[1] Reinhold C O, Yoshida S, Dunning F B.Electric-feld-induced dissociation of heavy Rydberg ion-pair states [J].[J].J. Chem. Phys., 2011, 134(17):174305-1-174304-9
[2] Braun M, Marienfeld S, Ruf M W, et al.High-resolution electron attachment to the molecules CCl4 and SF6 over extended energy ranges with the(EX)LPA method [J]. [J].J. Phys. B: At. Mol. Opt. Phys, 2009, 42(12):125202-1-125202-20
[3]Denifl S, Ptasinska S, Probst M, et al.Electron attachment to the gas-phase DNA bases cytosine and thymine[J].J. Phys. Chem. A, 2004, 108(31):6562-6569
[4] Yoon S F, Tan K H, Rusil J A.Modeling and analysis of the electron cyclotron resonance diamond-like carbon deposition process [J]. [J].J. Appl. Phys., 2002, 91(3):1634-1639
[5] Smith D, Herd C R, Adams N G, et al.Formation of Br2 in the reactions of thermal electrons with some bromomethanes and bromoethanes [J]. [J].Int. J. Mass Spectrom. Ion Process, 1990, 96(3):341-346
[6] Cavaller G.Measurements of lateral diffusion coeffcients and frst townsend coeffcients for electrons in helium by an electron-density sampling method [J]. [J].Phys. Rev, 1969, 179(1):186-&
[7] Szamrej I, Kosc H, Forys M.Thermal electron attachment to halomethanes: 2. CH2F2, CHF3 and CClF3 [J]. .[J].Radiat. Phys. Chem., 1996,, 48(1): 69-74
[8] Shimamori H, Tatsumi Y, Ogawa Y, et al.Low-energy electron attachment to molecules studied by pulse-radiolysis microwave cavity technique combined with microwave heating [J].[J].J. Chem. Phys., 1992, 97(9): 6335-6347
[9] Tabrizchi M, Abedi A.A Novel Use of Negative Ion Mobility Spectrometry for Measuring Electron Attachment Rates [J]. [J].J. Phys. Chem., A2004, 108(30):6319 -6324
[10] Feng Hongtao, Niu Wenqi, Han Haiyan, et al.Rate constant of electron attachment to chlorobenzens measured by atmospheric pressure nitrogen corona discharge electron attachment ion mobility spectrometry [J]. [J].Int. J. Mass Spectrom, 2011, 305(1):30-34
[11] Su Desheng, Niu Wenqi, Liu Sheng, et al.Electron attachment rate constant measurement by photoemission electron attachment ion mobility spectrometry (PE-EA-IMS) [J].[J].R. Phys.Chem, 2012, 81(12):1869-1873
[12] Gao Hui, Niu Wenqi, Huang Chaoqun, et al.Rate constants of electron attachment to alkyl idodides measured by photoemission electron attachment ion mobility spectrometry (PE-EA-IMS) [J].[J].Int. J. Mass Spectrom, 2015, 376:1-5
[13] Sunagawa T, Shimamori H.Low-energy electron attachment to brominated methanes [J].[J].J. Chem. Phys, 1997, 107(19): 7876-7883
[14] Burns S J, Matthews J M, McFadden D L.Rate Coefficients for Dissociative Electron Attachment by Halomethane Compounds between 300 and 800 K [J].[J].J. Phys. Chem, 1996, 100(50):19436-1944
[15] Alge E, Adams N G, Smith D.Rate coefficients for the attachment reactions of electrons with c-C7FI4, CH3Br, CF3Br, CH2Br2 and CH3I determined between 200 and 600K using the FALP technique [J]. [J].J. Phys. B: At. Mol. Phys., 1984, 17(18):3827-3833
[16] Jarvis G K, Kennedy R A, Mayhew C A.Investigations of low energy electron attachment to ground state group 6B hexafluorides (SF6, SeF6, and TeF6) using an electron-swarm mass spectrometric technique [J]. [J].Int. J. Mass Spectrom, 2001, 205(1-3):253-270
[17] Christodoulides A A, Christophorou L G.Electron attachment to brominated aliphatic hydrocarbons of the form n-CNH2N+1Br (N = 1–6, 8, and 10). I. An electron swarm study [J].[J].J. Chem. Phys., 1971, 54(11):4691-4705
[18] Matejcik S, Ipolyi I, Illenberger E.Temperature dependence of electron attachment to CH2ClBr: competition between Cl-and Br- formation [J]. [J].Chem. Phys. L, 2003, 375(5-6):660-665