Organokrypton chemistry

Study of the carbon-krypton bond

Organokrypton chemistry describes the synthesis and properties of organokrypton compounds, chemical compounds containing a carbon to krypton chemical bond.

Far fewer such compounds are known than organoxenon compounds. The first organokrypton compound, HKrCCH, was reported in 2003 and made by photolytic insertion of a krypton atom into acetylene.[1] Similar work was then done on diacetylene and cyanoacetylene, producing HKrC4H and HKrC3N.[2] All these were made in matrix isolation and are stable up to 40 K.[3] HKrCCF and HCCKrF have also been experimentally produced in matrix isolation.[4]

Dications generated by dissociative electron ionisation of 2,4,6-trimethylpyridine react with krypton to form the organokrypton cations C8H7NKr2+ and C8H8NKr2+.[5] Reaction of acetylene dications with krypton produced HCCKr2+.[6]

References

  1. ^ Khriachtchev, Leonid; Tanskanen, Hanna; Cohen, Arik; Gerber, R. Benny; Lundell, Jan; Pettersson, Mika; Kiljunen, Harri; Räsänen, Markku (2003). "A Gate to Organokrypton Chemistry: HKrCCH". Journal of the American Chemical Society. 125 (23): 6876–6877. doi:10.1021/ja0355269. PMID 12783534.
  2. ^ Khriachtchev, Leonid; Räsänen, Markku; Gerber, R. Benny (2009). "Noble-Gas Hydrides: New Chemistry at Low Temperatures". Accounts of Chemical Research. 42 (1): 183–191. doi:10.1021/ar800110q. PMID 18720951.
  3. ^ Bartlett, Neil (2003). "The Noble Gases". Chemical and Engineering News. 81 (36): 32–34. doi:10.1021/cen-v081n036.p032.
  4. ^ Khriachtchev, Leonid; Domanskaya, Alexandra; Lundell, Jan; Akimov, Alexander; Räsänen, Markku; Misochko, Eugenii (2010). "Matrix-Isolation and ab Initio Study of HNgCCF and HCCNgF Molecules (Ng = Ar, Kr, and Xe)". The Journal of Physical Chemistry A. 114 (12): 4181–4187. Bibcode:2010JPCA..114.4181K. doi:10.1021/jp1001622. hdl:10138/23938. PMID 20205379.
  5. ^ Zins, Emilie-Laure; Schröder, Detlef (2011). "Influence of the structure of medium-sized aromatic precursors on the reactivity of their dications towards rare gases". International Journal of Mass Spectrometry. 299 (1): 53–58. Bibcode:2011IJMSp.299...53Z. doi:10.1016/j.ijms.2010.09.017.
  6. ^ Ascenzi, Daniela; Tosi, Paolo; Roithová, Jana; Ricketts, Claire L.; Schröder, Detlef; Lockyer, Jessica F.; Parkes, Michael A.; Price, Stephen D. (2008). "Generation of the organo-rare gas dications HCCRg2+ (Rg = Ar and Kr) in the reaction of acetylene dications with rare gases". Physical Chemistry Chemical Physics. 10 (47): 7121–7128. Bibcode:2008PCCP...10.7121A. doi:10.1039/B810398D. PMID 19039346.
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Compounds of carbon with other elements in the periodic table
Legend
  • Chemical bonds to carbon
  • Core organic chemistry
  • Many uses in chemistry
  • Academic research, no widespread use
  • Bond unknown
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Helium compounds
  • HeH+
  • LiHe
  • Na2He
  • He2
  • He3
Neon compounds
  • None known
Argon compounds
Krypton compounds
  • KrF2
  • KrF
    4
  • KrF
    6
  • KrFAuF6
  • KrFSbF6
  • HKrCN
  • HKrC2H
  • Kr(OTeF5)2
  • HCNKrF2
  • KrH+
  • Organokrypton compounds
Xenon compounds
Xe(0)
  • AuXe4(Sb2F11)2
  • XeH+
Xe(I)
Xe(II)
  • XeF2
  • XeFPtF5
  • XeFPt2F11
  • Xe2F3PtF6
  • XeCl2
  • FXeONO2
  • Xe(ONO2)2
  • Organoxenon(II) compounds
Xe(IV)
  • XeO2
  • XeF4
  • XeOF2
  • N(CH3)4XeF5
  • XeCl4
  • Organoxenon(IV) compounds
Xe(VI)
  • XeO3
  • XeF6
  • XeOF4
  • H2XeO4
  • (NO)2XeF8
Xe(VIII)
  • XeO4
  • H4XeO6
  • XeF8
Radon compounds
Rn(II)
  • RnF2
  • RnFSb2F11
Rn(VI)
  • RnO3
  • RnF
    6
Oganesson compounds (predicted)
Og(0)
  • Og2
Og(I)
  • OgH+
Og(II)
  • OgF2
  • OgCl2
  • OgO
Og(IV)
  • OgF4
  • OgO2
  • OgTs4
Og(VI)
  • OgF6


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