Nuclear Resonances in X-ray Waveguides

Lohse, Leon Merten

dc.contributor.author	Lohse, Leon Merten
dc.date.accessioned	2026-04-29T07:46:06Z
dc.date.available	2026-04-29T07:46:06Z
dc.date.issued	2026	de
dc.identifier.uri	https://doi.org/10.17875/gup2025-2947	de
dc.format.extent	192	de
dc.format.medium	Print	de
dc.language.iso	eng	de
dc.relation.ispartofseries	Göttingen Series in X-ray Physics	de
dc.rights.uri	https://creativecommons.org/licenses/by-sa/4.0/deed.de
dc.subject.ddc	530	de
dc.subject.other	OAPEN	de
dc.title	Nuclear Resonances in X-ray Waveguides	de
dc.type	monograph	de
dc.price.print	47,00
dc.identifier.urn	urn:nbn:de:gbv:7-isbn-978-3-86395-678-3-2
dc.description.print	Softcover, 17x24	de
dc.subject.division	peerReviewed	de
dc.subject.subjectheading	Physik	de
dc.relation.isbn-13	978-3-86395-678-3
dc.identifier.articlenumber	8102490	de
dc.identifier.intern	isbn-978-3-86395-678-3	de
dc.bibliographicCitation.volume	034	de
dc.type.subtype	thesis	de
dc.subject.bisac	SCI055000	de
dc.subject.vlb	640	de
dc.subject.bic	PH	de
dc.description.abstracteng	Hard X-rays generally only interact very weakly with matter, so that tissue, for example, is quite transparent to them. However, this makes the controlled manipulation of X-ray light particularly challenging. While many functionalities for visible and infrared light can nowadays be accommodated in integrated optical components on a microscopic scale on semiconductor substrates, macroscopic crystal optics are usually still required for X-ray light, despite the substantially smaller wavelength. Yet, similar to fiber optics for visible light, X-ray waveguides can guide X-ray light, whereby it is confined in one or two dimensions to a length scale of just a few 10 nm. This dissertation deals fundamentally with X-ray waveguides and the interaction of X-ray light with resonant quantum emitters within them. In particular, Mössbauer isotopes such as iron-57 are considered, whose atomic nuclei have very long-lived metastable states that can be excited with X-rays. On the one hand, a comprehensive theory of the nano-optics of X-ray waveguides is developed. On the other hand, first experiments are presented in which Mössbauer isotopes were embedded within X-ray waveguides and excited with focused synchrotron radiation. Finally, a Young’s double-slit experiment on the nanometer scale is shown (after Thomas Young, who received his doctorate in Göttingen in 1796), with which the resonant phase shift of atomic nuclei can be precisely measured. These represent important steps towards the manipulation of x-ray light on the nanometer scale.	de
dc.subject.eng	x-ray optics	de
dc.subject.eng	nuclear resonant scattering	de
dc.subject.eng	waveguides	de
dc.notes.vlb-print	lieferbar
dc.intern.doi	10.17875/gup2025-2947	de
dc.identifier.purl	http://resolver.sub.uni-goettingen.de/purl?univerlag-isbn-978-3-86395-678-3
dc.format.chapters	-	de
dc.intern.asin	3863956788
dc.subject.thema	PH	de

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