Trains of electron micro-bunches in plasma wake-field acceleration

Plasma-based charged particle accelerators have been intensively investigated in the past three decades due to their capability to open up new horizons in accelerator science and particle physics yielding electric field accelerating gradient more than three orders of magnitudes higher than in conven...

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Main Authors: Lecz, Z, Andreev, A, Konoplev, I, Seryi, A, Smith, J
Format: Journal article
Published: IOP Publishing 2018
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author Lecz, Z
Andreev, A
Konoplev, I
Seryi, A
Smith, J
author_facet Lecz, Z
Andreev, A
Konoplev, I
Seryi, A
Smith, J
author_sort Lecz, Z
collection OXFORD
description Plasma-based charged particle accelerators have been intensively investigated in the past three decades due to their capability to open up new horizons in accelerator science and particle physics yielding electric field accelerating gradient more than three orders of magnitudes higher than in conventional devices. At the current stage the most advanced and reliable mechanism for accelerating electrons is based on the propagation of an intense laser pulse or a relativistic electron beam in a low density gaseous target. In this paper we concentrate on the electron beam-driven plasma wake-field acceleration and demonstrate using 3D PiC simulations that a train of electron micro-bunches with ∼10 fs period can be generated behind the driving beam propagating in a density down-ramp. We will discuss the conditions and properties of the micro-bunches generated aiming at understanding and study of multi-bunch mechanism of injection. It is show that the periodicity and duration of micro-bunches can be controlled by adjusting the plasma density gradient and driving beam charge.
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spelling oxford-uuid:c46bfe64-40e5-453c-9eec-76fe52d5c2f72022-03-27T06:23:11ZTrains of electron micro-bunches in plasma wake-field accelerationJournal articlehttp://purl.org/coar/resource_type/c_dcae04bcuuid:c46bfe64-40e5-453c-9eec-76fe52d5c2f7Symplectic Elements at OxfordIOP Publishing2018Lecz, ZAndreev, AKonoplev, ISeryi, ASmith, JPlasma-based charged particle accelerators have been intensively investigated in the past three decades due to their capability to open up new horizons in accelerator science and particle physics yielding electric field accelerating gradient more than three orders of magnitudes higher than in conventional devices. At the current stage the most advanced and reliable mechanism for accelerating electrons is based on the propagation of an intense laser pulse or a relativistic electron beam in a low density gaseous target. In this paper we concentrate on the electron beam-driven plasma wake-field acceleration and demonstrate using 3D PiC simulations that a train of electron micro-bunches with ∼10 fs period can be generated behind the driving beam propagating in a density down-ramp. We will discuss the conditions and properties of the micro-bunches generated aiming at understanding and study of multi-bunch mechanism of injection. It is show that the periodicity and duration of micro-bunches can be controlled by adjusting the plasma density gradient and driving beam charge.
spellingShingle Lecz, Z
Andreev, A
Konoplev, I
Seryi, A
Smith, J
Trains of electron micro-bunches in plasma wake-field acceleration
title Trains of electron micro-bunches in plasma wake-field acceleration
title_full Trains of electron micro-bunches in plasma wake-field acceleration
title_fullStr Trains of electron micro-bunches in plasma wake-field acceleration
title_full_unstemmed Trains of electron micro-bunches in plasma wake-field acceleration
title_short Trains of electron micro-bunches in plasma wake-field acceleration
title_sort trains of electron micro bunches in plasma wake field acceleration
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