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Designing Diving Technology. Part I Decompression Requirements Cover

Designing Diving Technology. Part I Decompression Requirements

By: Ryszard Kłos  
Open Access
|Dec 2023

References

  1. Kłos. R.—. 2019a. Designing of diving technologies – process approach. Polish Hyperbaric Research. 1, 2019a, Tom 66, DOI: 10.2478/phr-2019-0001, strony 7-24.
  2. —. 2019b. Context analysis in the development of diving technologies. Polish Hyperbaric Research. 2, 2019b, Tom 67, DOI: 10.2478/phr-2019-0005, strony 7 – 58.
  3. — 2022. Diving technology design in mine countermeasure system part II Reliability. Polish hyperbaric Research. 2022, Tom 79, 2, strony 7-25.
  4. — 2011. Jednotkankowy model dekompresji ograniczonej procesem dyfuzji. Polish Hyperbaric Research. 2011, Tom 35, str. 69−94.
  5. —. 2012. Możliwości doboru ekspozycji tlenowo-nitroksowych dla aparatu nurkowego typu AMPHORA - założenia do nurkowań standardowych i eksperymentalnych. Gdynia : Polskie Towarzystwo Medycyny i Techniki Hiperbarycznej, 2012. ISBN 978-83-924989-8-8.
  6. — 2016. System trymiksowej dekompresji dla aparatu nurkowego typu CRABE. Gdynia : Polskie Towarzystwo Medycyny i Techniki Hiperbarycznej, 2016. ISBN 978-83-938322-5-5.
  7. — 2023. Oxygen Diving. 1st Edition. Boca Raton : CRC Press, 2023. str. 236. ISBN: ISBN 978-1-032-31389-4 (hbk), ISBN: 978-1-032-31390-0 (pbk), ISBN: 978-1-003-30950-5 (ebk), DOI: 10.1201/9781003309505.
  8. — 2021. Ventilation of Normobaric and Hyperbaric Objects. Boca Raton, FL; USA : CRC Press (Taylor & Francis Group, LLC ), 2021. ISBN: 978-0-367-67523-3 (hbk) ISBN: 978-0-367-67524-0 (pbk) ISBN: 978-1-003-13164-9 (ebk).
  9. —. 2007. Zastosowanie metod statystycznych w technice nurkowej - Skrypt. Gdynia : Polskie Towarzystwo Medycyny i Techniki Hiperbarycznej, 2007. ISBN 978-83-924989-26.
  10. — 2005. Analiza możliwości dekompresji załogi zagrożonego okrętu podwodnego. Polish Hyperbaric Research. 2005, Tom 13, strony 55-80.
  11. —. 2020. Ultrasonic detection of the intravascular free gas phase in research on diving. Polish Maritime Research. 2020, Tom 2, DOI: 10.2478/pomr-2020-0039, strony 176-186.
  12. Pollock N.W. 2015. Defensive Dive Profile Planning. [aut. książki] Pollock N.W. Sellers S.H., Godfrey J.M. (eds.). Rebreathers and Scientific Diving: Proceedings of NPS/NOAA/DAN/AAUS June 16-19, 2015 Workshop. Durham : NPS/NOAA/DAN/AAUS, 2015.
  13. Bühlmann A.A. 1984. Decompression-Decompression sickness. Berlin : Springer-Verlag, 1984. ISBN 3-540-13308-9; ISBN 0-387-13308-9.
  14. —. 1995. Tauchmedizin. Berlin : Springer-Verlag, 1995. ISBN 3-540-58970-8.
  15. Hempelman H. V. 1975. Decompression theory: British Practice. [aut. książki] D.H. Bennett P.B. and Elliott. The physiology and medicine of diving and compressed air work. London : Baillière Tindall, 1975.
  16. Lippmann J. 1990. Deeper into diving. Carnegie, Australia : J.L. Publications, 1990. ISBN 0-9590306-3-8.
  17. Lippmann J., Mitchell S. 2009. Deeper into diving. Aschburton : J.L. Publications, 2009. ISBN 0-9752290-1-X.
  18. Lewbel G.S. 1984. The decompression workbook. New York : Pisces Book Co., 1984. ISBN: 0-86636-023-9.
  19. Betts E.A. 1994. Introduction to enriched air diving. Freeport : American Nitrox Divers Inc., 1994.
  20. Comex Marseille. 1986. Medical Book. Marseille : Comex, 1986.
  21. Imbert J-P, Bontoux M. 1987. Proposition d’un manuel de procedures de decompression a l’air. Marseille : Comex Services, 1987. Final report to Centre d’Etudes Petrolleres et Marines. Fiche no 4723.
  22. MW RP. 1982. Tabele dekompresji i rekompresji nurków. Gdynia : Dowództwo Marynarki Wojennej, 1982. Sygn.Mar.Woj. 860/81.
  23. Brubakk A.O., Neuman T.S. 2003. Bennett and Elliott’s physiology and medicine of diving. brak miejsca : Saunders, 2003. ISBN 0-7020-2571-2.
  24. Kenyon D.J. Butler G. 2014. Crude neon with nitrogen and oxygenasa hyperbaric intervention breathing mixture. Pub. No.: US 2014/0290651 A1 USA, 2 11 2014. 128/203.12: 96/134.
  25. US Navy diving manual. 2016. Praca zbiorowa (revision 7). The Direction of Commander : Naval Sea Systems Command, 2016. SS521-AGPRO-010 0910-LP-115-1921.
  26. Klos - 2020a. Selected risks of the decompression process-Part I: Selected inherent residual risks in the decompression process. Polish Hyperbaric Research. 2020a, Tom 71, 2, strony 7-36.
  27. —. 2020b. Selected risks of the decompression process, part II: analysis of selected types of risk. Polish Hyperbaric Research. 2020b, Tom 72, 3, strony 7-28.
  28. Broome J.R. 1995. Non-linear ascent profiles reduce the risk of decompression illness after deep no-stop dives . Bethesda : Naval Medical Research Institut, 1995. NMRI 95-61.
  29. —. 1996. Reduction of decompression illness risk In pigs by use of non-linear ascent profiles. Undersea Hyperb. Med. 1996, Tom 23, strony 19-23.
  30. Bovie A.A. 1997. Bovie and Davis’ diving medicine. Philadelphia : Saunders, 1997. ISBN-13: 978-0-7216-9424-5; ISBN-10: 0-7216-9424-1.
  31. Wienke B.R. —. 1993. Diving above sea level. Flagstaff : Best Publishing Co., 1993. ISBN 0-941332-30-6.
  32. Natural Environment Research Council. 1974. Code of practice for scientific diving 1974 London. London : Natural Environment Research Council, 1974.
  33. Donald K.W. 1992. Oxygen and the diver. Harley Swan : The SPA Ltd., 1992. ISBN 1-85421-176-5.
  34. The isobaric “oxygen window” principle of decompression. Behnke A.R. 1967. San Diego : Marine Technology Society (The New Thrust Seaward), 1967. Transactions of the Third Annual Conference of the Marine Technology Society (5-7 June,1967). . Trans. Third Marine Tech. Soc. Conf. . Washington, DC.
  35. Behnke A.R. 1974. Environmental Physiology. [aut. książki] N.B.(ed.) Slonim. Marine and other hyperbaric environments. Saint Louis : The C.V. Mosby Co, 1974, strony 399-418.
  36. Rusoke-Dierich O. 2018. Diving Medicine . Deutschland : Springer-Verlag GmbH Deutschland, 2018. ISBN 978-3-319-73835-2 ISBN 978-3-319-73836-9 (eBook) DOI: https://doi.org/10.1007/978-3-319-73836-9.
  37. Castagna O., Gempp E., Blatteau J.-E. 2009. Pre-dive normobaric oxygen reduces bubble formation in scuba divers. 2009 Eur J Appl Physiol. May, 2009, Tom 106, 2, strony 167-72.
  38. Kłos R. 2018. Selected decompression procedures for survivors who became saturated in a sunken wreck. Scientific Journal of Polish Naval Academy. 2018, Tom 213, 2, strony 17-34.
  39. Predictive studies IV. 1978. Work capability and physiological effects in He-O2 excursions to pressures of 400-800-1200-1600 fsw. Philadelphia : Institute for Environmental Medicine University of Pennsylvania, 1978. Report 78-1.
  40. Report of proceedings Technical Symposium on The human factor in North Sea operational diving:. Proceedings Technical Symposium on The human factor in North Sea. 4-5 Nov1976. Heathrow : Hotel London, 4-5 Nov1976.
  41. Lambertsen C.J. 1986. Studies in isobaric counterdiffusion . Filadelfia : Institute for Environmental Medicine, 1986.
  42. Kłos R. 2019. Context analysis in the development of diving technologies (bilingual: Analiza kontekstu przy projektowaniu technologii). Polish Hyperbaric Research. 2019, Tom 62, 2, strony 7-58.
  43. NATO Standard ATP-57. 2017. The submarine search and rescue manual. Brussels : NATO Standardization Office (NSO), 2017. North Atlantic Treaty Organization Allied/Multinational Tactical Publication . ATP-57 Edition C Version 3 October 2017.
  44. NOAA. 2017. NOAA diving manual - diving for science and technology. [red.] Administration National Oceanic and Atmospheric. VI. Flagstaff : Best Publishing Co., 2017. ISBN 9781930536883.
  45. Latson G. 2000. Accelerated decompression using oxygen for submarine rescue – summary report and operational guidance. Panama City : US Navy Experimental Diving Unit, 2000. Report US NEDU TR 11-00.
  46. Kłos R. 2008. Systemy podtrzymania życia na okręcie podwodnym. Gdynia : Polskie Towarzystwo Medycyny i Techniki Hiperbarycznej, 2008. str. 163. ISBN 978-83-924989-4-0.
  47. Nishi R.Y. 2000. Decompression risk calculations for submarine escape. Montreal : Decompression risk analysis for The Naval Engineering Test Establishment Royal Canadian Navy, 2000. Not an official publication.
  48. Miller J.W. (ed.). 1976. Vertical excursions breathing air from nitrogen-oxygen or air saturation exposures. Washington : US Department of Commerce (University of Michigan Libraries collection), 1976. MOD1002611978.
  49. NOAA—. 2001. NOAA diving manual - diving for science and technology. IV. Flagstaff : Best Publishing Co., 2001. ISBN 0-941332-70-5.
  50. Proceedings of the Reverse Dive Profiles Workshop. Lang, M.A. and C.E. Lehner (eds.). October 29-30, 1999. Washington : Smithsonian Institution, 2000, October 29-30, 1999.
  51. Cole B. 1993. Decompression and computer assisted diving. Biggin Hill : Dive Information Company, 1993. ISBN 0-9520934-0-5.
  52. Skrzypkowski A. 2012. Fizjologia i trening lotniczy . Warszawa : Wojskowy Instytut Medycyny Lotniczej WIML, 2012.
  53. Siewiera J., Szałański P., Tomaszewski D., Kot J. 2020. High-Altitude Decompression Sickness Treated with Hyperbaric Therapy and Extracorporeal Oxygenation. Aerospace Medicine and Human Performance. 2020, Tom 91, 2, strony 106–109.
  54. Kewal K.J. . 2017. Textbook of Hyperbaric Medicine. Basel : Springer International Publishing AG, 2017. ISBN 978-3-319-47138-9 ISBN 978-3-319-47140-2 (eBook) DOI: 10.1007/978-3-319-47140-2.
  55. Butler BD, Little T, Cogan V, Powell M. 2006. Hyperbaric oxygen pre-breathe modifies the outcome of decompression sickness. Undersea Hyperb Med. 6, 2006, Tom 33, strony 407-417.
  56. T.S. Neuman, Thom S.R. 2008. Physiology and medicine of hyperbaric oxygen therapy. Philadelphia : Saunders, an imprint of Elsevier Inc., 2008. ISBN: 978-1-4160-3406-3.
  57. The Belgian Health Care Knowledge Centre. 2011. Home Oxygen Therapy. Brussels : Administratif Botanique, 2011. KCE reports 156C.
  58. —. 2018a. Securing the hyperbaric treatment of decompression sickness in the Polish Navy. Polish Hyperbaric Research ISSN 1734-7009; e-ISSN 2084-0535. 2018, Tom 65, 4, strony 7-23. Polish-English Bilingual Publication.
  59. 2018b. Methods for treatment of decompression sickness developed during wreck penetration. Scientific Journal of Polish Naval Academy. 2018b, Tom 212, 1, strony 27-53.
  60. Wienke B. R., O’Leary T. R. 2018. Understanding Modern Dive Computers and Opera-tion - Protocols, Models, Tests, Data, Risk and Applications. Cham, Switzerland : Springer Nature Switzerland AG (Springer Briefs in Computer Science), 2018. ISBN 978-3-319-94053-3 ISBN 978-3-319-94054-0 (eBook) DOI: https://doi.org/10.1007/978-3-319-94054-0.
  61. Kłos R. 1999. Nurkowanie z wykorzystaniem nitroksu. Poznań : KOOPgraf, 1999. ISBN 83-909187-1-4.
  62. — 2014. Helioksowe nurkowania saturowane - podstawy teoretyczne do prowadzenia nurkowań i szkolenia. Wydanie II (poprawione). Gdynia : Polskie Towarzystwo Medycyny i Techniki Hiperbarycznej, 2014. ISBN 978-83-938322-1-7.
  63. — 2017. The potential underwater rescue scenario in incident defined by DiveSmart project. Scientific journal of Polish Naval Academy. 2, 2017, Tom LVIII, 209, strony 75-96.
  64. Parker E. C., Survanshi S. S., Thalmann E. D., Weathersby P. K. 1996. Statistically based decompression tables IX: probabilistic models of the role of oxygen in human decompression sickness in human decompression sickness . Bethesda : Naval Medical Research Institute, 1996. NMRI 96-05.
  65. Zwingelberg K.M., Knight M.A., Biles J.B. 1987. Decompression sickness in women divers. Undersea Biomed. Res. 1987, Tom 14, strony 311-317.
  66. Edmonds C., Lowry C., Pennefather J. 1992. Diving and subaquatic medicine. Oxford : Butterworth Heinemann Ltd, 1992.
  67. Vann R.D. 1993. Oxygen exposure management. AquaCorps. 1993, 7, strony 54-59.
  68. Dobrowolski J. 2008. Filozofia głupoty. Warszawa : Wydawnictwo Naukowe PWN, 2008. ISBN 978-83-01-15198-0.
  69. Yount D.E., Hoffman D.C. 1986. On the use of a bubble formation model to calculate diving tables. Aviat. Space Environ. Med. 1986, Tom 57, strony 149-56.
  70. Wienke B.R. 2003. Reduced gradient bubble model. Flagstaff : Best Publishing Co., 2003. ISBN 1-930536-11-9.
  71. Gernhardt M. L. 1991. Development and evaluation of a decompression stress index based on tissue bubble dynamics: Praca doktorska. Philadelphia : Department of Bioengineering of the University of Pennsylvania, 1991. Report No 01-01-1991.
  72. Huggins K.E. 1992. The dynamics of decompression workbook. Ann Arbor : The University of Michigan, 1992.
  73. Donald K.W.. 1955. Oxygen Bends. J Appl Physiol. 1955, Tom 7, strony 639-644.
  74. NOAA. 2017. NOAA diving manual - diving for science and technology. [red.] Administration National Oceanic and Atmospheric. VI. Flagstaff : Best Publishing Co., 2017. ISBN 9781930536883.
  75. Shilling C.W. 1981. A history of the development of decompression tables. Bethesda : Undersea Medical Society, Inc., 1981.
  76. DCIEM. 1995. Diving Manual. North York : Defence and Civil Institute of Environmental Medicine, 1995. DCIEM No. 86-R-35A.
  77. Organizacja Międzynarodowego Lotnictwa Cywilnego. 2016. Eksploatacja Statków Powietrznych. [aut. książki] Cywilnego Organizacja Międzynarodowego Lotnictwa. Konwencji o Międzynarodowym Lotnictwie Cywilnym. Montréal : Międzynarodowe normy i zalecane metody postępowania, 2016, Tom Część I, str. załącznik 6.
DOI: https://doi.org/10.2478/phr-2022-0019 | Journal eISSN: 2084-0535 | Journal ISSN: 1734-7009
Language: English
Page range: 7 - 52
Submitted on: Oct 2, 2022
Accepted on: Oct 24, 2022
Published on: Dec 19, 2023
Published by: Polish Hyperbaric Medicine and Technology Society
In partnership with: Paradigm Publishing Services
Publication frequency: 4 issues per year

© 2023 Ryszard Kłos, published by Polish Hyperbaric Medicine and Technology Society
This work is licensed under the Creative Commons Attribution-NonCommercial-NoDerivatives 3.0 License.