TY  - CONF
AU  - Hunt, C.
AU  - Palladino, V.C.
AU  - Whyte, C.G.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - Progress on Muon Ionization Cooling Demonstration with MICE
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The Muon Ionization Cooling Experiment (MICE) at RAL has collected extensive data to study the ionization cooling of muons. Several million individual particle tracks have been recorded passing through a series of focusing magnets in a number of different configurations and a liquid hydrogen or lithium hydride absorber. Measurement of the tracks upstream and downstream of the absorber has shown the expected effects of the 4D emittance reduction. Further studies are providing now more and deeper insight.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 594
EP  - 597
KW  - simulation
KW  - emittance
KW  - experiment
KW  - detector
KW  - framework
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-MOPRB011
UR  - http://jacow.org/ipac2019/papers/moprb011.pdf
ER  - 

TY  - CONF
AU  - Whyte, C.G.
AU  - Nugent, J.C.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - RECENT RESULTS FROM MICE ON MULTIPLE COULOMB SCATTERING AND ENERGY LOSS
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - Multiple Coulomb scattering and energy loss are well known phenomena experienced by charged particles as they traverse a material. However, from recent measurements by the MuScat collaboration, it is known that the simulation code (GEANT4) available at the time overestimated the scattering of muons in low Z materials. Updates to GEANT4 have brought the simulations in line with the MuScat data and these new models can be validated over a larger range of momentum, 170-250 MeV/c, with MICE data. This is of particular interest to the Muon Ionization Cooling Experiment (MICE) collaboration which has the goal of measuring the reduction of the emittance of a muon beam induced by energy loss in low Z absorbers. MICE took data without magnetic field suitable for multiple scattering measurements in the spring of 2016 using a lithium hydride absorber and in the fall of 2017 using a liquid hydrogen absorber. The measurement in lithium hydride is reported here along with the preliminary measurements in liquid hydrogen. In the fall of 2016 MICE took data with magnetic fields on and measured the energy loss of muons in a lithium hydride absorber. These data are all compared with the Bethe-Bloch formula and with the predictions of various models, including the default GEANT4 model.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 598
EP  - 600
KW  - scattering
KW  - emittance
KW  - detector
KW  - framework
KW  - acceleration
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-MOPRB012
UR  - http://jacow.org/ipac2019/papers/moprb012.pdf
ER  - 

TY  - CONF
AU  - Zhu, D.
AU  - Cross, A.W.
AU  - Tan, Y.E.
AU  - Zhang, L.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - The Conceptual Design of a 36 GHz RF Undulator
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The CompactLight project supported by European H₂020 is to design a hard X-ray FEL facility beyond today’s state of the art. The project integrates photo injector, X-band acceleration and innovative compact short-period undulators together to make the machine more compact. RF undulator has an extraordinary advantage of working at very short undulator period. A conceptual design for a RF undulator at 36 GHz using a corrugated cylindrical waveguide operating in the HE11 mode is presented in this paper. Based on beam dynamics simulation and photon beam radiation simulations, the possibility of RF undulator to be used in CompactLight project is evaluated.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 1676
EP  - 1678
KW  - undulator
KW  - cavity
KW  - electron
KW  - GUI
KW  - photon
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-TUPRB002
UR  - http://jacow.org/ipac2019/papers/tuprb002.pdf
ER  - 

TY  - CONF
AU  - D'Auria, G.
AU  - Aicheler, M.
AU  - Aksoy, A.A.
AU  - Alesini, D.
AU  - Apsimon, R.
AU  - Arnesano, J.M.
AU  - Bellaveglia, M.
AU  - Bernhard, A.
AU  - Bosco, F.
AU  - Buonomo, B.
AU  - Burt, G.
AU  - Calvi, M.
AU  - Cardelli, F.
AU  - Castaneda Cortes, H.M.
AU  - Castilla, A.
AU  - Clarke, J.A.
AU  - Croia, M.
AU  - Cross, A.W.
AU  - Dattoli, G.
AU  - Di Mitri, S.
AU  - Diomede, M.
AU  - Dowd, R.T.
AU  - Dunning, D.J.
AU  - Fang, W.D.
AU  - Faus-Golfe, A.
AU  - Ferrario, M.
AU  - Ficcadenti, L.
AU  - Gallo, A.
AU  - Gazis, E.N.
AU  - Gazis, N.
AU  - Geometrante, R.
AU  - Gethmann, J.
AU  - Giribono, A.
AU  - Goryashko, V.A.
AU  - Han, Y.
AU  - Jacewicz, M.
AU  - Janssen, X.J.A.
AU  - Kokole, M.
AU  - Latina, A.
AU  - Liu, X.
AU  - Luiten, O.J.
AU  - Marcos, J.
AU  - Marín, E.
AU  - Mostacci, A.
AU  - Mutsaers, P.H.A.
AU  - Muñoz Horta, R.
AU  - Nguyen, F.
AU  - Palumbo, L.
AU  - Petralia, A.
AU  - Piersanti, L.
AU  - Priem, J.M.A.
AU  - Pérez, F.
AU  - Rochow, R.A.
AU  - Rossi, C.
AU  - Ruber, R.J.M.Y.
AU  - Schmidt, T.
AU  - Schulte, D.
AU  - Spataro, B.
AU  - Stapnes, S.
AU  - Stragier, X.F.D.
AU  - Taylor, G.
AU  - Thompson, N.
AU  - Vaccarezza, C.
AU  - Wu, X.W.
AU  - Wuensch, W.
AU  - Zhang, K.
AU  - Zhang, L.
AU  - Zhu, D.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - The CompactLight Design Study Project
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The H₂020 CompactLight Project (www. CompactLight.eu) aims at designing the next generation of compact X-rays Free-Electron Lasers, relying on very high gradient accelerating structures (X-band, 12 GHz), the most advanced concepts for bright electron photo injectors, and innovative compact short-period undulators. Compared to existing facilities, the proposed facility will benefit from a lower electron beam energy, due to the enhanced undulators performance, and will be significantly more compact, with a smaller footprint,  as a consequence of the lower energy and the high-gradient X-band structures. In addition, the whole infrastructure will also have a lower electrical power demand as well as lower construction and running costs.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 1756
EP  - 1759
KW  - FEL
KW  - linac
KW  - electron
KW  - undulator
KW  - brightness
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-TUPRB032
UR  - http://jacow.org/ipac2019/papers/tuprb032.pdf
ER  - 

TY  - CONF
AU  - Nghiem, P.A.P.
AU  - Alesini, D.
AU  - Aschikhin, A.
AU  - Audet, T.
AU  - Aßmann, R.W.
AU  - Beck, A.
AU  - Chancé, A.
AU  - Chen, M.
AU  - Chiadroni, E.
AU  - Cianchi, A.
AU  - Clarke, J.A.
AU  - Couprie, M.-E.
AU  - Croia, M.
AU  - Cros, B.
AU  - Dattoli, G.
AU  - Del Dotto, A.
AU  - Delerue, N.
AU  - Dorda, U.
AU  - Ferran Pousa, A.
AU  - Ferrario, M.
AU  - Fonseca, R.A.
AU  - Ghaith, A.
AU  - Giribono, A.
AU  - Gizzi, L.A.
AU  - Helm, A.
AU  - Hidding, B.
AU  - Hooker, S.M.
AU  - Ibison, M.G.
AU  - Jaroszynski, D.A.
AU  - Kruchinin, K.O.
AU  - Labate, L.
AU  - Lee, P.
AU  - Li, F.Y.
AU  - Li, X.
AU  - Libov, V.
AU  - Marchetti, B.
AU  - Martinez de la Ossa, A.
AU  - Marx, D.
AU  - Massimo, F.
AU  - Mathieu, F.
AU  - Maynard, G.
AU  - Mazzotta, Z.
AU  - Mehrling, T.J.
AU  - Molodozhentsev, A.Y.
AU  - Mosnier, A.
AU  - Mostacci, A.
AU  - Najmudin, Z.
AU  - Nguyen, F.
AU  - Niknejadi, P.
AU  - Oumbarek Espinos, D.
AU  - Pattathil, R.
AU  - Pompili, R.
AU  - Romeo, S.
AU  - Rossi, A.R.
AU  - Schaper, L.
AU  - Sheng, Z.M.
AU  - Shpakov, V.
AU  - Silva, L.O.
AU  - Silva, T.
AU  - Simon, C.
AU  - Specka, A.
AU  - Stella, A.
AU  - Streeter, M.J.V.
AU  - Svystun, E.N.
AU  - Symes, D.
AU  - Terzani, D.
AU  - Toci, G.
AU  - Tomassini, P.
AU  - Vaccarezza, C.
AU  - Vieira, J.M.
AU  - Vujanovic, M.
AU  - Walczak, R.
AU  - Walker, P.A.
AU  - Weikum, M.K.
AU  - Welsch, C.P.
AU  - Weng, S.M.
AU  - Wiggins, S.M.
AU  - Wolfenden, J.
AU  - Yoffe, S.
AU  - Zhu, J.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - EuPRAXIA, a Step Toward a Plasma-Wakefield Based Accelerator With High Beam Quality
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The EuPRAXIA project aims at designing the world’s first accelerator based on plasma-wakefield advanced technique, which can deliver a 5 GeV electron beam with simultaneously high charge, low emittance and low energy spread to user’s communities. Such challenging objectives can only have a chance to be achieved when particular efforts are dedicated to identify the subsequent issues and to find the way to solve them. Many injection/acceleration schemes and techniques have been explored by means of thorough simulations in more than ten European institutes to sort out the most appropriate ones. The specific issues of high charge, high beam quality and beam extraction then transfer to the user’s applications, have been tackled with many innovative approaches*. This article highlights the different advanced methods that have been employed by the EuPRAXIA collaboration and the preliminary results obtained. The needs in terms of laser and plasma parameters for such an accelerator are also summarized.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 2291
EP  - 2295
KW  - plasma
KW  - laser
KW  - injection
KW  - acceleration
KW  - emittance
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-WEZZPLS2
UR  - http://jacow.org/ipac2019/papers/wezzpls2.pdf
ER  - 

TY  - CONF
AU  - Brown, C.
AU  - Whyte, C.G.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - Emittance Exchange in MICE
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The Muon Ionization Cooling Experiment, MICE, has demonstrated transverse emittance reduction through ionization cooling. Transverse ionization cooling can be used either to prepare a beam for acceleration in a neutrino factory or for the initial stages of beam cooling in a muon collider. Later stages of ionization cooling in the muon collider require the longitudinal emittance to be manipulated using emittance exchange and reverse emittance exchange, where emittance is exchanged from and to longitudinal phase space respectively. A wedge absorber within the MICE cooling channel has been used to experimentally demonstrate reverse emittance exchange in ionization cooling. Parameters for this test have been explored in simulation and applied to experimental configurations using a wedge absorber when collecting data in the MICE beam. This analysis of reverse emittance exchange is presented in detail.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 3378
EP  - 3381
KW  - emittance
KW  - experiment
KW  - collider
KW  - simulation
KW  - factory
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-WEPTS108
UR  - http://jacow.org/ipac2019/papers/wepts108.pdf
ER  - 

TY  - CONF
AU  - Dosanjh, M.
AU  - Aggarwal, A.
AU  - Angal-Kalinin, D.
AU  - Apsimon, R.
AU  - Boogert, S.T.
AU  - Burt, G.
AU  - Coleman, N.
AU  - Collier, P.
AU  - Cross, A.W.
AU  - Konoplev, I.V.
AU  - McIntosh, P.A.
AU  - Militsyn, B.L.
AU  - Pistenmaa, D.A.
AU  - Sheehy, S.L.
AU  - Syratchev, I.
AU  - Wuensch, W.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - Collaborative Strategies for Meeting the Global Need for Cancer Radiation Therapy Treatment Systems
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The idea of designing affordable equipment and developing sustainable infrastructures for delivering radiation treatment for patients with cancer in countries that lack resources and expertise stimulated a first International Cancer Expert Corps (ICEC) championed, CERN-hosted workshop in Geneva in November 2016. Which has since been followed by three additional workshops involving the sponsorship and support from UK Science and Technology Facilities Council (STFC). One of the major challenges in meeting this need to deliver radiotherapy in low- and middle-income countries (LMIC) is to design a linear accelerator and associated instrumentation system which can be operated in locations where general infrastructures and qualified human resources are poor or lacking, power outages and water supply fluctuations can occur frequently and where climatic conditions might be harsh and challenging. In parallel it is essential to address education, training and mentoring requirements for current, as well as future novel radiation therapy treatment (RTT) systems.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 3526
EP  - 3529
KW  - linac
KW  - electron
KW  - radiation
KW  - vacuum
KW  - permanent-magnet
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-THPMP038
UR  - http://jacow.org/ipac2019/papers/thpmp038.pdf
ER  - 

TY  - CONF
AU  - Weikum, M.K.
AU  - Akhter, T.
AU  - Alesini, D.
AU  - Alexandrova, A.S.
AU  - Anania, M.P.
AU  - Andreev, N.E.
AU  - Andriyash, I.A.
AU  - Aschikhin, A.
AU  - Audet, T.
AU  - Aßmann, R.W.
AU  - Bacci, A.
AU  - Barna, I.F.
AU  - Beaton, A.
AU  - Beck, A.
AU  - Beluze, A.
AU  - Bernhard, A.
AU  - Bielawski, S.
AU  - Bisesto, F.G.
AU  - Brandi, F.
AU  - Brinkmann, R.
AU  - Bründermann, E.
AU  - Bussmann, M.H.
AU  - Bussolino, G.
AU  - Büscher, M.
AU  - Chancé, A.
AU  - Chen, M.
AU  - Chiadroni, E.
AU  - Cianchi, A.
AU  - Clarke, J.A.
AU  - Cole, J.
AU  - Couprie, M.-E.
AU  - Croia, M.
AU  - Cros, B.
AU  - Crump, P.A.
AU  - Dattoli, G.
AU  - De Nicola, S.
AU  - Del Dotto, A.
AU  - Delerue, N.
AU  - Dias, J.M.
AU  - Dorda, U.
AU  - Fedele, R.
AU  - Ferran Pousa, A.
AU  - Ferrario, M.
AU  - Filippi, F.
AU  - Fiore, G.
AU  - Fonseca, R.A.
AU  - Galimberti, M.
AU  - Gallo, A.
AU  - Ghaith, A.
AU  - Giove, D.
AU  - Giribono, A.
AU  - Gizzi, L.A.
AU  - Grüner, F.J.
AU  - Habib, A.F.
AU  - Haefner, C.
AU  - Heinemann, T.
AU  - Hidding, B.
AU  - Holzer, B.J.
AU  - Hooker, S.M.
AU  - Hosokai, T.
AU  - Huebner, M.
AU  - Irman, A.
AU  - Jafarinia, F.
AU  - Jaroszynski, D.A.
AU  - Joshi, C.
AU  - Kaluza, M.
AU  - Kando, M.
AU  - Karger, O.S.
AU  - Karsch, S.
AU  - Khazanov, E.
AU  - Khikhlukha, D.
AU  - Knetsch, A.
AU  - Kocon, D.
AU  - Koester, P.
AU  - Kononenko, O.S.
AU  - Korn, G.
AU  - Kostyukov, I.
AU  - Kruchinin, K.O.
AU  - Labate, L.
AU  - Le Blanc, C.
AU  - Lechner, C.
AU  - Leemans, W.
AU  - Lehrach, A.
AU  - Li, X.
AU  - Libov, V.
AU  - Lifschitz, A.
AU  - Litvinenko, V.
AU  - Lu, W.
AU  - Lundh, O.
AU  - Maier, A.R.
AU  - Malka, V.
AU  - Manahan, G.G.
AU  - Mangles, S.P.D.
AU  - Marchetti, B.
AU  - Martinez de la Ossa, A.
AU  - Martins, J.L.
AU  - Mason, P.D.
AU  - Massimo, F.
AU  - Mathieu, F.
AU  - Maynard, G.
AU  - Mazzotta, Z.
AU  - Molodozhentsev, A.Y.
AU  - Mostacci, A.
AU  - Murphy, C.D.
AU  - Müller, A.-S.
AU  - Najmudin, Z.
AU  - Nghiem, P.A.P.
AU  - Nguyen, F.
AU  - Niknejadi, P.
AU  - Osterhoff, J.
AU  - Oumbarek Espinos, D.
AU  - Papadopoulos, D.N.
AU  - Patrizi, B.
AU  - Pattathil, R.
AU  - Petrillo, V.
AU  - Pocsai, M.A.
AU  - Poder, K.
AU  - Pompili, R.
AU  - Pribyl, L.
AU  - Pugacheva, D.
AU  - Romeo, S.
AU  - Rossetti Conti, M.
AU  - Rossi, A.R.
AU  - Rossmanith, R.
AU  - Roussel, E.
AU  - Sahai, A.A.
AU  - Sarri, G.
AU  - Schaper, L.
AU  - Scherkl, P.
AU  - Schramm, U.
AU  - Schroeder, C.B.
AU  - Scifo, J.
AU  - Serafini, L.
AU  - Sheng, Z.M.
AU  - Siders, C.
AU  - Silva, L.O.
AU  - Silva, T.
AU  - Simon, C.
AU  - Sinha, U.
AU  - Specka, A.
AU  - Streeter, M.J.V.
AU  - Svystun, E.N.
AU  - Symes, D.
AU  - Szwaj, C.
AU  - Tauscher, G.E.
AU  - Terzani, D.
AU  - Thompson, N.
AU  - Toci, G.
AU  - Tomassini, P.
AU  - Torres, R.
AU  - Ullmann, D.
AU  - Vaccarezza, C.
AU  - Vannini, M.
AU  - Vieira, J.M.
AU  - Villa, F.
AU  - Wahlstrom, C.-G.
AU  - Walczak, R.
AU  - Walker, P.A.
AU  - Wang, K.
AU  - Welsch, C.P.
AU  - Wiggins, S.M.
AU  - Wolfenden, J.
AU  - Xia, G.X.
AU  - Yabashi, M.
AU  - Zhu, J.
AU  - Zigler, A.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - Status of the Horizon 2020 EuPRAXIA Conceptual Design Study
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The Horizon 2020 Project EuPRAXIA (European Plasma Research Accelerator with eXcellence In Applications) is producing a conceptual design report for a highly compact and cost-effective European facility with multi-GeV electron beams accelerated using plasmas. EuPRAXIA will be set up as a distributed Open Innovation platform with two construction sites, one with a focus on beam-driven plasma acceleration (PWFA) and another site with a focus on laser-driven plasma acceleration (LWFA). User areas at both sites will provide access to FEL pilot experiments, positron generation and acceleration, compact radiation sources, and test beams for HEP detector development. Support centres in four different countries will complement the pan-European implementation of this infrastructure.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 3638
EP  - 3642
KW  - plasma
KW  - laser
KW  - electron
KW  - acceleration
KW  - site
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-THPGW026
UR  - http://jacow.org/ipac2019/papers/thpgw026.pdf
ER  - 

TY  - CONF
AU  - Dewhurst, K.A.
AU  - Brunetti, E.
AU  - Jaroszynski, D.A.
AU  - Muratori, B.D.
AU  - Owen, H.L.
AU  - Wiggins, S.M.
AU  - de Loos, M.J.
AU  - van der Geer, S.B.
ED  - Boland, Mark
ED  - Tanaka, Hitoshi
ED  - Button, David
ED  - Dowd, Rohan
ED  - Schaa, Volker RW
ED  - Tan, Eugene
TI  - Design of the Cockcroft Beamline: Adjustable Transport of Laser Wakefield Electrons to an Undulator
J2  - Proc. of IPAC2019, Melbourne, Australia, 19-24 May 2019
CY  - Melbourne, Australia
T2  - International Particle Accelerator Conference
T3  - 10
LA  - english
AB  - The Cockcroft Beamline is being designed to transport 1 GeV electrons from a laser wakefield accelerator (LWFA) to an undulator at the Scottish Centre for the Application of Plasma-based Accelerators (SCAPA) in Glasgow, UK. To demonstrate undulator radiation in the X-ray spectral region and potentially free electron laser (FEL) gain, electrons should be transported between the LWFA and the undulators with high fidelity. In this paper we present the design of an adjustable beam line to transport LWFA electrons to the undulator for a range of energies, from 0.5 GeV to 1 GeV, while preserving the electron beam properties and matching the undulator-beam coupling.
PB  - JACoW Publishing
CP  - Geneva, Switzerland
SP  - 3749
EP  - 3752
KW  - undulator
KW  - electron
KW  - laser
KW  - plasma
KW  - radiation
DA  - 2019/06
PY  - 2019
SN  - 978-3-95450-208-0
DO  - DOI: 10.18429/JACoW-IPAC2019-THPGW070
UR  - http://jacow.org/ipac2019/papers/thpgw070.pdf
ER  -