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Singlet Oxygen in the Lower Atmosphere: Origin, Measurement and Participation in Processes and Phenomena at the Boundary Between Biogenic and Abiogenic Nature

  • Vladimir P. ChelibanovEmail author
  • Ivan V. Chelibanov
  • Olga V. Frank-Kamenetskaya
  • Egor A. Iasenko
  • Alexandr M. Marugin
  • Olga A. Pinchuk
Conference paper
  • 98 Downloads
Part of the Lecture Notes in Earth System Sciences book series (LNESS)

Abstract

The present paper contains a review of literature data on sources of singlet oxygen in lower atmosphere and methods of its registration. Singlet oxygen gas analyzer developed in OPTEC JSC (St Petersburg, Russia), which operation principle is based on the 9,10-definilantracene chemiluminescent reaction is described in the present paper. The new gas analyzer used for solving a wide range of fundamental and applied problems connected with the processes and phenomena at the boundary between biogenic and abiogenic nature. Its capabilities demonstrated on the examples for monitoring pollutant concentrations in atmospheric air, on the experiments in vivo and in vitro on recording singlet oxygen on the surface of snow and near plants infected by pathogenic fungus, as well as on tests of photocatalytic materials developed for use in medicine and in protection of architectural and sculptural monuments from biodeterioration.

Keyword

Singlet oxygen Singlet oxygen sources Singlet oxygen monitoring Ozone monitoring Singlet oxygen gas analyzer Photocatalytic materials testing 

References

  1. Adam W, Kazakov DV, Kazakov VP (2005) Singlet-oxygen chemiluminescence in peroxide reactions. Chem Rev 105(9):3371–3387Google Scholar
  2. Bartusik D, Aebisher D, Lyons AM, Greer A (2012) Bacterial inactivation by a singlet oxygen bubbler: identifying factors controlling the toxicity of 1O2 bubbles. Environ Sci Technol 46(21):12098–12104Google Scholar
  3. Belashov AV, Beltyukova DM, Vasyutinsky OS, Petrov NV, Semenova IV, Chupov AS (2014) Registration of spatial distributions of singlet oxygen in water by the holographic method. Pisma v GTF 40(24):94–98 (in Russian)Google Scholar
  4. Boreskov GK (1982) Catalytic activation of dioxygen. In: Andersen J, Boudait M (eds) Catalysis: science and technology. Springer, Berlin-Heidelberg-New-York, pp 39–137Google Scholar
  5. Boreysho AS (2005) High-power mobile chemical lasers. Quantum Electron 35(5):393–406Google Scholar
  6. Bower JP, Anastasio C (2013) Measuring a 10,000-fold enhancement of singlet molecular oxygen (1O2*) concentration on illuminated ice relative to the corresponding liquid solution. Atmos Environ 75:188–195Google Scholar
  7. Chandler DW, Houston PL (1987) Two-dimensional imaging of state-selected photodissociation products detected by multiphoton ionization. J Chem Phys 87(2):1445–1447Google Scholar
  8. Chelibanov IV (2018) Features of the formation of reactive oxygen species in wheat leaves under the influence of phytopathogens and immunity inducers. Final qualifying work. Herzen University, St. Petersburg, pp 1–55 (in Russian)Google Scholar
  9. Chelibanov VP, Chelibanova MG (2010) Procedure and device for detecting singlet oxygen Patent RU2415401-C1Google Scholar
  10. Chelibanov VP, Zykova IA (2017) Analytical devices for ecology, industry and scientific research. Catalog 2017 Saint Petersburg, p 33 (in Russian) http://www.optec.ru/images/optec_catalog_2017.pdf
  11. Chelibanov VP, Marugin AM, Sazanova KV, Abakumov EV, Vlasov DY, Manurtdinova VV, Frank-Kamenetskaya OV (2019) Outdoor environment of the monuments in the Necropoleis. In: Frank-Kamenetskaya OV, Vlasov DY, Rytikova VV (eds) The effect of the environment on Saint Petersburg’ s cultural heritage: results of monitoring the historical necropolis monuments. Springer Nature Switzerland AG, pp 45–74Google Scholar
  12. Clark ID, Wayne RP (1970) The absolute cross section for photoionization of O2 (1Δg). Mol Phys 18(4):523–531Google Scholar
  13. Daimon T, Nosaka Y (2007) Formation and behavior of singlet molecular oxygen in TiO2 photocatalysis studied by detection of near-infrared phosphorescence. J Phys Chem C 111(11):4420–4424Google Scholar
  14. DeRosa MC, Crutchley RJ (2002) Photosensitized singlet oxygen and its applications. Coord Chem Rev 233:351–371Google Scholar
  15. Falick AM, Mahan BH, Myers RJ (1965) Paramagnetic resonance spectrum of the 1Δg oxygen molecule. J Chem Phys 42(5):1837–1838Google Scholar
  16. Farkhutdinova LM (2015) Oxidative stress. History of research. The Herald of the ASRE 20(1):42–49 (in Russian)Google Scholar
  17. Golovanova OA, Frank-Kamenetskaya OV, Punin YO (2010) Features of pathogenic mineral formation in the human body. Russ Chem J 54(2):124–136 (in Russian)Google Scholar
  18. Grannas AM, Jones AE, Dibb J, Ammann M, Anastasio C, Beine HJ, Bergin M, Bottenheim J, Boxe CS, Carver G, Chen G, Crawford JH, Dominé F, Frey MM, Guzmán MI, Heard DE, Helmig D, Hoffmann MR, Honrath RE, Huey LG, Hutterli M, Jacobi HW, Klán P, Lefer B, McConnell J, Plane J, Sander R, Savarino J, Shepson PB, Simpson WR, Sodeau JR, von Glasow R, Weller R, Wolff EW, Zhu T (2007) An overview of snow photochemistry: evidence, mechanisms and impacts. Atmos Chem Phys 7:4329–4373Google Scholar
  19. Hulten LM, Holmstrem M, Soussi B (1999) Effect of singlet oxygen energy on reactive oxygen species generation by human monocytes. Free Radic Biol Med 27(11/12):1203–1207Google Scholar
  20. Iasenko EA, Chelibanov VP, Marugin AM, Kozliner M (2016a) Monitoring of singlet oxygen in the lower troposphere and processes of ozone depletion. In EGU2016 General Assembly Conference Abstracts, vol 18, p 12947Google Scholar
  21. Iasenko EA, Chelibanov VP, Frank-Kamenetskaya OV, Nesterov EM, Marugin AM (2016b) Simultaneous monitoring of ozone and singlet oxygen in the low troposphere In: Proceedings of International Seminar: GEOLOGY, GEOECOLOGY, EVOLUTIONAL GEOGRAPHY 2016 Nesterov EM, Snytko VA, Makhov SI. Eds. St Petersburg Herzen University 15:224–227Google Scholar
  22. Jacob C, Winyard PG (eds) (2009) Redox signaling and regulation in biology and medicine, p 514. WileyGoogle Scholar
  23. Jones ITN, Bayes KD (1973) Formation of O2 (a 1Δg) by electronic energy transfer in mixtures of NO2 and O2. J Chem Phys 59(6):3119–3124Google Scholar
  24. Jones ITN, Wayne RP (1969) Photolysis of ozone by 254-, 313-, and 334-nm radiation. J Chem Phys 51(8):3617–3618Google Scholar
  25. Kearns DR (1971) Physical and chemical properties of singlet molecular oxygen. Chem Rev 71(4):395–427Google Scholar
  26. Khamova TV, Frank-Kamenetskaya OV, Shilova OA, Chelibanov VP, Marugin AM, Yasenko EA, Kuz’mina MA, Baranchikov AE, Ivanov VK (2018) Hydroxyapatite/anatase photocatalytic core-shell composite prepared by sol-gel processing. Crystallogr Rep 63(2):254–260Google Scholar
  27. Khan AU (1991) The discovery of the chemical evolution of singlet oxygen. some current chemical, photochemical, and biological applications. Int J Quantum Chem 39:251–267Google Scholar
  28. Khan SR (2013) Reactive oxygen species as the molecular modulators of calcium oxalate kidney stone formation: evidence from clinical and experimental investigations. The Journal of urology 189(3):803–811Google Scholar
  29. Krasnovsky AA (1993) Detection of photosensitized singlet oxygen luminescence in systems of biomedical importance. steady-state and time-resolved spectral measurements based on application of s − 1 photomultiplier tubes. Proc SPIE 1887:177–186Google Scholar
  30. Krasnovsky AA Jr (2018) Singlet molecular oxygen: early history of spectroscopic and photochemical studies with contributions of AN Terenin and Terenin’s school. J Photochem Photobiol, A 354:11–24Google Scholar
  31. Krinsky NI (1977) Singlet oxygen in biological systems. Trends Biochem Sci 2(2):35–38Google Scholar
  32. Kruk I, Michalska T, Kladna A, Aboul-Enein HY (2002) Spin trapping study of reactive oxygen species formation during bopindolol peroxidation. Biopolym Original Res Biomol 65(2):89–94Google Scholar
  33. Larson RA, Marley KA (1999) Singlet oxygen in the environment. In: Environmental photochemistry, pp. 123–137. Springer, Berlin, HeidelbergGoogle Scholar
  34. Lelieved J, Dentener FJ (2000) What controls tropospheric ozone. J Geophys Res Atmos 105(D3):3531–3551Google Scholar
  35. Martusevich AK, Kovaleva LK, Martusevich AA, Makarov AP (2015) The effect of a long course of inhalation of singlet oxygen on the crystallogenic properties of blood serum. Vrach-aspirant 73(6.1):186–191 (in Russian)Google Scholar
  36. Marugin AM, Arkhipova MA, Dolmatov VY, Shilova OA, Vlasov DY, Chelibanov VP, Fujimura T (2005) The possibilities of photocatalic biocides application in preservation of cultural heritage. In: Proceedings of International Conference SREN 2005. Comenius University, pp 130–132Google Scholar
  37. Mills A, Hill C, Robertson PKJ (2012) Overview of the current ISO tests for photocatalytic materials. J Photochem Photobiol, A 237:7–23Google Scholar
  38. Min DB, Boff JM (2002) Chemistry and reaction of singlet oxygen in foods. Compr Rev Food Sci Food Safet 1(2):58–72Google Scholar
  39. Mikheikin ID, Vorontsova IK, Abronin IA (2002) Reactivity of molecular oxygen on the surface of ionic crystals. Int J Quantum Chem 88(4):489–495Google Scholar
  40. Minaev BF (2007) Electronic mechanisms of activation of molecular oxygen. Russ Chem Rev 76(11):988–1010Google Scholar
  41. Morita A, Werfel T, Stege H, Ahrens C, Karmann K, Grewe M, Grether-Beck S, Ruzicka T, Kapp A, Klotz L-O, Sies H, Krutmann J (1997) Evidence that singlet oxygen-induced human T helper cell apoptosis is the basic mechanism of ultraviolet-a radiation phototherapy. J Exp Med 186(10):1763–1768Google Scholar
  42. Muñoz F, Mvula E, Braslavsky SE, von Sonntag Clemens (2001) Singlet dioxygen formation in ozone reactions in aqueous solution. J Chem Soc Perkin Trans 2:1109–1116Google Scholar
  43. Naus H, Ubachs W (1999) Visible absorption bands of the (O2) 2 collision complex at pressures below 760 Torr. Appl Opt 38(15):3423–3428Google Scholar
  44. Ogawa S, Fukui S, Hanasaki Y, Asano K, Uegaki H, Sumiko F, Ryosuke S (1991) Determination method of singlet oxygen in the atmosphere by use of α-terpinene. Chemosphere 22(12):1211–1225Google Scholar
  45. Ovechkin AS, Reingeverts MD, Kartsova LA (2015) GC determination of singlet oxygen using α-terpinene. Sorpt Chromatogr Process 15(1):35–41 (in Russian)Google Scholar
  46. Pitts JN Jr, Khan AU, Smith EB and Wayne RP (1969) Singlet oxygen in the environmental sciences. Singlet molecular oxygen and photochemical air pollution. Environ Sci Technol 3(3):241–247Google Scholar
  47. Pitts JN (1970) Singlet molecular oxygen and the photochemistry of urban atmospheres. Ann N Y Acad Sci 171(1):239–272Google Scholar
  48. Poljsak B, Šuput D, Milisav I (2013) Achieving the balance between ROS and antioxidants: when to use the synthetic antioxidants. Hindawi Publishing Corporation (Article ID 956792) Oxidative medicine and cellular longevity 2013:1–11Google Scholar
  49. Razumovsky AV, Martusevich AK, Martusevich AA (2016) Experimental study of the rehabilitation possibilities of inhalations of singlet oxygen in the postburn period. Bioradikaly i antioksidanty 3(3):82–84 (in Russian)Google Scholar
  50. Rodgers MA (1983) Solvent-induced deactivation of singlet oxygen: additivity relationships in nonaromatic solvents. J Am Chem Soc 105(20):6201–6205Google Scholar
  51. Romanov AN, Rufov YuV (1998) Highly sensitive chemiluminescent method of recording singlet oxygen in the gas phase. Russ J Phys Chem 72(9):2094–2097 (in Russian)Google Scholar
  52. Schweitzer C, Schmidt R (2003) Physical mechanisms of generation and deactivation of singlet oxygen. Chem Rev 103(5):1685–1758Google Scholar
  53. Steinbeck MJ, Khan AU, Karnovsky MJ (1993) Extracellular production of singlet oxygen by stimulated macrophages quantified using 9,10-diphenylanthracene and perylene in a polystyrene film. J Biol Chem 268(21):15649–15654Google Scholar
  54. Sysoeva TI, Petkun AS, Kuchin VA, Chelibanov VP (2016) The results from ten years of measuring several parameters of the antarctic atmosphere with tethered balloons. Bull Russ Acad Sci Phys 80(5):541–544 (in Russian)Google Scholar
  55. Vlasov DY, Parfenov VA, Zelenskaya MS, Plotkina YV, Geludova VM, Frank-Kamenetskaya OV and Marugin AM (2019) Methods of monument protection from damage and their performance in the effect of the environment on Saint Petersburg’s cultural heritage: Results of monitoring the historical necropolis monuments. In: Frank-Kamenetskaya OV, Vlasov DY, Rytikova VV (eds) Springer Nature Switzerland AG, pp 161–178Google Scholar
  56. Warscheid Th, Braams J (2000) Biodeterioration of stone: a review. Int Biodeterior Biodegrad 46(4):343–368Google Scholar
  57. Wayne RP (1994) Singlet oxygen in the environmental sciences. Res Chem Intermed 20(3–5):395–422Google Scholar
  58. Wu H, Song Q, Ran G, Lu X, Xu B (2011) Recent developments in the detection of singlet oxygen with molecular spectroscopic methods. TrAC Trends Anal Chem 30(1):133–141Google Scholar
  59. Young RA, Black G (1967) Deactivation of O (1 D). J Chem Phys 47(7):2311–2318Google Scholar
  60. Zakharov SD, Korochkin IM, Yusupov AS, Bezotosny VV, Cheshev EA, Frantzen F (2014) Application of diode lasers in light-oxygen cancer therapy. Semiconductors 48(1):123–128Google Scholar
  61. Zavyalov SA, Myasnikov IA (1981) Study of the emission of singlet oxygen molecules from the surface of solids by the method of semiconductor detectors. Doklady Acad Sci USSR 257(2):392–396 (in Russian)Google Scholar

Copyright information

© Springer Nature Switzerland AG 2020

Authors and Affiliations

  • Vladimir P. Chelibanov
    • 1
    Email author
  • Ivan V. Chelibanov
    • 2
  • Olga V. Frank-Kamenetskaya
    • 3
  • Egor A. Iasenko
    • 1
  • Alexandr M. Marugin
    • 1
  • Olga A. Pinchuk
    • 4
  1. 1.OPTEC JSCSaint PetersburgRussia
  2. 2.Herzen State Pedagogical University of RussiaSaint PetersburgRussia
  3. 3.Saint Petersburg UniversitySaint PetersburgRussia
  4. 4.ITMO UniversitySaint PetersburgRussia

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