CORDIS provides links to public deliverables and publications of HORIZON projects.
Links to deliverables and publications from FP7 projects, as well as links to some specific result types such as dataset and software, are dynamically retrieved from OpenAIRE .
Deliverables
Defining the Quality Management Plan - introducing formal processes for the project life-cycle, and the evaluation and control of the deliverables and the project itself according to the quality standards and plans.
Proof-of-concept samples for PE EPR spectroscopy (opens in new window)UHV evaporation of an analysed material on the samples with and without PS (reference samples). Utilizing a patterned photoresist to provide selective deposition to specific sites (increase of the relative antenna signal contribution). Application of samples for PE THz EPR spectroscopy.
Scientific communication (opens in new window)Summary of the scientific communication containing at least 10 papers in impacted journals, at least 8 conference presentations during the duration of the project.
Interim CDE plan (opens in new window)Interim plan for the communiation, dissemination, and exploitation of project related activities and outputs. The CDE plan will be continuously updated according to project needs.
Proof-of-concept samples for PE EPR microscopy (opens in new window)UHV evaporation of an analysed material on the samples with and without PS (reference samples). Utilizing a patterned photoresist to provide selective deposition to specific sites (increase of the relative antenna signal contribution). Application of samples for PE THz EPR microscopy.
Updated Quality Management Plan (opens in new window)Updating the Quality Management Plan - introducing formal processes for the project life-cycle, and the evaluation and control of the deliverables and the project itself according to the quality standards and plans.
Specifications of PE EPR microscope (opens in new window)Discussion of detailed design criteria and prioritizing the constrictions of individual functional units of PE EPR microscope to be coherent with other units and posses required functionality.
Plasmon-enhanced EPR experiments (opens in new window)Application of the optimized THz apparatus and samples prepared for PE THz EPR experiments – assessment of the magnetic sensing field enhancement caused by PS, the scope and limitations of the setup. Continuous-improvement feed-back loop.
Data management plan (opens in new window)Data management plan specifying the data management life cycle for the data generated and processed within the project. Data management plan will continuously updated based on the needs.
Final CDE plan (opens in new window)Final version of the plan for the communiation, dissemination, and exploitation activities.
PS design for plasmon enhanced EPR (opens in new window)Theoretical simulations of local plasmon resonances in various PS, identification of the most suitable antennas for the EPR enhancement. Considered geometries based on the funnelling of current (e.g. diabolo antennas) and/or circulation of current (e.g. split-ring resonators).
Applications of PE EPR (opens in new window)Report on applications of newly developed PE THZ EPR method: Room temperature: ferromagnetic nano/microstructures fabricated by EBL and FIB, a commercial hard disk. Low temperature: Molecular nanomagnets (transition metal phthalocyanine thin films on various substrates).
Concept of PS (opens in new window)Critical discussion of various concepts of PS, definition of spatial restriction for implementation to cantilevers and identification of relevant fabrication methodology.
Fabrication of a folded PS by EBL/FIB on longer/wider tips (e.g. needles, sapphire shards,…) glued to cantilevers or watch tuning forks.
PS for PE EPR experiments in THz (opens in new window)Characterization of plasmon resonances by THz spectroscopy (USTUTT, NGU). Optimization of coupling of THz radiation to PS - design of a quasi-optics and its installation into the EPR apparatus. Utilizing the results as a feed-back for optimization of PS with respect to PE THz EPR.
Optimized cantilever tips for PE EPR microscopy (opens in new window)Fabrication of a folded PS by EBL/FIB on longer/wider tips (e.g. needles, sapphire shards,…) glued to cantilevers or watch tuning forks: Optimized structures.
PS with enhanced magnetic field (opens in new window)Fabrication of metallic and doped semiconductor PS by lithography (electron, photo). Graphene PS – patterning of exfoliated and CVD graphene by lithography, plasma etching, Special efforts - doping (electric or chemical) of graphene.
SPM unit for PE EPR microscopy: Prototype (opens in new window)Assembly of a scanning sample stage of SPM from a X, Y, Z scanning piezo unit (X, Y: 100 × 100 μm2) and closed loop x-y-z piezo sample manipulator for a precise navigation to a specific sample site. Equipping the head carrying the cantilever with a cantilever-deflection detection system and a piezo providing cantilever oscillations (non-contact mode). Working prototype.
SPM unit for PE EPR microscopy: Progress report (opens in new window)Assembly of a scanning sample stage of SPM from a X, Y, Z scanning piezo unit (X, Y: 100 × 100 μm2) and closed loop x-y-z piezo sample manipulator for a precise navigation to a specific sample site. Equipping the head carrying the cantilever with a cantilever-deflection detection system and a piezo providing cantilever oscillations (non-contact mode). Progress report.
Platform for PE EPR microscopy (opens in new window)Installation of the SPM unit delivered in D2.1-D2.3 into a LHe cryostat of the EPR apparatus – assembly of a platform-prototype for PE THz EPR microscopy. Testing and optimization of the platform.
Implementation of Open research data pilot in the project.
Visual identity of the project including the logo. Website and visibility at social networks.
Publications
Author(s):
Chao Chen, Shu Chen, Ricardo P.S.M. Lobo, Carlos Maciel-Escudero, Martin Lewin, Thomas Taubner, Wei Xiong, Ming Xu, Xinliang Zhang, Xiangshui Miao, Peining Li, Rainer Hillenbrand
Published in:
ACS Photonics, Issue 7/12, 2020, Page(s) 3499-3506, ISSN 2330-4022
Publisher:
American Chemical Society
DOI:
10.1021/acsphotonics.0c01541
Author(s):
Michal Kern, Lorenzo Tesi, David Neusser, Nadine Rußegger, Mario Winkler, Alexander Allgaier, Yannic M. Gross, Stefan Bechler, Hannes S. Funk, Li‐Te Chang, Jörg Schulze, Sabine Ludwigs, Joris van Slageren
Published in:
Advanced Functional Materials, Issue 16. 11. 2020, 2020, Page(s) 2006882, ISSN 1616-301X
Publisher:
John Wiley & Sons Ltd.
DOI:
10.1002/adfm.202006882
Author(s):
Lorenzo Tesi, Dominik Bloos, Martin Hrtoň, Adam Beneš, Mario Hentschel, Michal Kern, Alisa Leavesley, Rainer Hillenbrand, Vlastimil Křápek, Tomáš Šikola, Joris Slageren
Published in:
Small Methods, Issue 2021, 2021, Page(s) 2100376, ISSN 2366-9608
Publisher:
Wiley-VCH GmbH
DOI:
10.1002/smtd.202100376
Author(s):
Stefan Mastel, Alexander A. Govyadinov, Curdin Maissen, Andrey Chuvilin, Andreas Berger, Rainer Hillenbrand
Published in:
ACS Photonics, Issue 5/8, 2018, Page(s) 3372-3378, ISSN 2330-4022
Publisher:
American Chemical Society
DOI:
10.1021/acsphotonics.8b00636
Author(s):
Curdin Maissen, Shu Chen, Elizaveta Nikulina, Alexander Govyadinov, Rainer Hillenbrand
Published in:
ACS Photonics, Issue 6/5, 2019, Page(s) 1279-1288, ISSN 2330-4022
Publisher:
American Chemical Society
DOI:
10.1021/acsphotonics.9b00324
Author(s):
Martin Hrtoň, Andrea Konečná, Michal Horák, Tomáš Šikola, Vlastimil Křápek
Published in:
Physical Review Applied, Issue 13/5, 2020, ISSN 2331-7019
Publisher:
American Physical Society
DOI:
10.1103/physrevapplied.13.054045
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