Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV

At the MAX-IV lab in Lund, there is a current goal to build a new soft X-Ray laser. The beam will be generated from a free-electron laser (FEL), which is an instrument consisting of high-speed electrons. The electrons move through alternating magnetic fields, causing the beam to become monochromatic...

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Main Authors: Emadi, Milad, Tynelius, Sofia, Beas Peterson, Patric, Ljung, Johnny
Format: Others
Language:English
Published: 2019
Subjects:
Online Access:http://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-385901
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spelling ndltd-UPSALLA1-oai-DiVA.org-uu-3859012019-06-25T09:10:02ZDesign of an X-ray transfer beamline for the Soft X-ray project at MAX IVengEmadi, MiladTynelius, SofiaBeas Peterson, PatricLjung, Johnny2019opticsfocusingbeamx-rayMAX-IVsoft x-raytransfermatrixAtom and Molecular Physics and OpticsAtom- och molekylfysik och optikAt the MAX-IV lab in Lund, there is a current goal to build a new soft X-Ray laser. The beam will be generated from a free-electron laser (FEL), which is an instrument consisting of high-speed electrons. The electrons move through alternating magnetic fields, causing the beam to become monochromatic. After the FEL, the Xrays will enter a beamline consisting of different optical components, such as mirrors, gratings and slits. This project investigated the necessary parameter values of the components, in order for the new X-Ray laser to focus the beam enough. The project consisted of a theoretical part and a simulation part. The use of so-called Kirkpatrick-Baez mirrors enables the beam to be very focused. The best focus achieved was 7.23um*10.87um for ''Pink beamline'' and the intensity at the end was 71.5%, which meant that only 30% of the rays were lost. For the monochromatic beamline, a loss of intensity is inevitable. With a pair of KBmirrors, this beam was focused to be 6.95um*9.80um. The energy spread is ranging from 6.198 eV to 0.3442 eV. The analytical calculations for the spot size matched well with the simulations. The pink beamline which was built in Ray satisfied the criterias of a spot size and intensity loss. The monochromatic beamline did fullfil the criterias of spot size and narrowing the energy spread. A loss of intensity will for this beamline be inevitable. Studying the misalignment effect showed that the components were most sensitive for vertical misalignment. The most sensitive parameters were the curvature of the mirrors. Student thesisinfo:eu-repo/semantics/bachelorThesistexthttp://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-385901TVE-F ; 19003application/pdfinfo:eu-repo/semantics/openAccess
collection NDLTD
language English
format Others
sources NDLTD
topic optics
focusing
beam
x-ray
MAX-IV
soft x-ray
transfer
matrix
Atom and Molecular Physics and Optics
Atom- och molekylfysik och optik
spellingShingle optics
focusing
beam
x-ray
MAX-IV
soft x-ray
transfer
matrix
Atom and Molecular Physics and Optics
Atom- och molekylfysik och optik
Emadi, Milad
Tynelius, Sofia
Beas Peterson, Patric
Ljung, Johnny
Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
description At the MAX-IV lab in Lund, there is a current goal to build a new soft X-Ray laser. The beam will be generated from a free-electron laser (FEL), which is an instrument consisting of high-speed electrons. The electrons move through alternating magnetic fields, causing the beam to become monochromatic. After the FEL, the Xrays will enter a beamline consisting of different optical components, such as mirrors, gratings and slits. This project investigated the necessary parameter values of the components, in order for the new X-Ray laser to focus the beam enough. The project consisted of a theoretical part and a simulation part. The use of so-called Kirkpatrick-Baez mirrors enables the beam to be very focused. The best focus achieved was 7.23um*10.87um for ''Pink beamline'' and the intensity at the end was 71.5%, which meant that only 30% of the rays were lost. For the monochromatic beamline, a loss of intensity is inevitable. With a pair of KBmirrors, this beam was focused to be 6.95um*9.80um. The energy spread is ranging from 6.198 eV to 0.3442 eV. The analytical calculations for the spot size matched well with the simulations. The pink beamline which was built in Ray satisfied the criterias of a spot size and intensity loss. The monochromatic beamline did fullfil the criterias of spot size and narrowing the energy spread. A loss of intensity will for this beamline be inevitable. Studying the misalignment effect showed that the components were most sensitive for vertical misalignment. The most sensitive parameters were the curvature of the mirrors.
author Emadi, Milad
Tynelius, Sofia
Beas Peterson, Patric
Ljung, Johnny
author_facet Emadi, Milad
Tynelius, Sofia
Beas Peterson, Patric
Ljung, Johnny
author_sort Emadi, Milad
title Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
title_short Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
title_full Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
title_fullStr Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
title_full_unstemmed Design of an X-ray transfer beamline for the Soft X-ray project at MAX IV
title_sort design of an x-ray transfer beamline for the soft x-ray project at max iv
publishDate 2019
url http://urn.kb.se/resolve?urn=urn:nbn:se:uu:diva-385901
work_keys_str_mv AT emadimilad designofanxraytransferbeamlineforthesoftxrayprojectatmaxiv
AT tyneliussofia designofanxraytransferbeamlineforthesoftxrayprojectatmaxiv
AT beaspetersonpatric designofanxraytransferbeamlineforthesoftxrayprojectatmaxiv
AT ljungjohnny designofanxraytransferbeamlineforthesoftxrayprojectatmaxiv
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