[1] Hipple J A, Sommer H, Thomas H A. A precise method of determining the faraday by magnetic resonance[J]. Physical Review, 76, 1877-1878(1949).

[2] Wobschall D, Graham J R, Malone D P. Ion cyclotron resonance and the determination of collision cross sections[J]. Physical Review, 131, 1565-1571(1963).

[3] Anders L R, Beauchamp J L, Dunbar R C et al. Ion-cyclotron double resonance[J]. The Journal of Chemical Physics, 45, 1062-1063(1966).

[4] Comisarow M B, Marshall A G. Fourier transform ion cyclotron resonance spectroscopy[J]. Chemical Physics Letters, 25, 282-283(1974).

[5] Bray F, Fabrizi I, Flament S et al. Robust high-throughput proteomics identification and deamidation quantitation of extinct species up to Pleistocene with ultrahigh-resolution MALDI-FTICR mass spectrometry[J]. Analytical Chemistry, 95, 7422-7432(2023).

[6] Kip A M, Valverde J M, Altelaar M et al. Combined quantitative (phospho)proteomics and mass spectrometry imaging reveal temporal and spatial protein changes in human intestinal ischemia-reperfusion[J]. Journal of Proteome Research, 21, 49-66(2022).

[7] Kansha Y, Kato S, Tsuji K. Analysis of reactions during the residue desulfurization of heavy oil based on a data-driven method[J]. Computers & Chemical Engineering, 164, 107901(2022).

[8] Vanini G, Barra T A, Souza L M et al. Characterization of nonvolatile polar compounds from Brazilian oils by electrospray ionization with FT-ICR MS and Orbitrap-MS[J]. Fuel, 282, 118790(2020).

[9] Marshall A G, Hendrickson C L, Jackson G S. Fourier transform ion cyclotron resonance mass spectrometry: a primer[J]. Mass Spectrometry Reviews, 17, 1-35(1998).

[10] Perkins F W. Heating tokamaks via the ion-cyclotron and ion-ion hybrid resonances[J]. Nuclear Fusion, 17, 1197-1224(1977).

[11] Lerche E, Van Eester D, Ongena J et al. Optimizing ion-cyclotron resonance frequency heating for ITER: dedicated JET experiments[J]. Plasma Physics and Controlled Fusion, 53, 124019(2011).

[12] Colas L, Vulliez K, Basiuk V et al. Ion cyclotron resonant heating in tore supra[J]. Fusion Science and Technology, 56, 1173-1204(2009).

[13] Zhao Y P, Zhang X J, Mao Y Z et al. EAST ion cyclotron resonance heating system for long pulse operation[J]. Fusion Engineering and Design, 89, 2642-2646(2014).

[14] WANG Shusong, HUANG Juan, CHANG Jiafeng et al. Preliminary study of velocity-space distribution of fast-ion loss under ion cyclotron resonance heating in the EAST[J]. Nuclear Techniques, 46, 120601(2023).

[15] YANG Guanming, HAO Guangzhou, LU Lingfeng et al. Influence of ion cyclotron range of frequencies heating on neutron emission rate in HL-3 tokamak[J]. Nuclear Techniques, 47, 050001(2024).

[16] WEN Xiaodong, XU Liqing, HU Liqun et al. Sawtooth behavior of EAST plasma under ICRF heating[J]. Nuclear Techniques, 46, 010502(2023).

[17] Dı́az F R C. An overview of the VASIMR engine: high power space propulsion with RF plasma generation and heating[C], 595, 3-15(2001).

[18] Cassady L D, Longmier B W, Olsen C S et al. VASIMR performance results[C](2010).

[19] Hollweg J V, Isenberg P A. Generation of the fast solar wind: a review with emphasis on the resonant cyclotron interaction[J]. Journal of Geophysical Research: Space Physics, 107, SSH 12-1-SSH 12-37(2002).

[20] XIAO Xiaoan[M]. Isotope separation(1999).

[21] Dolgolenko D A, Muromkin Y A. Plasma isotope separation based on ion cyclotron resonance[J]. Physics-Uspekhi, 52, 345-357(2009).

[22] Gorshunov N M, Dolgolenko D A, Muromkin Y A et al. ECR sources of calcium plasma[J]. Instruments and Experimental Techniques, 54, 97-103(2011).

[23] Compant La Fontaine A, Louvet P. Study of an ECR sputtering plasma source[J]. Plasma Sources Science and Technology, 8, 125-135(1999).

[24] Churkin I N, Volosov V I, Steshov A G. Universal metal ion source[J]. Review of Scientific Instruments, 69, 822-824(1998).

[25] Churkin I N, Semenov E P, Steshov A G et al. Electrode system for plasma source with crossed fields[J]. Fusion Science and Technology, 47, 348-350(2005).

[26] Beiranvand R. Magnetic field uniformity of the practical tri-axial Helmholtz coils systems[J]. The Review of Scientific Instruments, 85, 055115(2014).

[27] Safari R, Sohbatzadeh F. Effect of DC magnetic field on atmospheric pressure argon plasma jet[J]. Indian Journal of Physics, 89, 495-502(2015).

[28] Xiao C J, Chen Y H, Yang X Y et al. Plasma rotation in the Peking University Plasma Test device[J]. The Review of Scientific Instruments, 87, 11D610(2016).

[29] Magarotto M, Melazzi D, Pavarin D. Study on the influence of the magnetic field geometry on the power deposition in a Helicon plasma source[J]. Journal of Plasma Physics, 85, 905850404(2019).

[30] Dubinov A E, Kornilova I Y, Selemir V D. Isotope separation in plasmas by the ion-cyclotron resonance method[J]. Physics of Particles and Nuclei, 32, 443-452(2001).

[31] Volosov V I, Kotelnikov I A, Churkin I N et al. Setup for isotope separation by the ICR-heating method[J]. Atomic Energy, 88, 385-392(2000).

[32] XIAO Xiaoan, SUN Shiren, LI Gongpan et al. Ion cyclotron resonance method for separation of uranium isotopes[J]. Foreign Nuclear News, 16-18(1985).

[33] Li H P, Ostrikov K K, Sun W T. The energy tree: Non-equilibrium energy transfer in collision-dominated plasmas[J]. Physics Reports, 770, 1-45(2018).

[34] SHU Yuzhen, WU Jizong, DENG Weiqin. Application of crown compounds in lithium isotopes separation[J]. Journal of Nuclear and Radiochemistry, 37, 12-17(2015).

[35] LI Hulin, LI Liangjun, LI Sining et al. Review and prospect for separation of stable isotope carbon-13 by cryogenic rectification[J]. Low Temperature and Specialty Gases, 26, 9-15(2008).

[36] SUN Qiming, ZHOU Mingsheng, PAN Jianxiong et al. Technical study on centrifugal separation of 72Ge isotope with germanium tetrafluoride as processing gas[J]. Journal of Isotopes, 34, 475-479(2021).

[37] Karchevskii A I, Potanin E P. Coefficient of the extraction of the target isotope and optimum parameters of a collector of heated ions in the context of the ICR method of isotope separation[J]. Plasma Physics Reports, 28, 565-571(2002).

[38] Potanin E P. Analysis of the separation of gadolinium isotopes by the ICR method[J]. Plasma Physics Reports, 34, 121-127(2008).

[39] Karchevskii A I, Potanin E P. Calculation of the ion transverse velocity distribution function under ion cyclotron resonance heating[J]. Technical Physics, 49, 800-803(2004).

[40] Karchevskii A I, Potanin E P. Calculation of the ion distribution function over transverse velocities under ICR heating conditions and separation parameters of a collector of heated ions[J]. Plasma Physics Reports, 30, 1006-1011(2004).

[41] Potanin E P. Effect of the ion distribution over longitudinal velocities on the efficiency and separating parameters of the ICR method of isotope separation[J]. Technical Physics, 50, 698-704(2005).

[42] Potanin E P. Heating of gadolinium plasma ions by the ion cyclotron resonance method[J]. Technical Physics, 51, 1586-1590(2006).

[43] Volosov V I, Demenev V V, Steshov A G et al. Some features of ICR heating by a solenoidal antenna[J]. Plasma Physics Reports, 28, 559-564(2002).

[44] Compant L F A, Pashkovsky V G. Study of selective heating at ion cyclotron resonance for the plasma separation process[J]. Physics of Plasmas, 2, 4641-4649(1995).

[45] Volosov V I, Kotelnikov I A, Kuzmin S G. Separation of heavy-element isotopes by selective ICR heating techniques[J]. Plasma Physics Reports, 24, 474-485(1998).

[46] Kotelnikov I A, Kuzmin S G. Separation of heavy-element isotopes by ICR heating at the second harmonic[J]. Plasma Physics Reports, 25, 1010-1019(1999).

[47] Timofeev A V. ICR heating in ion separation systems[J]. Plasma Physics Reports, 31, 1012-1028(2005).

[48] Timofeev A V. Plasma processing of spent nuclear fuel by two-frequency ion cyclotron resonance heating[J]. Plasma Physics Reports, 35, 912-923(2009).

[49] Zhil'tsov V A, Kulygin V M, Semashko N N et al. Plasma separation of the elements applied to nuclear materials handling[J]. Atomic Energy, 101, 755-759(2006).

[50] Timofeev A V. On the theory of plasma processing of spent nuclear fuel[J]. Physics-Uspekhi, 57, 990-1021(2014).

[51] Timofeev A V. Plasma method for processing spent nuclear fuel[J]. Plasma Physics Reports, 33, 890-905(2007).

[52] Timofeev A V. Ion sepation by a curved magnetic field in a multicomponent plasma[J]. Plasma Physics Reports, 26, 626-627(2000).

[53] Dawson J M, Kim H C, Arnush D et al. Isotope separation in plasmas by use of ion cyclotron resonance[J]. Physical Review Letters, 37, 1547-1550(1976).

[54] Stevenson N R, Bigelow T S, Tarallo F J. Industrial scale production of stable isotopes employing the technique of plasma separation[J]. Journal of Radioanalytical and Nuclear Chemistry, 257, 153-155(2003).

[55] Tracy J G. Isotope separation program—present and future[J]. Nuclear Instruments and Methods in Physics Research Section A: Accelerators, Spectrometers, Detectors and Associated Equipment, 282, 261-266(1989).

[56] Bigelow T S, Tarallo F J, Stevenson N R. Production of stable isotopes utilizing the plasma separation process[J]. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 241, 652-654(2005).

[57] Compant L F A, Gil C, Louvet P. Isotope separation by ionic cyclotron resonance[R](1986).

[58] Louvet P, Compant L F A, Larousse B et al. Heavy stable isotope separation by ion cyclotron resonance[C], 83-92(1994).

[59] Compant L F A, Louvet P, Le Gourrierec P et al. Selective heating of high-pressure vapour elements by ion-cyclotron resonance[J]. Journal of Physics D: Applied Physics, 31, 847-865(1998).

[60] Babichev A P, Gorshunov N M, Dolgolenko D A et al. Distribution of the lithium deposition on the collector during separation of lithium isotopes by the plasma ICR method[J]. Plasma Physics Reports, 40, 760-766(2014).

[61] Dolgolenko D A, Muromkin Y A, Pashkovsky V G. An experimental technique for separating lithium isotopes in plasma using the ion cyclotron resonance method[J]. Instruments and Experimental Techniques, 62, 798-808(2019).

[62] Nanri K, Arai K, Matsubara A et al. Isotope separation in a magnetized sheet plasma by ion cyclotron resonance[J]. Nuclear Instruments and Methods in Physics Research Section B: Beam Interactions with Materials and Atoms, 70, 37-39(1992).

[63] Nanri K, Matsumura M, Homma M et al. Ion cyclotron resonance in a magnetized sheet plasma[J]. Review of Scientific Instruments, 65, 1359-1361(1994).

[64] Katakura H, Miura K, Inoue M. A new concept of isotope separation using ion cyclotron resonance in a magnetic field having a radial component[J]. Japanese Journal of Applied Physics, 32, 2167(1993).