Optimization of Transmission X-ray Target for Intense Pulsed Electron Beam Accelerators; Applied Sciences; Vol. 12, iss. 9

Optimization of Transmission X-ray Target for Intense Pulsed Electron Beam Accelerators; Applied Sciences; Vol. 12, iss. 9

Bibliografske podrobnosti
Parent link:	Applied Sciences Vol. 12, iss. 9.— 2022.— [4327 , 15 p.]
Korporativna značnica:	Национальный исследовательский Томский политехнический университет Инженерная школа новых производственных технологий Научно-производственная лаборатория "Импульсно-пучковых, электроразрядных и плазменных технологий"
Drugi avtorji:	Yu Xiao, Zhang Shijian, Egorov I. S. Ivan Sergeevich, Jiangqi Zhao, Chang Xiong, Yan Sha, Tan Chang, Remnev (Remnyov) G. E. Gennady Efimovich, Le Xiaoyun
Izvleček:	Title screen X-ray sources based on pulsed electron accelerators stimulate the development of bremsstrahlung converter designs. The numerical optimization of transmission-type X-ray targets for maximum X-ray output by pulsed electron beams was carried out in the present work. The targets featured a combination of a heavy element (tungsten or molybdenum) X-ray conversion layer and a titanium membrane that served as the vacuum window, thermal shielding for converter heat, and an electron dump. The energy spectrum of the electron beam generated via explosive emission was analyzed via the space-charge effect, and was utilized for the source sampling algorithm for electron transportation simulation with a Monte Carlo method for X-ray emission analysis. It was revealed that the transmission photon intensity of a mono-material target is primarily affected by the thickness of the target, and there exists an optimal target thickness within which the photon fluence is restricted by insufficient electron stopping; when exceeded, the extra thickness of the X-ray converter target imposes absorption and attenuates the generated X-ray. Analysis on dual-layer targets proved that this optimized converter target thickness, combined with a proper titanium window, produces the highest X-ray photon emissions.
Jezik:	angleščina
Izdano:	2022
Teme:	электронный ресурс труды учёных ТПУ intense pulsed electron beam X-ray bremsstrahlung converter dual-layer target FLUKA электронные пучки рентгеновские снимки тормозное излучение
Online dostop:	http://earchive.tpu.ru/handle/11683/74921 https://doi.org/10.3390/app12094327
Format:	Elektronski Book Chapter
KOHA link:	https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=668091

Podobne knjige/članki

Numerical optimization of transmission bremsstrahlung target for intense pulsed electron beam; Nuclear Engineering and Technology; Vol. 54, iss. 2
Izdano: (2022)

Bremsstrahlung converter system with target in vacuum; Vacuum; Vol. 187
Izdano: (2021)

A method of real-time monitoring beam output stability of intense pulsed ion beam; Acta Physica Sinica; Vol. 72, iss. 17
Izdano: (2023)

Comparison of X-ray sources on the basis of bremsstrahlung and parametric radiations; Bulletin of the Tomsk Polytechnic University; Vol. 311, № 2
od: Gogolev A. S. Aleksey Sergeevich
Izdano: (2007)

Parametric X-ray radiation and texture of polycrystalline foils; Resource-Efficient Technologies; No 2
Izdano: (2018)

DIN 1.7035 Steel Modification with High Intensity Nitrogen Ion Implantation; Russian Physics Journal; Vol. 61, iss. 2
Izdano: (2018)

Investigation of the Features of High-Intensity Implantation of Nitrogen Ions into Titanium; Journal of Surface Investigation. X-ray, Synchrotron and Neutron Techniques; Vol. 17, s. 1
Izdano: (2023)

Fabrication of customizable wedged multilayer Laue lenses by adding a stress layer; Thin Solid Films; Vol. 571, pt. 2
Izdano: (2015)

Numerical Modeling of Radiographic Images as the Basis for Correctly Designing Digital Radiography Systems of Large-Sized Objects; Russian Journal of Nondestructive Testing; Vol. 55, iss. 2
Izdano: (2019)

Thin Wires and Edge Imaging Using Hard Bremsstrahlung Generated by a Microfocal Target of a Betatron; Journal of Nondestructive Evaluation; Vol. 41, iss. 1
od: Rychkov M. M. Maksim Mikhailovich
Izdano: (2022)

Identification of Materials in Fragments of Large-Sized Objects in Containers by the Dual-Energy Method; Russian Journal of Nondestructive Testing; Vol. 55, iss. 9
Izdano: (2019)

Algorithm for Optimizing the Parameters of Sandwich X-ray Detectors; Russian Journal of Nondestructive Testing; Vol. 59, iss. 3
od: Udod V. A. Viktor Anatolievich
Izdano: (2023)

Limit Capabilities of Identifying Materials by High Dual- and Multi-Energy Methods; Russian Journal of Nondestructive Testing; Vol. 55, iss. 9
Izdano: (2019)

Determination of Optimal Parameters of the X-Ray Source on the Basis of Compact Electron Accelerators; Advanced Materials Research : Radiation and nuclear techniques in material science; Vol. 1084 : Physical-Technical Problems of Nuclear Science, Energy Generation, and Power Industry (PTPAI -2014)
Izdano: (2015)

Theoretical study of a simplified implementation model of a dual-energy technique for computed tomography; NDT and E International; Vol. 98
Izdano: (2018)

WD-XRA technique in multiphase flow measuring; Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms; Vol. 355 : Channeling 2014: Charged & Neutral Particles Channeling Phenomena
Izdano: (2015)

Focusing of intense pulsed ion beam by magnetically insulated diode for material research; Surface and Coatings Technology; Vol. 384
Izdano: (2020)

Ablation induced by intense pulsed ion beam and its effects on energy deposition on solid target; Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms; Vol. 461
Izdano: (2019)

Characteristic X-ray radiation excited by 450 MeV/nucleon C+6 ions and 1.3GeV protons in extracted and circulated beams of accelerator U70; Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms; Vol. 355 : Channeling 2014: Charged & Neutral Particles Channeling Phenomena
Izdano: (2015)

Effect on mechanics properties and microstructure of molybdenum by high intensity pulsed ion beam irradiation; Surface and Coatings Technology; Vol. 384
Izdano: (2020)

Specific Features of Material Recognition by the Multi-Energy X-Ray Method; Russian Journal of Nondestructive Testing; Vol. 55, iss. 4
Izdano: (2019)

Time-resolved -spectrometer to promptly control number and energy of protons collectively accelerated as different bunches; Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment; Vol. 998
od: Ryzhkov V. A. Vladislav Andreevich
Izdano: (2021)

Mathematical Models of Radiation Transparency of Test Objects When Using Sandwich X-Ray Radiation Detectors; Russian Journal of Nondestructive Testing; Vol. 56, iss. 2
od: Udod V. A. Viktor Anatolievich
Izdano: (2020)

Complex Assessment of X-ray Diffraction in Crystals with Face-Centered Silicon Carbide Lattice; Crystals; Vol. 13, iss. 3
Izdano: (2023)

Surface microstructure and phase structure of zirconia ceramics under intense pulsed ion beam irradiation; Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms; Vol. 542
Izdano: (2023)

Influence of magnetic field of a radial focusing external magnetically insulated diode on emission behavior of intense pulsed ion beam; Nuclear Instruments and Methods in Physics Research B; Vol. 537
Izdano: (2023)

The ablation of plastics by intense pulsed ion beam; Surface and Coatings Technology; Vol. 384
Izdano: (2020)

Effect on microstructure of Fe80B13Si7 metallic glass irradiated by high intensity pulsed ion beam and He ions; Surface and Coatings Technology; Vol. 449
Izdano: (2022)

Shielding of energy deposition by ablation of plastics under intense pulsed ion beam irradiation; Vacuum; Vol. 174
Izdano: (2020)

Influence of generation mechanisms on pulse profile of mechanical stress in metal target under the action of power ion beams; Bulletin of the Tomsk Polytechnic University; Vol. 310, № 2
Izdano: (2007)

Plasma-immersion formation of high-intensity gaseous ion beams; Vacuum; Vol. 165
Izdano: (2019)

Increasing the Number of Material Recognition Classes in Cargo Inspection Using the X-Ray Dual High-Energy Method; Computation; Vol. 13, iss. 2
od: Osipov S. P. Sergey Pavlovich
Izdano: (2025)

Radiation Dose Measurement Technique of the X-Ray Source in the Process of Stabilization; Advanced Materials Research; Vol. 1085 : Prospects of Fundamental Sciences Development (PFSD-2014)
Izdano: (2015)

Algorithm for Evaluating Errors in Recognition of Materials in X-Ray Testing System Containing X-Ray Sandwich Detectors; Russian Journal of Nondestructive Testing; Vol. 58, iss. 1
od: Udod V. A. Viktor Anatolievich
Izdano: (2022)

Changing Mechanisms of High-Temperature Oxidation of Zr-1%Nb Alloy in Air and Steam by Surface Modification with Charged Particles; Journal of Materials Engineering and Performance; Vol. 34, iss. 13
Izdano: (2025)

Effects on structure and properties of Zr55Al 10Cu30Ni5 metallic glass irradiated by high intensity pulsed ion beam; Applied Surface Science; Vol. 313
Izdano: (2014)

Estimation of the effective mass thickness and effective atomic number of the test object material by the dual energy method; Radiation Physics and Chemistry; Vol. 168
Izdano: (2020)

Formation of nanoscale carbon structures in the surface layer of metals under the impact of high intensity ion beam; Applied Surface Science; Vol. 310
Izdano: (2014)

Inspection of bulk cargoes and liquids by the dual energy method; Radiation Physics and Chemistry; Vol. 177
Izdano: (2020)

Thermal field induced by intense pulsed ion beam and its possible application in thermal diffusivity measurement; Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms; Vol. 409
Izdano: (2017)