Wilke, Markus; Harnisch, Karsten; Knapp, Wolfram; Ecke, Martin; Halle, Thorsten

In: Journal of vacuum science & technology. B, Microelectronics processing and phenomena - New York, NY : Inst. - Vol. 36.2018, 2, Art. 02C101

2017

Abstract

Alloy design and microstructure of refractory Mo-V-Nb-W-Tix HEAs

Hasemann, Georg; Wilke, Markus; Halle, Thorsten; Krüger, Manja

In: Intermetallics 2017 - Bad Staffelstein : Educational Center Kloster Banz, S. 97-98 [Konferenz: Intermetallics 2017]

Book chapter

Entwicklung von High-Entropy-Legierung auf Refraktärmetallbasis

Hellriegel, M.; Wilke, Markus; Hasemann, G.; Halle, Thorsten

In: 16. Sommerkurs Werkstoffe und Fügen - Magdeburg, 08. und 09. September 2017 , 2017 , korrigierte Auflage - Magdeburg : Universitätsbibliothek, S. 113-118

Investigations of pyroelectric crystals for vacuum electron sources and X-ray applications

Wilke, Markus; Knapp, Wolfram; Ecke, Martin; Harnisch, Karsten; Zierau, Marco; Halle, Thorsten

In: 2017 30th International Vacuum Nanoelectronics Conference (IVNC) , 2017 - [Piscataway, NJ] : IEEE, S. 166-167 [Konferenz: 30th International Vacuum Nanoelectronics Conference (IVNC), Regensburg, Germany, 10-14 July 2017]

Intensitätsoptimierung von pyroelektrischen Röntgenquellen zum Einsatz in der Materialanalyse

Harnisch, Karsten; Wilke, Markus; Knapp, Wolfram; Ecke, Martin; Halle, Thorsten

In: 16. Sommerkurs Werkstoffe und Fügen - Magdeburg, 08. und 09. September 2017 , 2017 , korrigierte Auflage - Magdeburg : Universitätsbibliothek, S. 105-112

Peer-reviewed journal article

Pyroelektrische Röntgenquellen zum Einsatz in der Materialanalyse - Optimierung der material- und vakuumtechnischen Eigenschaften

Wilke, Markus; Knapp, Wolfram; Harnisch, Karsten; Ecke, Martin; Halle, Thorsten

In: Vakuum in Forschung und Praxis - Weinheim : Wiley-VCH, Bd. 29 (2017), Heft 5, S. 36-41

2015

Other materials

Vorrichtung und Verfahren zur Analyse von kristallinen Materialien mittels Rückstreuelektronenbeugung

Wilke, Markus; Wendt, Ulrich; Ecke, Martin

In: 2015,

Article in conference proceedings

Untersuchungen zur Initiierung von Regenerosionsschäden an Beschichtungen von Rotorblättern für Windenergieanlagen

Wilke, Markus; Bender, Susanne; Pausch, Gerhard

In: {Umwelteinflüsse erfassen, simulieren, bewerten}, {44. Jahrestagung der GUS 2015}

Original article in peer-reviewed international journal

Vorrichtung zur Elementanalyse an Abbildungsvorrichtungen

Wilke, Markus; Wendt, Ulrich

In: DE202015009068U1

2014

Abstract

Method for testing rain and weather erosion and/or abrasion resistance of surfaces of rotor blade of wind turbine against e.g. water, involves providing sample body, and simulating and reproducing physical erosion and/or abrasion process

Wilke, M.

In: 2014

Other materials

Vorrichtung zur Elementaranalyse an Mikroskopen

Wilke, Markus; Wendt, Ulrich

In: 2014,

Book chapter

Röntgenspektroskop für analystische Zwecke in der Lichtmikroskopie

Wilke, Markus; Wendt, Ulrich; Heyse, Hartmut; Ecke, Martin; Halle, Thorsten

In: 15. Sommerkurs Werkstoffe und Fügen: Magdeburg, 12. und 13. September 2014 - Magdeburg: Univ., S. 111-118Kongress: Sommerkurs Werkstoffe und Fügen 15 (Magdeburg : 2014.09.12-13)

Peer-reviewed journal article

Characterization of deformation twins in meteorites an dynamically loaded ferrous materials by means of Electron Backscatter Diffraction, EBSD - Charakterisierung von Verformungszwillingen in Meteoriten und dynamisch beanspruchten Eisenwerkstoffen mittels Rückstreuelektronenbeugung, EBSD

Ecke, Martin; Schwarz, Friederike; Krüger, Lutz; Wilke, Markus; Heyse, Hartmut; Wendt, Ulrich; Krüger, Manja

In: Practical metallography - München : Hanser, Bd. 51 (2014), Heft 11, S. 765 - 784

Article in conference proceedings

Prüfung der Regenerosionsbeständigkeit von Rotorblattbeschichtungen

Wilke, Markus; Bender, Susanne

In: {Umwelteinflüsse erfassen, simulieren, bewerten}, {43. Jahrestagung der GUS 2014}

Non-peer-reviewed journal article

Die Erosionsbeständigkeit von Rotorblattbeschichtungen effizient prüfen

Bender, Susanne; Wilke, Markus

In: Besser lackieren!: Für Entscheider in der industriellen Lackiertechnik - Hannover: Vincentz, Bd. 16.2014, 12, S. 9

Lektion der Regenspur

Bender, Susanne; Wilke, Markus

In: Erneuerbare Energien: das Magazin für Wind-, Solar und Bioenergie - Hannover: SunMedia, Bd. 25.2014, 9, S. 86-90

2013

Other materials

Vorrichtung zum Test der Erosions- und/oder Abrasionsbeständigkeit von Oberflächen

Wilke, Markus

In: 2013,

2012

Non-peer-reviewed journal article

Neue Möglichkeit zur Erosionsprüfung von Rotorblattbeschichtungen

Wilke, Markus

In: {Besser lackieren!}, {Hannover}, {Bd. 21.2012, 12, S. 8}

Last Modification: 11.02.2026 -
Contact Person: Markus Wilke