Covid-19 Research

Open Access
Research Article

Primary Prevention of New Pandemic and Biomimetic-Based Adaptation to Situation Connected with COVID-19 Pandemic Google Scholar

Read • Cite • Share — permanent Open Access hosting with DOI tracking
Biology Group
BiologyInfectious DiseasesVirology

Volume1-Issue5
Dates: Received: 2020-08-05 | Accepted: 2020-09-09 | Published: 2020-09-10
Pages: 133-140

Abstract

Acceleration of worldwide infection with mutant of coronavirus SARS CoV-19 require new paradigmatic of human activity based on negative feed-back system following basic mechanism of Homeostasis of all living organisms and ecosystems. Condition of efficient primary prevention is better integration of cooperation of interdisciplinary teams of experts, knowledge-based society and decision-makers on local scale with working global network focused on common action for efficient protection against contamination of the Human environment with mutagens for reduction risk of incidence new mutants [Ex: Coronaviruses and new pandemics]. Key factor for primary prevention is reduction at the sources emission of immune suppressors, carcinogens and teratogens. Efficient prevention is depended on without delay worldwide introduction of complementary good practice in innovative environmental biotechnology integrated with ecological engineering and circular bioeconomy-driven sustainable development adopted to different kind of regions. Let us recommend heuristic approach, better financial support of transdisciplinary innovative basic and research-developing studies, improvement application of new IT tools for speed dissemination of scientific and technical progress, elimination of bureaucratic barriers and progress in distance problem-solving training and lifelong learning focused on sustainable, knowledge-based society selecting decision-makers with proper imagination and responsibility. Introduction on wider scale innovative biotechnologies [Ex: Recommended by our team modern environmental ecological engineering integrated with renewable sources of energy, laser biotechnology for better adaptation to climate change, aquaculture, apiculture etc.] focused on better prevention against contamination of the air, water and food; would be beneficial for environmental health. It would be also useful for creation in the near future many green jobs all over the world and for reduction risk of unemployment and hunger. International action for greening cities adopted to climate change could be supported by introduction of proposed new generation of eco-buildings and green habitats. The most important eco-innovation would be designing and construction underground centres integrating innovative biotechnologies for waster, wastes management to biogas; useful for also underground greenhouses for wide scale hydroponic production pollutants-free vegetables, mushrooms, supported by laser biotechnology, apiculture and aquaculture.

Such life-supporting system would be following ecosystems structure and function as new contribution to circular bioeconomy, especially useful for big cities. In the case of new epidemic, self-supporting in water and food green-habitats; could be more efficient in protection inhabitants against infectors. Taking into consideration synergistic effects of chemical, physical, biological pollutants of the human environment as well as impact of immune suppressors decreasing resistance of humans to infections and carcinogenic effects; is necessary for proper evaluation of existing health hazard as well as for prognostic study and efficient primary prevention against risk of new pandemics.

FullText HTML FullText PDF DOI: 10.37871/jels1131


Certificate of Publication




Copyright

2020 Dobrowolski JW, et al. Distributed under Creative Commons CC-BY 4.0

How to cite this article

Dobrowolski JW, Wolkowski ZW, Zaba T. Primary Prevention of New Pandemic and Biomimetic-Based Adaptation to Situation Connected with COVID-19 Pandemic. J Biomed Res Environ Sci. 2020 Sep 10; 1(5): 133-140. doi: 10.37871/jels1131, Article ID: jels1131


Subject area(s)

Biology
Infectious Diseases
Virology

University/Institute

References


  1. Dobrowolski JW, Fukushima Y. New aspects of environmental protection
  2. against developmental malformations and the cancer incidence. Science for
  3. Better Environment. 1976; 517-528.
  4. https://tinyurl.com/yy354g2h
  5. Wolkowski ZW. Synergy and coherence in biological systems, proceedings
  6. of a transdisciplinary seminar at the University of Paris, 1983-1988, 1988
  7. Library of Congress, Bibliotheque Nationale de France, British Library,
  8. National Library of Poland. 1998.
  9. https://tinyurl.com/y6a5d22a
  10. Dobrowolski JW. The polish initiatives. Naturopa. 1989; 61.
  11. Dobrowolski JW. Reflexions sur la qualite de Vie et la perennite de la
  12. civilisation contemporaine. Da Lage A, Amant J-P. Ellipses, Paris, 2008;
  13. 167-180.
  14. Coulston F, Korte F. Environmental quality and safety, Academic Press,
  15. Stuttgart. 1976.
  16. Dobrowolski JW. Global environmental problems and local action for
  17. sustainable development. Proceedings of the international conference on
  18. promotion sustainable development on global scale in the context of the
  19. forthcoming earth summit, Euro Eco 2002, AGH University of Science and
  20. Technology, Krakow.
  21. Dobrowolski JW, Guha AS. Open University and modern distance learning
  22. in Poland and India for sustainable development. Geomatics and Environmental
  23. Engineering. 2011; 18: 26-35.
  24. https://tinyurl.com/yxmud9mg
  25. Dobrowolski JW, Kobylarczyk J Wagner A, Mazur R. Involving diverse
  26. stakeholders for sustainable development; some learning experiences from areas
  27. Poland, In; Optimizing open and distance learning in higher education
  28. institutions. IGI Global. 2017.
  29. Dobrowolski JW, Carioca JOB, Kobylarczyk J, Skrzynski T. Environmental
  30. effects of social corporate responsibility and lifelong learning, chapter in
  31. press in E-Handbook, Springer Nature. 2020.
  32. Dobrowolski JW. New laser biotechnology for bioremediation,
  33. biodegradation, carbon capture, environmental health and 44 years of
  34. environmental education [of experts and knowledge-based society] focused on
  35. sustainable development, Proc. of 1st World Congress Environmental
  36. Biotechnology, BIT, Dalian, China. 2011.
  37. Dobrowolski JW, Kobylarczyk J, Tursunov O, Toh SQ. Integration of local
  38. eco-innovation with global problems of protection of the natural environment
  39. and bio-based green economy. International Conference on Circuits and Systems
  40. (CAS 2015). Atlantis Press, 2015, 9: 25-28.
  41. DOI
  42. :
  43. https://doi.org/10.2991/cas-15.2015.7
  44. Vohora SB, Dobrowolski JW. Trace elements in health and disease,
  45. Hamdard Nagar University, New Delhi. 1990.
  46. Jan W Dobrowolski, SB Vohora, Kalpana Sharma, Shaukat A Shah, SAH
  47. Naqvi, PC Dandiya. Antibacterial, antifungial, anitiamoebic, antiinflammantry,
  48. and antipyretic Studies on bee products, Journal of Ethnopharmacology. 1991;
  49. 35; 77-83.
  50. DOI:
  51. https://doi.org/10.1016/0378-8741(91)90135-Z
  52. Dobrowolski JW, Smyk B. Environmental risk factors of cancer and their
  53. primary prevention. J Environ Pathol Toxicol Oncol. 1993; 12: 55-57.
  54. https://tinyurl.com/y5hnx3ww
  55. Dobrowolski JW, Budak A, Trojanowska D, Rymarczyk M, Macuda J. Laser
  56. stimulation of Trichophyton mentagrophytes for the enhancement biodegradation
  57. of hydrocarbons. EEMJ. 2012; 11: 1783-1788.
  58. https://tinyurl.com/y5ye9wxj
  59. Wigginton R, Boehm AB. Environmental engineers and scientists haw
  60. important roles to play in stemming outbreaks and pandemics caused by enveloped
  61. viruses. Environ Sci Technol. 2020; 54: 3736-3739.
  62. DOI:
  63. https://doi.org/10.1021/acs.est.0c01476
  64. Peter KCC, Derek AW, Louis KLT, Sin Ming, Angus CTL, Chi SL, et al.
  65. Viral shedding patterns with probable severe acute respiratory syndrome,
  66. Lancet. 2004; 363: 1699-1700.
  67. DOI:
  68. 1016/SO140-6736 (04) 16255-7.
  69. Yong Zhang, Cao Chen, Shuangli Zhu, Chang Shu, Dongyan Wang, et al.
  70. Isolation of 2019-nCoV from a stool specimen of a laboratory confirmed case of
  71. the Coronavirus Disease 2029 ( COVID-19), China CDC Weekly. 2020; 2: 123-124.
  72. https://tinyurl.com/y3rbrhsv
  73. Kai QK, Chee FY, Lin C, Raymond TPL, Tze MM, Matthias M, et al. A well
  74. infant with Coronavirus Disease 2019 (COVID-19) with high viral load. Clin
  75. Infect Dis. 2020; 71: 847-849.
  76. DOI:
  77. 1093/cia/ciaa 201.
  78. Wurtzer S, Marechal V, Mouchel JM, Moulin L. Time course quantitative
  79. detection of SARS-CoV-2 in Parisian wastewaters correlates with COVID-19
  80. contaminated cases. 2020.
  81. DOI:
  82. https://doi.org/10.1101/2020.04.12.20062679
  83. .
  84. WHO, UNICEF, Water. Sanitation, hygiene and waste management for the
  85. COVID-19 virus. TechnicaL BRIEF. 2020; WHO. pp. 1-9.
  86. https://tinyurl.com/yxflygtu
  87. Kwinta E, Galina A, Uhl T, Malka P, Zaba T. Comparision of
  88. cost-effective control strategies of air blowers in wastewater treatment
  89. plants. Journal of Process Control. 2019.
  90. Podraza Z, DÄ…browska B, Zaba T. Measurement of hydrogen sulphide
  91. concentration in selected places of Sewage Treatment Plant Cracow Pleszow,
  92. Coference Proceedings. 2017.
  93. Bak J, Krolikowska J, Wasilkowska A, Zaba
  94. T. Electron Microscopy assessment of the Chemical composition of sediments from
  95. water supply pipes. 2017.

Publish with JBRES — Peer-reviewed, multidisciplinary Open Access with rapid review, DOI, and global visibility.
Double-Blind CrossRef DOI Discoverable