-
8.Conclusions
Nous avons présenté des preuves convaincantes à l'appui de notre affirmation selon laquelle les particules de cendres volantes de charbon en aérosol, et non des gaz chlorofluorocarbonés, sont les principaux agents responsables de l'appauvrissement de la couche d'ozone stratosphérique. Les particules de cendres volantes de charbon en aérosol, remontées vers la stratosphère, servent non seulement d'agents de nucléation de la glace, mais sont piégées et concentrées dans les nuages stratosphériques, y compris les nuages stratosphériques polaires. Au printemps, à mesure que les nuages stratosphériques commencent à fondre/s'évaporer, lesdites particules de cendres volantes de charbon consommatrices d'ozone sont libérées, ce qui les rend disponibles pour réagir avec l'ozone stratosphérique et le consommer.
Les particules de cendres volantes de charbon en aérosol sont responsables, non seulement de la destruction de l'ozone stratosphérique, qui protège la vie en surface des rayonnements ultraviolets solaires mortels, mais aussi des dommages causés à la santé humaine et l'environnemental, y compris les maladies neurodégénératives [15], la BPCO et les maladies respiratoires [16, 17], le cancer du poumon [18], les maladies cardiovasculaires [19], le COVID-19 et l'immunopathologie [20, 21].
Les cendres volantes de charbon en aérosol contribuent au réchauffement planétaire [22], perturbent les habitats [23], contaminent l'environnement avec du mercure [24], déciment les populations d'insectes [25], de chauves-souris [26] et d'oiseaux [27]. Les cendres volantes de charbon en aérosol tuent également les arbres [28, 29], exacerbent les incendies de forêt [30], favorisent la présence d'algues nocives dans nos eaux [31] et détruisent la couche d'ozone stratosphérique qui protège la vie en surface des rayonnements ultraviolets mortels du soleil [32, 33].
Malgré les récits officiels de « récupération de l'ozone » en raison du Protocole de Montréal, les niveaux d'ozone stratosphérique continuent de baisser [34]. L'appauvrissement de la couche d'ozone a déjà entraîné une augmentation alarmante de la pénétration des rayonnements ultraviolets mortels, UV-B et UV-C, à la surface de la Terre, et des ravages de plus en plus apparents sur les plantes et les animaux [38].
L'attaque technologique mondiale contre l'environnement naturel de notre planète et tout son biote par des entités barbares sans compassion ni remords n'est pas moins que de la trahison planétaire. À moins que les populations mondiales n'exigent la fin de l'assaut technologique sur notre environnement, accompagné de sa diffusion de fausses informations [136], nous continuerons inévitablement à foncer vers la première extinction d'espèces anthropiques.
La géo-ingénierie, y compris la « gestion du rayonnement solaire », faussement décrite dans la littérature scientifique comme une entreprise future nécessaire pour lutter contre le réchauffement planétaire, se poursuit depuis des décennies avec des résultats dévastateurs, y compris en provoquant le réchauffement planétaire. Tous ceux qui participent à la modification systématique de l'environnement naturel de la Terre [12, 13, 137-139], nous l'affirmons, sont complices du crime de trahison planétaire, dont la base légale est le droit de chaque personne à la légitime défense.
Il suffit de se pencher sur les terribles souffrances du monde naturel (Schéma 1) et de regarder vers les atrocités évidentes dans notre ciel (Schéma 2) pour comprendre notre situation désastreuse. Le temps nous est compté, nous sommes à deux doigts de l'effondrement climatique et de la dégradation complète de la biosphère. Nos enfants font face à un avenir effroyable, probablement au cours de la présente décennie.
Toute géo-ingénierie doit cesser. Toutes les sources de cendres volantes de charbon en aérosol doivent être réduites et éliminées. La pulvérisation par avion de cendres volantes de charbon dans la troposphère et de toute autre matière particulaire doit cesser. Cela est nécessaire pour sauver ce que nous pouvons des systèmes vitaux de survie de la Terre, y compris la couche d'ozone stratosphérique.
Références
1. Ceballos, G., P.R. Ehrlich, and R. Dirzo, Biological annihilation via the ongoing sixth mass extinction signaled by vertebrate population losses and declines. Proceedings of the National Academy of Sciences, 2017. 114(30): p. E6089-E6096.
2. Blanchard, J., Living Planet Report 2020: Bending the Curve of Biodiversity Loss. 2020.
3. Dirzo, R., et al., Defaunation in the Anthropocene. Science, 2014. 345(6195): p. 401-406.
4. Bradshaw, C.J., et al., Underestimating the challenges of avoiding a ghastly future. Frontiers in Conservation Science, 2021. 1: p. 9.
5. http://www.un-documents.net/enmod.htm
6. Herndon, J.M., M. Whiteside, and I. Baldwin, The ENMOD treaty and the sanctioned assault on agriculture and human and environmental health. Agrotechnology, 2020. 9(191): p. 1-9.
7. Herndon, J.M., An indication of intentional efforts to cause global warming and glacier melting. J. Geography Environ. Earth Sci. Int., 2017. 9(1): p. 1-11.
8. Herndon, J.M., Evidence of variable Earth-heat production, global non-anthropogenic climate change, and geoengineered global warming and polar melting. J. Geog. Environ. Earth Sci. Intn., 2017. 10(1): p. 16.
9. Herndon, J.M., Aluminum poisoning of humanity and Earth's biota by clandestine geoengineering activity: implications for India. Curr. Sci., 2015. 108(12): p. 2173-2177.
10. Herndon, J.M., Adverse agricultural consequences of weather modification. AGRIVITA Journal of agricultural science, 2016. 38(3): p. 213-221.
11. Herndon, J.M. and M. Whiteside, Geophysical consequences of tropospheric particulate heating: Further evidence that anthropogenic global warming is principally caused by particulate pollution. Journal of Geography, Environment and Earth Science International, 2019. 22(4): p. 1-23.
12. Herndon, J.M. and M. Whiteside, Intentional destruction of life on Earth. Advances in Social Sciences Research Journal, 2021. 8(7): p. 295-309.
13. Herndon, J.M. and M. Whiteside, Chemtrails are not Contrails: The Face of Evil2022: Amazon Kindle Direct Publishing
https://www.amazon.com/dp/B09X49TGWB?ref_=pe_3052080_397514860
14. Herndon, J.M. and M. Whiteside, Aerosol particulates, SARS-CoV-2, and the broader potential for global devastation. Open Access Journal of Internal Medicine, 2020. 3(1): p. 14-21.
15. Whiteside, M. and J.M. Herndon, Aerosolized coal fly ash: Risk factor for neurodegenerative disease. Journal of Advances in Medicine and Medical Research, 2018. 25(10): p. 1-11.
16. Whiteside, M. and J.M. Herndon, Aerosolized coal fly ash: Risk factor for COPD and respiratory disease. Journal of Advances in Medicine and Medical Research, 2018. 26(7): p. 1-13.
17. Herndon, J.M. and M. Whiteside, Geoengineering: The deadly new global “Miasma”. Journal of Advances in Medicine and Medical Research, 2019. 29(12): p. 1-8.
18. Whiteside, M. and J.M. Herndon, Coal fly ash aerosol: Risk factor for lung cancer. Journal of Advances in Medicine and Medical Research, 2018. 25(4): p. 1-10.
19. Whiteside, M. and J.M. Herndon, Geoengineering, coal fly ash and the new heart-Iron connection: Universal exposure to iron oxide nanoparticulates. Journal of Advances in Medicine and Medical Research, 2019. 31(1): p. 1-20.
20. Whiteside, M. and J.M. Herndon, COVID-19, immunopathology, particulate pollution, and iron balance. Journal of Advances in Medicine and Medical Research, 2020. 32(18): p. 43-60.
21. Whiteside, M. and J.M. Herndon, Aerosol particulates, SARS-Co-2, and the broader potential for global devastation. Open Access Journal of Internal Medicine, 2022. 3(1): p. 14-21.
22. Herndon, J.M. and M. Whiteside, Further evidence that particulate pollution is the principal cause of global warming: Humanitarian considerations. Journal of Geography, Environment and Earth Science International, 2019. 21(1): p. 1-11.
23. Herndon, J.M. and M. Whiteside, Further evidence of coal fly ash utilization in tropospheric geoengineering: Implications on human and environmental health. J. Geog. Environ. Earth Sci. Intn., 2017. 9(1): p. 1-8.
24. Herndon, J.M. and M. Whiteside, Contamination of the biosphere with mercury: Another potential consequence of on-going climate manipulation using aerosolized coal fly ash J. Geog. Environ. Earth Sci. Intn., 2017. 13(1): p. 1-11.
25. Whiteside, M. and J.M. Herndon, Previously unacknowledged potential factors in catastrophic bee and insect die-off arising from coal fly ash geoengineering Asian J. Biol., 2018. 6(4): p. 1-13.
26. Herndon, J.M. and M. Whiteside, Unacknowledged potential factors in catastrophic bat die-off arising from coal fly ash geoengineering. Asian Journal of Biology, 2019. 8(4): p. 1-13.
27. Whiteside, M. and J.M. Herndon, Aerosolized coal fly ash: A previously unrecognized primary factor in the catastrophic global demise of bird populations and species. Asian J. Biol., 2018. 6(4): p. 1-13.
28. Herndon, J.M., D.D. Williams, and M. Whiteside, Previously unrecognized primary factors in the demise of endangered torrey pines: A microcosm of global forest die-offs. J. Geog. Environ. Earth Sci. Intn. , 2018. 16(4): p. 1-14.
29. Herndon, J.M., D.D. Williams, and M.W. Whiteside, Ancient Giant Sequoias are dying: Scientists refuse to acknowledge the cause. Advances in Social Sciences Research Journal, 2021. 8(9): p. 57-70.
30. Herndon, J.M. and M. Whiteside, California wildfires: Role of undisclosed atmospheric manipulation and geoengineering. J. Geog. Environ. Earth Sci. Intn., 2018. 17(3): p. 1-18.
31. Whiteside, M. and J.M. Herndon, Role of aerosolized coal fly ash in the global plankton imbalance: Case of Florida's toxic algae crisi. Asian Journal of Biology, 2019. 8(2): p. 1-24.
32. Herndon, J.M. and M. Whiteside, Aerosolized coal fly ash particles, the main cause of stratospheric ozone depletion, not chlorofluorocarbon gases. European Journal of Applied Sciences, 2022. 10(3): p. 586-603.
33. Whiteside, M. and J.M. Herndon, Destruction of stratospheric ozone: Role of aerosolized coal fly ash iron. European Journal of Applied Sciences, 2022. 10(4): p. 143-153.
34. Ball, W.T., et al., Evidence for a continuous decline in lower stratospheric ozone offsetting ozone layer recovery. Atmospheric Chemistry and Physics, 2018. 18(2): p. 1379-1394.
35. D'Antoni, H., et al., Extreme environments in the forests of Ushuaia, Argentina. Geophysical Research Letters, 2007. 34(22).
36. Córdoba, C., et al., The detection of solar ultraviolet-C radiation using KCl:Eu2+ thermoluminescence dosemeters. Journal of Physics D: Applied Physics, 1997. 30(21): p. 3024.
37. de Cárcer, I.A., et al., KCl: Eu2+ as a solar UV-C radiation dosimeter. Optically stimulated luminescence and thermoluminescence analyses. Journal of Rare Earths, 2009. 27(4): p. 579-583.
38. Herndon, J.M., R.D. Hoisington, and M. Whiteside, Deadly ultraviolet UV-C and UV-B penetration to Earth’s surface: Human and environmental health implications. J. Geog. Environ. Earth Sci. Intn., 2018. 14(2): p. 1-11.
39. Herndon, J.M., Air pollution, not greenhouse gases: The principal cause of global warming. J. Geog. Environ. Earth Sci. Intn., 2018. 17(2): p. 1-8.
40. Herndon, J.M., Scientific misrepresentation and the climate-science cartel. J. Geog. Environ. Earth Sci. Intn., 2018. 18(2): p. 1-13.
41. Herndon, J.M., Fundamental climate science error: Concomitant harm to humanity and the environment J. Geog. Environ. Earth Sci. Intn., 2018. 18(3): p. 1-12.
42. Herndon, J.M., Role of atmospheric convection in global warming. J. Geog. Environ. Earth Sci. Intn., 2019. 19(4): p. 1-8.
43. Herndon, J.M., World War II holds the key to understanding global warming and the challenge facing science and society. J. Geog. Environ. Earth Sci. Intn., 2019. 23(4): p. 1-13.
44. Herndon, J.M., True science for government leaders and educators: The main cause of global warming. Advances in Social Sciences Research Journal, 2020. 7(7): p. 106-114.
45. http://www.ipcc.ch/report/ar5/
46. Molina, M.J. and F.S. Rowland, Stratospheric sink for chlorofluoromethanes: Chlorine atom-catalysed destruction of ozone. Nature, 1974. 249: p. 810-812.
47. https://www.unep.org/ozonaction/who-we-are/about-montreal-protocol
48. Ries, G., et al., Elevated UV-B radiation reduces genome stability in plants. Nature, 2000. 406(6791): p. 98.
49. Benca, J.P., I.A. Duijnstee, and C.V. Looy, UV-B–induced forest sterility: Implications of ozone shield failure in Earth’s largest extinction. Science Advances, 2018. 4(2): p. e1700618.
50. Danon, A. and P. Gallois, UV‐C radiation induces apoptotic‐like changes in Arabidopsis thaliana. FEBS letters, 1998. 437(1-2): p. 131-136.
51. Lyons, M., et al., DNA damage induced by ultraviolet radiation in coral-reef microbial communities. Marine Biology, 1998. 130(3): p. 537-543.
52. Basti, D., et al., Recovery from a near-lethal exposure to ultraviolet-C radiation in a scleractinian coral. Journal of invertebrate pathology, 2009. 101(1): p. 43-48.
53. Hori, M., et al., Lethal effects of short-wavelength visible light on insects. Scientific Reports, 2014. 4: p. 7383.
54. Reed, N.G., The history of ultraviolet germicidal irradiation for air disinfection. Public health reports, 2010. 125(1): p. 15-27.
55. Witze, A., Rare ozone hole opens over Arctic--and it's big. Nature, 2020. 580(7801): p. 18-20.
56. Lu, Q.-B., Observation of large and all-season ozone losses over the tropics. AIP Advances, 2022. 12(7): p. 075006.
57. Bernhard, G.H., et al., Updated analysis of data from Palmer Station, Antarctica (64° S), and San Diego, California (32° N), confirms large effect of the Antarctic ozone hole on UV radiation. Photochemical & Photobiological Sciences, 2022. 21(3): p. 373-384. http://creativecommons.org/licenses/by/4.0/
58. Cordero, R.R., et al., Persistent extreme ultraviolet irradiance in Antarctica despite the ozone recovery onset. Scientific reports, 2022. 12(1): p. 1-10.
59. Takahashi, T., et al., Measurement of solar UV radiation in antarctica with collagen sheets. Photochemical & Photobiological Sciences, 2012. 11(7): p. 1193-1200.
60. Dwivedi, A. and M.K. Jain, Fly ash–waste management and overview: A Review. Recent Research in Science and Technology, 2014. 6(1).
61. Huang, S.-H. and C.-C. Chen, Ultrafine aerosol penetration through electrostatic precipitators. Environmental science & technology, 2002. 36(21): p. 4625-4632.
62. Baxter, M., Environmental radioactivity: A perspective on industrial contributions. IAEA Bulletin, 1993. 35(2): p. 33-38.
63. Herndon, J.M. and M. Whiteside, Nature as a Weapon of Global War: The Deliberate Destruction of Life on Earth2021, Worldwide: Amazon Kindle Direct Publishing https://www.amazon.com/dp/B09KN2LFXL/ref=tmm_pap_swatch_0?_encoding=UTF8&qid=1636027677&sr=8-1
64. Herndon, J.M., R.D. Hoisington, and M. Whiteside, Chemtrails are not contrails: Radiometric evidence. J. Geog. Environ. Earth Sci. Intn., 2020. 24(2): p. 22-29.
65. http://www.nuclearplanet.com/USAF.pdf
66. Shearer, C., et al., Quantifying expert consensus against the existence of a secret large-scale atmospheric spraying program. Environ. Res. Lett., 2016. 11(8): p. p. 084011.
67. Tingley, D. and G. Wagner, Solar geoengineering and the chemtrails conspiracy on social media. Palgrave Communications, 2017. 3(1): p. 12.
68. Herndon, J.M., Evidence of coal-fly-ash toxic chemical geoengineering in the troposphere: Consequences for public health Int. J. Environ. Res. Public Health 2015. 12(8).
69. Moreno, N., et al., Physico-chemical characteristics of European pulverized coal combustion fly ashes. Fuel, 2005. 84: p. 1351-1363.
70. Suloway, J.J., et al., Chemical and toxicological properties of coal fly ash, in Environmental Geology Notes 1051983, Illinois Department of Energy and Natural Resources: Illinois.
71. Herndon, J.M., D.D. Williams, and M. Whiteside, Previously unrecognized primary factors in the demise of endangered torrey pines: A microcosm of global forest die-offs. J. Geog. Environ. Earth Sci. Intn. , 2018. 16(4): p. 1-14.
72. Herndon, J.M. and M. Whiteside, Further evidence of coal fly ash utilization in tropospheric geoengineering: Implications on human and environmental health. J. Geog. Environ. Earth Sci. Intn., 2017. 9(1): p. 1-8.
73. Rosinski, J., et al., Cirrus clouds as collectors of aerosol particles. Journal of Geophysical Research, 1970. 75(15): p. 2961-2973.
74. Chen, Y., et al., Investigation of primary fine particulate matter from coal combustion by computer-controlled scanning electron microscopy. Fuel Processing Technology, 2004. 85(6-7): p. 743-761.
75. Kopp, E., On the abundance of metal ions in the lower ionosphere. Journal of Geophysical Research: Space Physics, 1997. 102(A5): p. 9667-9674.
76. McCormick, M., et al., Polar stratospheric cloud sightings by SAM II. Journal of Atmospheric Sciences, 1982. 39(6): p. 1387-1397.
77. Hamill, P., O. Toon, and R. Turco, Characteristics of polar stratospheric clouds during the formation of the Antarctic ozone hole. Geophysical research letters, 1986. 13(12): p. 1288-1291.
78. Plane, J.M., et al., Removal of meteoric iron on polar mesospheric clouds. Science, 2004. 304(5669): p. 426-428.
79. Umo, N.S., et al., Enhanced ice nucleation activity of coal fly ash aerosol particles initiated by ice-filled pores. Atmospheric chemistry and physics, 2019. 19(13): p. 8783-8800.
80. Cziczo, D.J., et al., Clarifying the dominant sources and mechanisms of cirrus cloud formation. Science, 2013. 340(6138): p. 1320-1324.
81. Richardson, M.S., et al., Measurements of heterogeneous ice nuclei in the western United States in springtime and their relation to aerosol characteristics. Journal of Geophysical Research: Atmospheres, 2007. 112(D2).
82. Das, T., B.K. Saikia, and B.P. Baruah, Formation of carbon nano-balls and carbon nano-tubes from northeast Indian Tertiary coal: value added products from low grade coal. Gondwana Research, 2016. 31: p. 295-304.
83. Alam, J., et al., Recent advances in methods for the recovery of carbon nanominerals and polyaromatic hydrocarbons from coal fly ash and their emerging applications. Crystals, 2021. 11(2): p. 88.
84. Schütze, K., et al., Submicrometer refractory carbonaceous particles in the polar stratosphere. 2017.
85. Francis, A.H., Electronic Structure Calculations on Fullerenes and Their Derivatives By Jerzy Cioslowski (Florida State University). Oxford University Press: New York. 1995. ix + 281 pp. $65.00. ISBN 0-19-508806-9. Journal of the American Chemical Society, 1996. 118(39): p. 9458-9458.
86. Dosodia, A., et al., Development of Catalyst Free Carbon Nanotubes from Coal and Waste Plastics. Fullerenes, Nanotubes and Carbon Nanostructures, 2009. 17(5): p. 567-582.
87. Tiwari, A.J., M. Ashraf-Khorassani, and L.C. Marr, C60 fullerenes from combustion of common fuels. Science of The Total Environment, 2016. 547: p. 254-260.
88. Saikia, J., et al., Polycyclic aromatic hydrocarbons (PAHs) around tea processing industries using high-sulfur coals. Environmental Geochemistry and Health, 2017. 39(5): p. 1101-1116.
89. Hower, J.C., et al., Association of the Sites of Heavy Metals with Nanoscale Carbon in a Kentucky Electrostatic Precipitator Fly Ash. Environmental Science & Technology, 2008. 42(22): p. 8471-8477.
90. Paul, K.T., et al., Preparation and Characterization of Nano structured Materials from Fly Ash: A Waste from Thermal Power Stations, by High Energy Ball Milling. Nanoscale Research Letters, 2007. 2(8): p. 397.
91. Graham, U., et al. Ultra-Fine PM Derived from Fullerene-Like Carbon in Electrostatic Precipitator Fly Ash. in Proceedings of 2008 AIChE Annual Meeting, Philadelphia (USA). 2008.
92. Salah, N., et al., Formation of Carbon Nanotubes from Carbon-Rich Fly Ash: Growth Parameters and Mechanism. Materials and Manufacturing Processes, 2016. 31(2): p. 146-156.
93. Monthioux, M. and V.L. Kuznetsov, Who should be given the credit for the discovery of carbon nanotubes? Carbon, 2006. 44(9): p. 1621-1623.
94. Kronbauer, M.A., et al., Geochemistry of ultra-fine and nano-compounds in coal gasification ashes: A synoptic view. Science of The Total Environment, 2013. 456-457: p. 95-103.
95. Chen, Y., et al., Transmission electron microscopy investigation of ultrafine coal fly ash particles. Environ. Science and Technogy, 2005. 39(4): p. 1144-1151.
96. Murr, L.E. and K.F. Soto, A TEM study of soot, carbon nanotubes, and related fullerene nanopolyhedra in common fuel-gas combustion sources. Materials Characterization, 2005. 55(1): p. 50-65.
97. Moon, M.-W., et al., Nanostructured Carbon Materials. Journal of Nanomaterials, 2015. 2015: p. 916834.
98. Everson, R.C., et al., Reaction kinetics of pulverized coal-chars derived from inertinite-rich coal discards: Gasification with carbon dioxide and steam. Fuel, 2006. 85(7): p. 1076-1082.
99. Chen, Z., et al., Energy Storage: Confined Assembly of Hollow Carbon Spheres in Carbonaceous Nanotube: A Spheres-in-Tube Carbon Nanostructure with Hierarchical Porosity for High-Performance Supercapacitor (Small 19/2018). Small, 2018. 14(19): p. 1870089.
100. Oliveira, M.L., et al., Nano-mineralogical investigation of coal and fly ashes from coal-based captive power plant (India): an introduction of occupational health hazards. Science of the Total Environment, 2014. 468: p. 1128-1137.
101. Silva, L.F., et al., Nanometric particles of high economic value in coal fire region: opportunities for social improvement. Journal of cleaner production, 2020. 256: p. 120480.
102. de Reus, M., et al., Particle production in the lowermost stratosphere by convective lifting of the tropopause. Journal of Geophysical Research: Atmospheres, 1999. 104(D19): p. 23935-23940.
103. Baars, H., et al., The unprecedented 2017–2018 stratospheric smoke event: decay phase and aerosol properties observed with the EARLINET. Atmospheric chemistry and physics, 2019. 19(23): p. 15183-15198.
104. Nielsen, J.K., et al., Solid particles in the tropical lowest stratosphere. Atmospheric Chemistry and Physics, 2007. 7(3): p. 685-695.
105. Ebert, M., et al., Chemical analysis of refractory stratospheric aerosol particles collected within the arctic vortex and inside polar stratospheric clouds. Atmospheric Chemistry and Physics, 2016. 16(13): p. 8405-8421.
106. Smołka-Danielowska, D., Heavy metals in fly ash from a coal-fired power station in Poland. Polish Journal of Environmental Studies, 2006. 15(6).
107. Vu, D.-H., et al., Composition and morphology characteristics of magnetic fractions of coal fly ash wastes processed in high-temperature exposure in thermal power plants. Applied Sciences, 2019. 9(9): p. 1964.
108. Silva, L., T. Moreno, and X. Querol, An introductory TEM study of Fe-nanominerals within coal fly ash. Science of the Total Environment, 2009. 407(17): p. 4972-4974.
109. Chen, Y., et al., Characterization of ultrafine coal fly ash particles by energy filtered TEM. Journal of Microscopy, 2005. 217(3): p. 225-234.
110. Martinello, K., et al., Direct identification of hazardous elements in ultra-fine and nanominerals from coal fly ash produced during diesel co-firing. Science of the Total Environment, 2014. 470: p. 444-452.
111. Ribeiro, J., et al., Extensive FE-SEM/EDS, HR-TEM/EDS and ToF-SIMS studies of micron-to nano-particles in anthracite fly ash. Science of the total environment, 2013. 452: p. 98-107.
112. Silva, L.F., et al., Fullerenes and metallofullerenes in coal-fired stoker fly ash. Coal Combustion and Gasification Products, 2010. 2: p. 66-79.
113. Dias, C.L., et al., Nanominerals and ultrafine particles from coal fires from Santa Catarina, South Brazil. International Journal of Coal Geology, 2014. 122: p. 50-60.
114. Linak, W.P., et al., Ultrafine ash aerosols from coal combustion: Characterization and health effects. Proceedings of the Combustion Institute, 2007. 31(2): p. 1929-1937.
115. Fisher, G.L., Biomedically relevant chemical and physical properties of coal combustion products. Environ. Health Persp., 1983. 47: p. 189-199.
116. Herndon, J.M., M. Whiteside, and I. Baldwin, Fifty Years after “How to Wreck the Environment”: Anthropogenic Extinction of Life on Earth. J. Geog. Environ. Earth Sci. Intn., 2018. 16(3): p. 1-15.
117. Simpson, W.R., et al., Halogens and their role in polar boundary-layer ozone depletion. Atmospheric Chemistry and Physics, 2007. 7(16): p. 4375-4418.
118. Read, K.A., et al., Extensive halogen-mediated ozone destruction over the tropical Atlantic Ocean. Nature, 2008. 453(7199): p. 1232-1235.
119. Peng, X., et al., An unexpected large continental source of reactive bromine and chlorine with significant impact on wintertime air quality. National science review, 2021. 8(7): p. nwaa304.
120. NRC, Trace-element Geochemistry of Coal Resource Development Related to Environmental Quality and Health1980: National Academy Press.
121. Pedersen, K.H., et al., Post-treatment of fly ash by ozone in a fixed bed reactor. Energy & fuels, 2009. 23(1): p. 280-285.
122. Chen, X., et al. FLY ASH BENEFICATION WITH OZONE: MECHANISM OF ADSORPTION SUPRESSION. in ABSTRACTS OF PAPERS OF THE AMERICAN CHEMICAL SOCIETY. 2002. AMER CHEMICAL SOC 1155 16TH ST, NW, WASHINGTON, DC 20036 USA.
123. Alebic-Juretic, A., T. Cvitas, and L. Klasinc, Ozone destruction on solid particles. Environmental monitoring and assessment, 1997. 44(1): p. 241-247.
124. Atale, S., et al., Ozone reactions with various carbon materials. Jap Pat CA, 1995. 123: p. 121871.
125. Zhang, H., J.Y. Lee, and H. Liu, Ozone Decomposition on Defective Graphene: Insights from Modeling. The Journal of Physical Chemistry C, 2021. 125(20): p. 10948-10954.
126. Michel, A., C. Usher, and V. Grassian, Reactive uptake of ozone on mineral oxides and mineral dusts. Atmospheric Environment, 2003. 37(23): p. 3201-3211.
127. Coates Fuentes, Z.L., T.M. Kucinski, and R.Z. Hinrichs, Ozone decomposition on kaolinite as a function of monoterpene exposure and relative humidity. ACS Earth and Space Chemistry, 2018. 2(1): p. 21-30.
128. Lasne, J., M.N. Romanias, and F. Thevenet, Ozone uptake by clay dusts under environmental conditions. ACS Earth and Space Chemistry, 2018. 2(9): p. 904-914.
129. Hanisch, F. and J. Crowley, Ozone decomposition on Saharan dust: an experimental investigation. Atmospheric Chemistry and Physics Discussions, 2002. 2(6): p. 1809-1845.
130. Yan, L., J. Bing, and H. Wu, The behavior of ozone on different iron oxides surface sites in water. Scientific reports, 2019. 9(1): p. 1-10.
131. Xu, Z., et al., A novel γ-like MnO2 catalyst for ozone decomposition in high humidity conditions. Journal of Hazardous Materials, 2021. 420: p. 126641.
132. Heisig, C., W. Zhang, and S.T. Oyama, Decomposition of ozone using carbon-supported metal oxide catalysts. Applied catalysis B: environmental, 1997. 14(1-2): p. 117-129.
133. Kashtanov, L., N. Ivanova, and B. Rizhov, Catalytic activity of metals in ozone decomposition. J. Applied Chemistry, 1936. 9: p. 2176-2182.
134. Reckhow, D.A., et al., Oxidation Of Iron And Manganese By Ozone. Ozone: Science & Engineering, 1991. 13(6): p. 675-695.
135. Emelyanova, G., V. Lebedev, and N. Kobozev, Catalytic activity of noble metals in ozone destruction. J Phys Chem, 1964. 38: p. 170-180.
136. Herndon, J.M. and M. Whiteside, Technology Bill of Rights needed to protect human and environmental health and the U. S. Constitutional Republic Advances in Social Sciences Research Journal, 2020. 7(6).
137. Herndon, J.M. and M. Whiteside, Global Environmental Warfare. Advances in Social Sciences Research Journal, 2020. 7(4): p. 411-422.
138. Herndon, J.M. and M. Whiteside, Environmental warfare against American citizens: An open letter to the Joint Chiefs of Staff. Advances in Social Sciences Research Journal, 2020. 7(8): p. 382-397.
139. Herndon, J.M. and M. Whiteside, Viral environmental warfare: Technology Bill of Rights critically needed. Advances in Social Sciences Research Journal, 2021. 8(11): p. 1-19.