Effect of Acid Rain on Vigna radiata
Authors: Nilima Gajbhiye
Abstract:
The acid rain causes change in pH level of soil it is directly influence on root and leaf growth. Yield of the crop was reduced if acidity of soil is more. Acid rain seeps into the earth and poisons plants and trees by dissolving toxic substances in the soil, such as aluminum, which get absorbed by the roots. In present investigation, effect of acid rain on crop Vigna radiata was studied. The effect of acid rain on change in soil fertility was detected in which pH of control sample was 6.5 and pH of 1% H2SO4 and 1% HNO3 were 3.5. Nitrogen nitrate in soil was high in 1% HNO3 treated soil & Control sample. Ammonium nitrogen in soil was low in 1% HNO3 & H2SO4 treated soil. Ammonium nitrogen was medium in control and other samples. The effect of acid rain on seed germination on 3rd day of germination control sample growth was 6.1cm with plumule 0.001% HNO3 & 0.001% H2SO4 was 5.5cm with plumule and 8cm with plumule. On 10th day fungal growth was observed in 1% and 0.1% H2SO4 concentrations when all plants were dead. The effect of acid rain on crop productivity was investigated on 3rd day roots were developed in plants. On 12th day Vigna radiata showed more growth in 0.1% HNO3 and 0.1% H2SO4 treated plants as compare to control plants. On 20th day development of discoloration of plant pigments were observed on acid treated plants leaves. On 34th day Vigna radiata showed flower in 0.1% HNO3, 0.01% HNO3 and 0.01% H2SO4treated plants and no flowers were observed on control plants. On 42th day 0.1% HNO3, 0.01% HNO and 0.01% H2SO4 treated Vigna radiata variety and control plants were showed seeds on plants. In Vigna radiate variety 0.1%, 0.01% HNO3, 0.01% H2SO4treated plants were dead on 46th day and fungal growth was observed. The toxicological study was carried out on Vigna radiata plants exposed to 1% HNO3 cells were damaged more than 1% H2SO4. Leaf sections exposed to 0.001% HNO3 & H2SO4 showed less damaged of cells and pigmentation observed in entire slide when compare with control plant.
Keywords: Acid rain, pH, Vigna radiate, HNO3 & H2SO4.
Digital Object Identifier (DOI): doi.org/10.5281/zenodo.1086997
Procedia APA BibTeX Chicago EndNote Harvard JSON MLA RIS XML ISO 690 PDF Downloads 3269References:
[1] T.W. Ashenden and S.A.Bell,“The effects of simulated acid rain on the
growth of three herbaceous species grown on a range of British soils”
Environmental pollution.,vol.48(4),pp295-310. 1987.
[2] T. W. Ashenden, S. A. Bell and C. R. Rafarel. “Responses of white
clover to gaseous pollutants and acid mist: implications for setting
critical levels and loads,” New Phytol.vol.130,pp. 89-9, 1995.
[3] W.L., Banwart, “Field evaluation of an acid rain-drought stress
interaction,” Environmental pollution.,53(1-4),123-133,1998.
[4] R.J.F Bewley., and G.Stotzky, “Simulated acid rain (H2SO4) and
microbial activity in soil” Soil Biology and
Biochemistry.,vol.15(4),pp.425-429,1983.
[5] S.A Harcourt and J.F Farrar., Environmental Pollution Series A,
Ecological and Biological.,vol. 22(1),pp. 69-73,1990.G. O. Young,
“Synthetic structure of industrial plastics (Book style with paper title and
editor),” in Plastics, 2nd ed. vol. 3, J. Peters, Ed. New York: McGraw-
Hill, 1964, pp. 15–64.
[6] Hou Bao Fan and Yi Hong Wang., “Effects of simulated acid rain on
germination, foliar damage, chlorophyll contents and seedling growth of
five hardwood species growing in China” Forest Ecology and
Management, Vol. 132, issue 2-3, p. 285, July 1, 2000,ISSN: 0378-1127.
[7] N Das., R .Das., G.R Chaudhury. and S. N.Das, “Chemical Composition
of Precipitation at Background Level,” Atmospheric
Research,vol.95(1),108-113,2010.
[8] JS Jacobson , JJ Troiano, LI Heller , L Osmeloski . “Effect of fertilizer
on the growth of radish plants exposed to simulated acidic rain
containing different sulfate to nitrate ratios”. Environ Pollut 44(1):71-9,
1987
[9] Kan Huang .,Guoshun Zhuang ., Chang Xu .,Ying Wang and Aohan
Tang ., “The chemistry of the severe acidic precipitation in Shanghai,
China” Atmospheric Research.,vol.89(1),pp.149-160,2008.
[10] Larssen, Thorjørn; Seip, Hans Martin; Anne G Semb,; Jan Mulder,; I.P
Muniz,.; Vogt, David Rolf ; Lydersen, Espen et al. “Acid rain and its
effects in China,” Environmental Science and Policy. ISSN 1462-9011.
Vol. 2, pp 9- 24,1999.
[11] Masahide Aikawa, Takatoshi Hiraki and Jiro Eiho., “ Ambient nano and
ultrafine particles from motor vehicle emissions: Characteristics,
ambient processing and implications on human exposure,” Atmospheric
Environment,42(30),7043-7049,2008.
[12] R.Piervittori , L Usai., F .Alessio and M.Maffei, “The effect of simulated
acid rain on surface morphology andn-alkane composition of
Pseudevernia furfuracea.”.The Lichenologist,vol 29(2),pp191-
198.1997.
[13] H,.Rennenberg , A .Gessler (2001) Acid rain. Nature encyclopedia of
life sciences. Nature Publishing Group, London
[14] R.Tsitouridou and Ch Anatolaki “On the wet and dry deposition of ionic
species in the vicinity of coal-fired power plants, northwestern Greece,”
Atmospheric Research, 83 (1), 93-105 (2007).
[15] Yoko Nagase and C .Emilson, .D. Silva ,”Acid rain in China and Japan:
A game-theoretic analysis” Reginal Science and Urban
Economics.,37(1),100-120,2007.
[16] Zhao Dianwu, Xiong Jiling, Xu Yu and Walter H. Chan., “Acid rain in
southwestern China,”Atmospheric Environment (1967).,22(2), 349-
358(1988).