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相关论文: Status of the RFD Linac Structure Developement

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The LIGHT (Linac for Image-Guided Hadron Therapy) project was initiated to develop a modular proton accelerator delivering beam with energies up to 230 MeV for cancer therapy. The machine consists of three different kinds of accelerating…

To maximize the physics potential of future neutrino oscillation experiments, it is proposed to build a 15-MW `proton driver' consisitng solely of a 3-GeV proton injector linac (PI) and a 17-GeV superconducting ILC-type linac (SCL). The…

加速器物理 · 物理学 2019-03-25 Radoje Belusevic

The main `bottleneck' limiting the beam power in circular machines is caused by space charge effects that produce beam instabilities. To increase maximally the beam power of a `proton driver', it is proposed to build a facility consisting…

加速器物理 · 物理学 2018-06-28 Radoje Belusevic

The peak current limit for the Fermilab Linac was recently studied. The purpose was to learn what components of the present Linac can be used for the first stage of a proposed proton driver[1]. For this application the Linac must provide a…

加速器物理 · 物理学 2007-05-23 M. Popovic , L. Allen , A. Moretti , E. McCrory , C. W. Schmidt , T. Sullivan

The Spallation Neutron Source (SNS) is being designed for operation in 2004. The SNS is a 1 GeV machine consisting of a combination normal-conducting and super-conducting linac as well as a ring and target area. The linac front end is a…

加速器物理 · 物理学 2007-05-23 Amy Regan , Sung-il Kwon , Tony S. Rohlev , Yi-Ming Wang , Mark S. Prokop , David W. Thomson

This paper describes the development progress of high current superconducting RF linacs in Los Alamos, performed to support a design of the linac for the APT (Accelerator Production of Tritium) Project. The APT linac design includes a CW…

The Proton Improvement Plan-II (PIP-II) [1] has been developed at Fermilab to provide powerful proton beams to the laboratorys experiments. An 800-MeV superconducting linear accelerator-a centerpiece of the project-is currently under…

加速器物理 · 物理学 2023-01-23 Igor Rakhno , Nikolai Mokhov , Igor Tropin , Sergei Striganov , Yury Eidelman

Using the China Spallation Neutron Source (CSNS) linac as the injector, a 500 MeV proton synchrotron is proposed for multidisciplinary application, such as biology, material and proton therapy. The synchrotron will deliver proton beam with…

加速器物理 · 物理学 2016-09-21 Liang-Sheng Huang , Sheng Wang , Hong-Fei Ji

The intense neutron source for development of fusion materials planned by international collaboration makes a new step to clarify the technical issues for realizing the 40 MeV, 250 mA deuteron beam facility. The baseline concept employs two…

加速器物理 · 物理学 2007-05-23 M. Sugimoto , M. Kinsho , H. Takeuchi

PIP-II is an 800 MEV superconducting linac that is in the initial acceleration chain for the Fermilab accelerator complex. The RF system consists of a warm front-end with an ion source, RFQ and buncher cavities along with 25 superconducting…

加速器物理 · 物理学 2023-11-13 P. Varghese , B. Chase , E. Cullerton , S. Raman , S. Ahmed , P. Hanlet , D. Klepec

The proposed Next Linear Collider (NLC) contains linac systems operating at L,S,C, and X band. This paper describes a wideband modular low-level RF (LLRF) system applicable for all NLC pulsed RF systems. High speed digital IF techniques are…

加速器物理 · 物理学 2007-05-23 P. Corredoura , C. Adolphsen

A 52MHz Radio Frequency Quadrupole (RFQ) linear accelerator (linac) is designed to serve as an initial structure for the SSC-linac system (injector into Separated Sector Cyclotron). The designed injection and output energy are 3.5 keV/u and…

加速器物理 · 物理学 2016-09-08 Xiao Chen , He Yuan , Yuan You-Jin , Liu Yong , Xia Jia-Wen , Lu Yuan-Rong , Yuri Batygin

In the framework of the upgrade of the SPARC_LAB facility at INFN-LNF, named EuPRAXIA@SPARC_LAB, a high gradient linac is foreseen. One of the most suitable options is to realize it in X-band. A preliminary design study of both accelerating…

As the pre-injector of the LHC injector chain, the proton linac at CERN is required to provide a high-intensity (180mA) beam to the Proton Synchrotron Booster. The results of measurements at this intensity will be presented. Furthermore,…

加速器物理 · 物理学 2007-05-23 C. E. Hill , A. Lombardi , R. Scrivens , M. Vretenar , A. Feschenko , A. Liou

This paper presents the final physics design of the Proton Improvement Plan-II (PIP-II) at Fermilab, focusing on the linear accelerator (Linac) and its beam transfer line. We address the challenges in longitudinal and transverse lattice…

加速器物理 · 物理学 2024-06-03 Abhishek Pathak , Arun Saini , Eduard Pozdeyev

The Proton Improvement Plan-II (PIP-II) is a superconducting linear accelerator being built at Fermilab that will provide 800 MeV proton beam for neutrino production. The linac consists of a total of twenty-three (23) cryomodules of five…

加速器物理 · 物理学 2023-07-18 William Soyars , Tomasz Banaszkiewicz , Ram Dhuley

With the planned turn-on of the PIP-II 800 MeV superconducting proton linac, Fermilab will potentially become the world's best laboratory at which to carry out fundamental muon measurements, sensitive searches for symmetry violation, and…

The proposed Next Linear Collider contains a large number of linac RF systems with new requirements for wideband klystron modulation and accurate RF vector detection. The system will be capable of automatically phasing each klystron and…

加速器物理 · 物理学 2007-05-23 P. Corredoura , C. Adolphsen

The Nuclotron-base Ion Collider fAcility (NICA) is under construction at the Joint Institute for Nuclear Research (JINR), with commissioning of the facility expected in late 2022. The Multi-Purpose Detector (MPD) has been designed to…

仪器与探测器 · 物理学 2023-01-31 MPD Collaboration , V. Abgaryan , R. Acevedo Kado , S. V. Afanasyev , G. N. Agakishiev , E. Alpatov , G. Altsybeev , M. Alvarado Hernández , S. V. Andreeva , T. V. Andreeva , E. V. Andronov , N. V. Anfimov , A. A. Aparin , V. I. Astakhov , E. Atkin , T. Aushev , G. S. Averichev , A. V. Averyanov , A. Ayala , V. A. Babkin , T. Babutsidze , I. A. Balashov , A. Bancer , M. Yu. Barabanov , D. A. Baranov , N. Baranova , N. Barbashina , A. E. Baskakov , P. N. Batyuk , A. G. Bazhazhin , D. Baznat , M. Baznat , S. N. Bazylev , L. G. E. Beltran , A. V. Belyaev , S. E. Belyaev , E. V. Belyaeva , V. Benda , M. Bielewicz , W. Bietenholz , D. Blaschke , D. Blau , G. Bogdanova , D. N. Bogoslovsky , I. V. Boguslavsky , E. Boos , A. Botvina , L. Bravina , S. A. Bulychjov , M. G. Buryakov , A. V. Butenko , A. V. Butorin , S. G. Buzin , A. Bychkov , A. V. Bychkov , R. R. Cabellero , D. Chaires Arciniega , V. V. Chalyshev , W. Chen , Z. Chen , V. A. Cheplakova , V. F. Chepurnov , V. V. Chepurnov , M. Cheremnova , G. A. Cheremukhina , L. Chlad , P. Chudoba , P. V. Chumakov , E. Cuautle , M. Czarnynoga , B. Dabrowska , D. Dąbrowski , A. Demanov , D. V. Dementyev , Z. Deng , A. V. Dmitriev , V. Kh. Dodokhov , E. V. Dolbilina , A. G. Dolbilov , I. Domínguez , W. Dominik , D. E. Donets , V. Dronik , A. Yu. Dubrovin , A. Dudziński , P. Dulov , N. V. Dunin , V. B. Dunin , V. Dyatlov , V. F. Dydyshko , A. A. Efremov , D. S. Egorov , V. V. Elsha , A. E. Emelyanov , N. E. Emelyanov , V. G. Ermakova , G. Eyyubova , D. Fang , O. V. Fateev , O. Fedin , Yu. I. Fedotov , A. A. Fedyunin , C. Feng , S. Feng , G. A. Feofilov , I. A. Filippov , T. Fischer , K. Formenko , M. A. Gaganova , T. T. Gandzhelashvili , O. P. Gavrishchuk , N. Geraksiev , S. E. Gerasimov , K. V. Gertsenberger , O. Golosov , V. M. Golovatyuk , M. Golubeva , I. Goncharov , N. V. Gorbunov , M. Grabowski , M. Grodzicka-Kobyłka , K. Grodzicki , J. Grzyb , F. Guber , A. Guirado , A. V. Guskov , V. Guzey , W. He , L. A. Hernández Rosas , M. Huang , Y. Huang , R. Idczak , D. Idrisov , S. N. Igolkin , M. Ilieva , A. Yu. Isupov , D. Ivanishchev , A. V. Ivanov , O. Ivanytskyi , A. Ivashkin , A. Izvestnyy , E. Jaworska , J. Jiao , I. Kadochnikov , S. I. Kakurin , P. Kankiewicz , M. N. Kapishin , D. Karmanov , N. Karpushkin , L. A. Kartashova , E. Kashirin , G. Kasprowicz , Yu. Kasumov , A. O. Kechechyan , G. D. Kekelidze , V. D. Kekelidze , A. Khanzadeev , P. Kharlamov , O. A. Khilinova , G. G. Khodzhibagiyan , N. Khosravi , A. Khvorostukhin , Y. Khyzhniak , V. Kikvadze , V. A. Kireyeu , Yu. T. Kiryushin , I. S. Kiryutin , A. Kisiel , A. Klyuev , V. Klyukhin , L. Kochenda , O. Kodolova , V. I. Kolesnikov , A. Kolozhvari , V. G. Komarov , V. P. Kondratiev , M. Korolev , V. Korotkikh , D. Kotov , S. Kovalenko , V. N. Kovalenko , S. Kowalski , N. A. Kozlenko , M. Krakowiak , V. A. Kramarenko , L. M. Krasnova , P. Kravchov , Yu. F. Krechetov , I. V. Kruglova , A. V. Krylov , V. Krylov , E. Kryshen , A. Kryukov , A. Kubankin , A. Kugler , M. Kuich , S. I. Kukarnikov , S. N. Kuklin , V. Kukulin , S. Kuleshov , E. A. Kulikov , V. V. Kulikov , A. Kurepin , S. Kushpil , V. S. Kuzmin , J. Kvita , D. Lanskoy , N. A. Lashmanov , M. Ławryńczuk , T. V. Lazareva , R. Lednicky , S. Li , Z. Li , A. G Litvinenko , E. I. Litvinenko , G. N. Litvinova , D. Liu , F. Liu , A. N. Livanov , V. I. Lobanov , Yu. Yu. Lobanov , S. P. Lobastov , I. Lokhtin , P. Lu , Yu. R. Lukstinsh , B. V. Luong , B. Łysakowski , Y. Ma , A. Machavariani , D. T. Madigozhin , B. Maksiak , V. I. Maksimenkova , A. I. Malakhov , M. Malayev , I. Maldonado , J. C. Maldonado , I. V. Malikov , L. Malinina , N. A. Maltsev , N. V. Maria , M. Shopova , M. A. Martemianov , M. Maslan , M. A. Matsyuk , T. Matulewicz , D. G. Melnikov , M. Merkin , S. P. Merts , I. N. Meshkov , S. Mianowski , I. I. Migulina , K. R. Mikhaylov , M. Milewicz-Zalewska , Yu. I. Minaev , N. A. Molokanova , E. Moreno-Barbosa , S. Morozov , A. A. Moshkin , I. V. Moshkovsky , A. E. Moskovsky , S. A. Movchan , A. A. Mudrokh , K. A. Mukhin , Yu. A. Murin , Zh. Zh. Musul'manbekov , V. V. Myalkovsky , D. Myktybekov , L. L. Narvaez Paredes , D. K. Nauruzbaev , E. N. Nazarova , A. V. Nechaevsky , D. G. Nesterov , M. Nie , P. A. Nieto-Marín , G. Nigmatkulov , V. A. Nikitin , M. Nioradze , X. Niu , W. Nowak , L. Nozka , I. A. Oleks , A. G. Olshevsky , O. E. Orlov , P. Parfenov , S. S. Parzhitsky , M. E. Patiño , V. A. Pavlyukevich , V. A. Penkin , V. F. Peresedov , D. Peresunko , D. V. Peshekhonov , V. A. Petrov , S. Petrushanko , O. Petukhov , K. Piasecki , D. V. Pichugina , A. Piloyan , A. V. Pilyar , S. M. Piyadin , S. Plamowski , M. Platonova , J. Pluta , A. E. Potanina , Yu. K. Potrebenikov , K. Poźniak , D. S. Prokhorova , N. A. Prokofiev , F. Protoklitow , A. Prozorov , D. Pszczel , A. M Puchkov , N. Pukhaeva , S. Puławski , A. R. Rakhmatullina , L. F. Rebolledo Herrera , V. Z. Reyna-Ortiz , V. Riabov , Yu. Riabov , N. O. Ridinger , V. Rikhvitsky , M. Rodriguez-Cahuantzi , O. V. Rogachevsky , V. Yu. Rogov , P. Rokita , G. Romanenko , R. Romaniuk , A. Romanova , K. Rosłon , T. Rossler , E. F. Rozas Calderon , I. A. Rufanov , M. M. Rumyantsev , A. Rustamov , A. A. Rybakov , M. Rybczyński , D. Rybka , A. A. Rymshina , J. Rzadkiewicz , Z. Ya. -O. Sadygov , V. A. Samsonov , V. S. Sandul , R. Sattarov , A. A. Savenkov , K. Schmidt , S. S. Seballos , S. A. Sedykh , I. Selyuzhenkov , T. V. Semchukova , A. Yu. Semenov , I. A. Semenova , S. V. Sergeev , N. A. Sergeeva , E. V. Serochkin , A. Yu. Seryakov , A. V. Shabunov , R. Shanidze , L. Shcheglova , B. G. Shchinov , C. Shen , Y. Shen , A. N. Sherbakov , A. D. Sheremetyev , A. I. Sheremetyeva , R. A. Shindin , A. V. Shipunov , M. O. Shitenkov , D. K. Shtejer , U. Shukla , A. A. Shunko , A. V. Shutov , V. B. Shutov , A. O. Sidorin , I. Skwira-Chalot , I. V. Slepnev , V. M. Slepnev , I. P. Slepov , Yu. A. Solnyshkin , A. Solomin , T. Solovyeva , A. S. Sorin , T. Starecki , G. Stefanek , J. Stepaniak , E. A. Streletskaya , M. Strikhanov , T. A. Strizh , A. Strizhak , N. V. Sukhov , S. I. Sukhovarov , X. Sun , N. N. Surkov , D. Suvarieva , V. L. Svalov , L. Świderski , A. Syntfeld-Każuch , T. Szcześniak , J. Szewiński , Z. Tang , A. Taranenko , N. A. Tarasov , V. Tcholakov , G. Tejeda-Muñoz , M. E. Tejeda-Yeomans , A. V. Terletskiy , O. V. Teryaev , V. V. Tikhomirov , A. A. Timoshenko , G. P. Tkachev , V. D. Toneev , N. D. Topilin , T. Traczyk , T. Tretyakova , A. V. Trubnikov , G. V. Trubnikov , I. A. Tyapkin , S. Yu. Udovenko , P. A. Ulloa Poblete , M. Urbaniak , V. Urumov , L. Valenzuela-Cazares , F. F. Valiev , V. A. Vasendina , I. N. Vasiliev , A. Vasilyev , V. V. Vechernin , S. V. Vereshchagin , N. N. Vladimirova , N. V. Vlasov , A. S. Vodopyanov , K. Vokhmyanina , V. Volkov , V. Volkov , O. A. Volodina , A. A. Voronin , V. Voronyuk , F. Wang , J. Wang , X. Wang , Y. Wang , Y. Wang , Y. Wang , Y. Wang , P. Wieczorek , D. Wielanek , Z. Włodarczyk , K. Wójcik , K. Wu , Z. Xiao , Q. Xu , C. Yang , H. Yang , Q. Yang , G. A. Yarygin , L. Yordanova , T. Yu , Z. Yuan , V. I. Yurevich , W. Zabołotny , E. Zabrodin , M. V. Zaitseva , J. A. Zamora Saa , N. I. Zamyatin , S. A. Zaporozhets , A. K. Zarochentsev , C. H. Zepeda-Fernández , W. Zha , M. Zhalov , Y. Zhang , Y. Zhang , Z. Zhang , C. Zhao , V. I. Zherebchevsky , V. N. Zhezher , C. Zhong , W. Zhou , X. Zhu , X. Zhu , A. I. Zinchenko , D. A. Zinchenko

The continue wave (CW) high current proton linac has wide applications as the front end of the high power proton machines. The low energy part is the most difficult one and there is no widely accepted solution yet. Both normal conducting…

加速器物理 · 物理学 2016-10-24 Li Zhihui