About Me
In 2019 I joined the Strategic Business Development department as project manager for collaborative EU projects. Several months later I extended my attributions by providing hands-on support to the Nano Electronic Materials (NEM) cluster scientists applying for collaborative grants. In a complementary approach, I support with calls identification, proposals preparation and management of the awarded projects. My affinity for this function within the NEM cluster relates to my background in materials science research (Ph.D., 2004, University of Groningen) and my experience in implementation and coordination of the communication, dissemination, and exploitation activities for the projects I manage.
Organisations
Publications
P.-J. Zermatten, G. Gaudin, G. Maris, M. Miron and A. Schuhl, “Experimental evidence of interface resonance states in single-crystal magnetic tunnel junctions", Physical Review B 78, 033301 (2008).
E.P. Houwman, G. Maris, G.M. de Luca, N. Niermann, G. Rijnders, D.H.A. Blank, and S. Speller, “Out-of-plane magnetic domain structure in a thin film of La0.67Sr0.33MnO3 on SrTiO3 (001) observed by magnetic force microscopy”, Physical Review B, 77 (18) 184412 (2008).
G. Maris, O. Shklyarevskii, L. Jdira, J.G.H. Hermsen, and S. Speller, “One-dimensional structural and electronic properties of magnetite (110)”, Surface Science 600 (23) 5084 (2006).
G. Maris, L. Jdira, J.G.H. Hermsen, S. Murphy, G. Manai, I.V. Shvets, and S. Speller, “Nano-magnetic probing on magnetite (110)”, IEEE Transactions on Magnetics 42 (10) 2927 (2006).
G. Maris, L. Jdira, J. G. H. Hermsen, S. Murphy, G. Manai, I. V. Shvets, and S. Speller, “Towards Spin Polarized Scanning Tunneling Microscopy on magnetite (110)”, Japanese Journal of Applied Physics, 45 (3B) 2225 (2006).
K. Knizek, Z. Jirak, J. Hejtmanek, M. Veverka, M. Marysko, G. Maris, and T.T.M. Palstra, “Structural anomalies associated with the electronic and spin transitions in LnCoO3”, European Physical Journal B 47 (2) 213 (2005).
G. Maris, V. Volotchaev, and T.T.M. Palstra, “Effect of ionic size on the orbital ordering transition in REMnO3+δ”, New Journal of Physics 6: 153 (2004).
G. Maris, Y.Ren, V. Volotchaev, C. Zobel, T. Lorenz, and T.T.M. Palstra, “Evidence for orbital ordering in LaCoO3”, Physical Review B, 67 (22) 224423 (2003).
P.H.M. van Loosdrecht, C. Presura, M. Popinciuc, D. van der Marel, G. Maris, T.T.M. Palstra, P.J.M. van Bentum, H. Yamada, T. Yamauchi, and Y. Ueda, “Charge and Sodium ordering in β-Na0.33V2O5” , Journal of Superconductivity: Incorporating Novel Magnetism, 15, 587 (2002).
S.G. Bompadre, A.F. Hebard, V.N. Kotov, D. Hall, G. Maris, J. Baas, and T.T.M. Palstra, “Spin-Peierls transition in NaV2O5 in high magnetic fields”, Physical Review B, 61 (20) R13321 (2000).
Current Projects
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Hybrid electronic-photonic architectures for brain-inspired computing (HYBRAIN)
coordinated by Prof. Dr. Ir. W.G. van der Wiel
The European Commission-funded Pathfinder project HYBRAIN aims to deliver a new computing system that is inspired by the human brain. The project will develop a “HYBRAIN system” that is both super-fast, consumes very little energy and which can make real impact on ‘ultra-fast response’ technologies. Partners: University of Twente, IBM Zürich, Trust-IT Services, University of Heidelberg, University of Oxford.
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Topologically Protected and Scalable Quantum Bits (TOPSQUAD)
coordinated by Prof. Dr. Ir. F.A. Zwanenburg
The TOPSQUAD project funded by the FET-Open program of the European Commission aims to bring a crucial contribution towards realizing the building blocks for the future quantum computer, the so-called qubits. Scientific results from TOPSQUAD could help develop an unprecedented stable many-qubit system by synthesizing for the first time germanium nanowire networks on silicon wafers. Partners: University of Twente, University of Basel, IST Austria, TU Eindhoven, BASPI and nanoPHAB.
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On-chip integration of quantum electronics and photonics (ONCHIPS)
coordinated by Prof. Dr. Ir. F.A. Zwanenburg
The Horizon Europe project ONCHIPS aims to provide a unique silicon-based integrated architecture by developing key building blocks for quantum technologies. World leading experts joined the consortium to address the major key challenges in realizing this technology interfacing individual spin qubits and photons by using a new CMOS compatible and optically active material system - direct bandgap GeSi. Partners: University of Twente, TU Eindhoven, TU Münich, CNRS, Single Quantum, University of Konstanz and Budapest University of Technology and Economics.
Finished Projects
Contact Details
Visiting Address
University of Twente
Strategic Business Development
Ravelijn
(building no. 10), room 1438
Hallenweg 17
7522NH Enschede
The Netherlands
Mailing Address
University of Twente
Strategic Business Development
Ravelijn
1438
P.O. Box 217
7500 AE Enschede
The Netherlands
Working days
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Organisations
Additional Contact Information
Tuesday afternoon: Citadel room H309
Thursday: Carré, room C1435
Friday: Carré, room C1435