Gutenberg Open Science: Compact electrically detected magnetic resonance setup

Please use this identifier to cite or link to this item: http://doi.org/10.25358/openscience-7873

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DC Field	Value	Language
dc.contributor.author	Eckardt, Michael	-
dc.contributor.author	Behrends, Jan	-
dc.contributor.author	Münter, Detlef	-
dc.contributor.author	Harneit, Wolfgang	-
dc.date.accessioned	2022-10-06T07:28:04Z	-
dc.date.available	2022-10-06T07:28:04Z	-
dc.date.issued	2015	-
dc.identifier.uri	https://openscience.ub.uni-mainz.de/handle/20.500.12030/7888	-
dc.description.abstract	Electrically detected magnetic resonance (EDMR) is a commonly used technique for the study of spin-dependent transport processes in semiconductor materials and electro-optical devices. Here, we present the design and implementation of a compact setup to measure EDMR, which is based on a commercially available benchtop electron paramagnetic resonance (EPR) spectrometer. The electrical detection part uses mostly off-the-shelf electrical components and is thus highly customizable. We present a characterization and calibration procedure for the instrument that allowed us to quantitatively reproduce results obtained on a silicon-based reference sample with a “large-scale” state-of-the-art instrument. This shows that EDMR can be used in novel contexts relevant for semiconductor device fabrication like clean room environments and even glove boxes. As an application example, we present data on a class of environment-sensitive objects new to EDMR, semiconducting organic microcrystals, and discuss similarities and differences to data obtained for thin-film devices of the same molecule.	en_GB
dc.description.sponsorship	DFG, Open Access-Publizieren Universität Mainz / Universitätsmedizin	de
dc.language.iso	eng	de
dc.rights	CC BY	*
dc.rights.uri	https://creativecommons.org/licenses/by/3.0/	*
dc.subject.ddc	530 Physik	de_DE
dc.subject.ddc	530 Physics	en_GB
dc.title	Compact electrically detected magnetic resonance setup	en_GB
dc.type	Zeitschriftenaufsatz	de
dc.identifier.doi	http://doi.org/10.25358/openscience-7873	-
jgu.type.dinitype	article	en_GB
jgu.type.version	Published version	de
jgu.type.resource	Text	de
jgu.organisation.department	FB 09 Chemie, Pharmazie u. Geowissensch.	de
jgu.organisation.number	7950	-
jgu.organisation.name	Johannes Gutenberg-Universität Mainz	-
jgu.rights.accessrights	openAccess	-
jgu.journal.title	AIP Advances	de
jgu.journal.volume	5	de
jgu.journal.issue	4	de
jgu.pages.alternative	Art. 047139	de
jgu.publisher.year	2015	-
jgu.publisher.name	American Inst. of Physics	de
jgu.publisher.place	New York, NY	de
jgu.publisher.uri	http://dx.doi.org/10.1063/1.4919247	de
jgu.publisher.issn	2158-3226	de
jgu.organisation.place	Mainz	-
jgu.subject.ddccode	530	de
opus.date.modified	2018-08-10T07:49:09Z	-
opus.subject.dfgcode	07-307	-
opus.organisation.string	FB 09: Chemie, Pharmazie und Geowissenschaften: Institut für Physikalische Chemie	de_DE
opus.identifier.opusid	50866	-
opus.institute.number	0906	-
opus.metadataonly	false	-
opus.type.contenttype	Keine	de_DE
opus.type.contenttype	None	en_EN
opus.affiliated	Eckardt, Michael	-
opus.affiliated	Harneit, Wolfgang	-
jgu.publisher.doi	10.1063/1.4919247	de
jgu.organisation.ror	https://ror.org/023b0x485	-
Appears in collections:	DFG-OA-Publizieren (2012 - 2017)

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