Preview

Boron Toxicity

Good Essays
Open Document
Open Document
14167 Words
Grammar
Grammar
Plagiarism
Plagiarism
Writing
Writing
Score
Score
Boron Toxicity
Plant and Soil 193: 181–198, 1997. c 1997 Kluwer Academic Publishers. Printed in the Netherlands.

181

Chapter 12

Boron toxicity
Ross O. Nable1 , Gary S. Ba˜ uelos2 and Jeffrey G. Paull3 n
1

CSIRO Land and Water, P.M.B., P.O. Aitkenvale, QLD 4814, Australia , 2 Water Management Research Laboratory, USDA-ARS, 2021 S. Peach Av., CA 93727, USA and 3 Department of Plant Science, Waite Campus, University of Adelaide, Glen Osmond, SA 5064, Australia

Abstract Whilst of lesser prevalence than B deficient soils, B-rich soils are important, causing B toxicity in the field and decreased crop yields in different regions of the world. The highest naturally occurring concentrations of soil B are in soils derived from marine evaporites and marine argillaceous sediment. In addition, various anthropogenic sources of excess B may increase soil B to levels toxic for plants. The most important source is irrigation water, but others include wastes from surface mining, fly ash, and industrial chemicals. Ameliorating high-B soils is extremely difficult. A commonly used method of reclaiming high B soils is to extensively leach with low B water. Though used successfully, leaching may not be a permanent solution and causes difficulties with the disposal of the leachates. Other amelioration methods include the use of soil amendments (e.g. lime, gypsum) and the planting of plant genotypes that are tolerant of high external B concentrations. Although there are various methods available to determine the levels of B in soils, soil analysis can provide little more than a general risk assessment for B toxicity. Similarly, diagnosing B toxicity in plants, either by visible symptoms or tissue analysis has limited applicability. Thus at present, neither soil nor plant analysis can be recommended to precisely predict the growth of plants on high soil B. Recent physiological and genetic studies have provided some understanding of genetic variation in the response of plants to high concentrations of



References: Adriano D C 1986 Trace Elements in the Terrestrial Environment. pp 73–105. Springer-Verlag, New York. Aitken R L and McCallum L E 1988 Boron toxicity in soil solution. Aust. J. Soil Res. 26, 605–610. Ayars J E, Hoffman G J and Schrale G 1990 Strategies to reduce salt load in drainage water. Proceedings of the 1990 National Conference IrDiv/ASCE. Durango, CO. pp 331–338. Ayars J E, Hutmacher R B, Schoneman R A, Vail S S and Pflaum T 1994 Long term use of saline water for irrigation. Irrig. Sci. 14, 27–34. Bachelet M, Cheylan E and le Bris J 1947 Solubilite des principaux acides fixes des minerals d’uranium dan l’ether ethylique et coefficient de partage entre l’eau et l‘ether ethyliques. J. Chim. Phys. Phys.-Chim. Biol. 44, 302–305. Bagheri A, Paull J G and Rathjen A J 1994 The response of Pisum sativum L. germplasm to high concentrations of soil boron. Euphytica 75, 9–17. Bagheri A, Paull J G and Rathjen A J 1996 Genetics of tolerance to high concentrations of soil boron in peas (Pisum sativum L.). Euphytica 87, 69–75. Bagheri A, Paull J G, Rathjen A J, Ali S M and Moody D B 1992 Genetic variation in the response of pea (Pisum sativum L.) to high soil concentrations of boron. Plant and Soil 146, 261–269. Ba˜ uelos G S, Akohoue S, Zambrzuski S and Mead R 1993a Trace n element composition of different plant species used for remediation of boron-laden soils. In Plant Nutrition From Genetic Engineering to Field Practice. Ed. N J Barrow. pp 425–428. Kluwer Academic Publishers, Dordrecht, The Netherlands. Ba˜ uelos G S, Mackey B, Wu L, Zambrzuski S and Akohoue S n 1995 Bioextraction of soil boron by tall fescue. Ecotoxicology Environ. Safety 31, 110–116. Ba˜ uelos G, Cardon G, Mackey B, Ben-Asher J, Wu L, Beuselinck P, n Akohoue S and Zambrzuski S 1993b Boron and selenium removal in boron laden soils by four sprinkler irrigated plant species. J. Environ. Qual. 22, 786–792. Barth R C 1984 Soil depth requirements to re-establish perennial grasses on surfaced-mined areas in the Northern Great Plains. Mineral Energy Resources 27, 1–20. Barth R C, Severson R C and Weiler G 1987 Boron. In Reclaiming Mine Soils and Overburden in the Western US: Analytical Parameters and Procedures. Eds. R D Williams and G E Schuman. pp 135–153. Soil Conservation Soc. Am., Ankey, IA, USA. Bartlett R J and Picarelli C J 1973 Availability of boron and phosphorus as affected by liming an acid potato soil. Soil Sci. 116, 77–80. 195 Bennett, W F 1993 Nutrient Deficiencies and Toxicities in Crop Plants. APS Press, St Paul, MN, USA. Berger K C and Truog E 1940 Boron deficiencies as revealed by plant and soil tests. J. Am. Soc. Agron. 32, 297–301. Bergmann W 1992 Colour Atlas: Nutritional Disorders of Plants. pp 204–239. Gustav Fischer, New York. Bhumbla D R and Ckhabra R 1982 Chemistry of sodic soils in review of soil research in India. In Trans. 12th Int. Cong. Soil Sci. New Delhi, India. 169 p. Bingham F T 1973 Boron in cultivated soils and irrigation waters. In Trace Elements in the Environment. Advances in Chemistry, Ser. 123. Ed. E L Kothnz. pp 130–138. Am. Chem. Soc., Washington, DC, USA. Bingham F T 1982 Boron. In Methods of Soil Analysis. Ed. A L Page. pp 431–447. Am. Soc. Agron., Madison, WI, USA. Blatt C R 1976 Phosphorus and boron interactions on growth of strawberries. HortScience 11, 597–599. Brooks B J 1991 The adaptation of Triticum turgidum L. var. durum (durum wheat) to South Australia. Honours Thesis, The University of Adelaide. Brown P H and Hu H 1994 Boron uptake by sunflower, squash and cultured tobacco cells. Physiol. Plant. 91, 435–441. Brown P H and Hu H 1996 Phloem mobility of boron is species dependent: evidence for phloem mobility in sorbitol-rich species. Ann. Bot. 77, 497–505. Caceres L, Gruttner D. and Contreras N 1992 Water recycling in arid regions: Chilean case. Ambio 21, 138–144. Campbell T A, Rathjen A J and Jefferies S P 1994 Breeding wheat (Triticum aestivum L.) for tolerance to boron toxicity. In Proc. 7th Assembly Wheat Breeding Society of Australia. Eds. J G Paull, I S Dundass, K W Shepherd and G J Hollamby. pp 111–114. Wheat Breeding Society of Australia. Campbell T A, Moody D B, Jefferies S P, Cartwright B and Rathjen A J 1995 Grain yield evaluation of near isogenic lines for boron tolerance. In Proc. 8th Int. Wheat Genet. Symp., Beijing. Eds. Z S Li and Z Y Xin. pp 1021–1027. Carlson C L and Adriano D C 1993 Environmental impact of coal combustion residues. J. Environ. Qual. 22, 227–247. Cartwright B, Zarcinas B A and Mayfield A H 1984 Toxic concentrations of B in a red-brown earth at Gladstone, South Australia. Aust. J. Soil Res. 22, 261–272. Cartwright B, Zarcinas B A and Spouncer L A 1986 Boron toxicity in South Australian barley crops. Aust. J. Agric. Res. 37, 351–359. Cartwright B, Rathjen A J, Sparrow D H B, Paull J G and Zarcinas B A 1987 Boron tolerance in Australian varieties of wheat and barley. In Genetic Aspects of Plant Mineral Nutrition. Eds. H W Gabelman and B C Loughman. pp 139–151. Martinus Nijhoff, Dordrecht, The Netherlands. Cayton M T C 1985 Boron toxicity in rice. IRRI Research Paper Series 113. Chantachume Y 1995 Genetic studies on the tolerance of wheat to high concentrations of boron. Ph.D. Thesis, The University of Adelaide, South Australia. Chantachume Y, Shepherd K W, Paull J G and Rathjen A J 1994 Chromosomal location of genes in wheat controlling tolerance to high concentrations of boron. In Proc. 7th Assembly Wheat Breeding Society of Australia. Eds. J G Paull, I S Dundas, K W Shepherd and G J Hollamby. pp 27–30. Adelaide, South Australia. Chantachume Y, Smith D, Hollamby G J, Paull J G and Rathjen A J 1995 Screening for boron tolerance in wheat (T. aestivum) by solution culture in filter paper. Plant and Soil 177, 249–254. Chao T T 1972 Selective dissolution of manganese oxides from soils and sediments with acidified NH2 OH-HCl. Soil Sci. Soc. Am. Proc. 36, 764–768. Chapman H D and Vanselow A P 1955 Boron deficiency and excess. Calif. Citrograph 41, 31–34. Chatterjee B W, Chatterjee m and Das N R 1980 Note on the differences in the response of wheat varieties to boron. Indian J. Agric. Sci. 50, 796. Chauhan R P S and Powar S L 1978 Tolerance of wheat and pea to boron in irrigation water. Plant and Soil 50, 145–149. Chesworth W 1991 Geochemistry of micronutrients. In Micronutrients in Agriculture. Eds. J J Mortvedt, F R Cox, L M Shuman and R M Welch. pp 1–30. Soil Sci. Soc. Am., Madison, WI, USA. Chhipa B R and Lal P 1990 A comparative study on the effect of soil B on yield, yield attributes and nutrient uptake by susceptible and tolerant varieties of wheat. An. Edafol. Agrobiol. 48, 489–498. Christensen J J 1934 Nonparasitic leaf spots of barley. Phytopath. 24, 726–742. Cox R R and Kamprath E J 1977 Essential micronutrient soil tests. In Micronutrients in Agriculture. Eds. J J Mortvedt, P M Giordano and W L Lindsay. pp 289–317. Soil Science Soc. Amer., Madison, WI, USA. DeEndredy A S 1963 Estimation of free iron oxides in soils and clays by a photolytic method. Clay Miner Bull. 9, 209–217. Dhankhar D P and Dahiya S S 1980 The effect of different levels of boron and soil salinity on the yield of dry matter and its mineral composition in Ber (Zizyphus rotundifola). Int. Symp. on Salt Affected Soils. Karnal, India, pp 396–403. Eary L E, Dhanpot R, Mattigod S V and Ainsworth C C 1990 Geochemical factors controlling the mobilisation of inorganic constituents from fossil fuel combustion residues. II Review of the minor elements. J. Environ. Qual. 19, 202–210. Eaton F M 1935 Boron in soil and irrigation waters and its effect on plants. USDA Tech. Bull. 448. Eaton F M 1944 Deficiency, toxicity and accumulation of boron in plants. J. Agric. Res. 69, 237–277. Eaton F M and Blair G Y 1935 Accumulation of boron by reciprocally grafted plants. Plant Physiol. 10, 411–424. El-Motaium R, Hu H and Brown P H 1994 the relative tolerance of six Prunus rootstocks to boron and salinity. J. Am. Soc. Hort. Sci. 119, 1169–1175. Elseewi A A, Page A L and Grimm S R 1980a Chemical characterisation of fly ash aqueous systems. J. Environ. Qual. 9, 424–428. Elseewi A A, Straughan I R and Page A L 1980b Sequential cropping of fly ash-amended soils: Effect on soil chemical properties and yield, and elemental composition of plants. Sci. Total Environ. 15, 247–259. Erd R C 1980 The minerals of boron. In Mellor’s Comprehensive Treatise on Inorganic and Theoretical Chemistry. Suppl. to Vol. V. Ed. R Thompson. pp 7–71. Longman, New York. Fleming G A 1980 Essential micronutrients: boron and molybdenum. In Applied Soil Trace Elements. Ed. B E Davies. pp 155– 176. John Wiley, New York. Francois L E and Clark R A 1979 Boron tolerance of twenty-five ornamental shrub species. J. Amer. Soc. Hort. Sci. 104, 319–322. Gill K S, Lubbers E L, Gill B S, Raupp W J and Cox T S 1991 A genetic linkage map of Triticum tauschii (DD) and its relationship to the D genome of bread wheat (AABBDD). Genome 34, 362– 374. Goldberg S 1993 Chemistry and mineralogy of boron in soils. In Boron and Its Role in Crop Production. Ed. U C Gupta. pp 344. CRC Press, Boca Raton, FL, USA. Graham R D, Welch R M, Grunes D L, Cary E E and Norvell W A 1986 Effect of zinc deficiency on the accumulation of boron 196 and other mineral nutrients in barley. Soil Sci. Soc. Am. J. 51, 652–657. Gupta U C 1977 Effects of boron and limestone on cereal yields and on B and N concentrations of plant tissue. Plant and Soil 47, 283–287. Gupta U C 1993 Deficiency, sufficiency, and toxicity levels of boron in crops. In Boron and Its Role in Crop Production. Ed. U C Gupta. pp 137–145. CRC Press, Boca Raton, FL, USA. Gupta U C, MacLeod J A and Sterling J D E 1976 Effects of boron and nitrogen on grain yield and boron and nitrogen concentrations of barley and wheat. Soil Sci. Soc. Am. J. 40, 723–726. Gupta U C, Jame Y W, Campbell C A, Leyshon A J and Nicholaichuk W 1985 Boron toxicity and deficiency: a review. Can. J. Soil Sci. 65, 381–409. Haas A R C 1929 Toxic effect of boron on fruit trees. Bot. Gaz. 88, 113–131. Handreck K A 1990 Methods of assessing boron availability in potting media with special reference to toxicity. Commun. Soil Sci. Plant Anal. 21, 2265–2280. Hoffman G J 1990 Leaching fraction and root zone salinity control. In Agricultural Salinity Assessment and Management. Ed. K K Tanji. pp 238–261. Amer. Soc. of Civil Eng., New York. Hope A B and Walker N A 1975 The Physiology of Giant Algal Cells. pp 77. Cambridge University Press, UK Huang C and Graham R D 1990 Resistance of wheat genotypes to boron toxicity is expressed at the cellular level. Plant and Soil 126, 295–300. Iyenger S S, Martens D C and Miller W P 1981 Distribution and plant availability of soil zinc fractions. Soil Sci. Soc. Am. J. 45, 735–739. Jame Y W, Nicholaichuk W, Leyshon A J and Cambell C A 1982 Boron concentration in the soil solution under irrigation: a theoretical analysis. Can. J. Soil. Sci. 62, 461–470. James W D, Graham C C, Glascock M D and Hanna A G 1982 Water-leachable B from coal ashes. Environ. Sci. Tech. 16, 195– 199. Jamjod S 1996 Genetics of boron tolerance in durum wheat. Ph.D. Thesis, The University of Adelaide, South Australia. Jamjod S, Paull J G, Brooks B J and Rathjen A J 1997 Genetic variation in the tolerance of durum wheat (Triticum turgidum L. var. durum) to high concentrations of boron. In Proceedings of Boron in Soils and Plants. Eds. R W Bell and B Rerkasem. Kluwer Academic Publishers, Dordrecht, The Netherlands (in press). Jenkin M J 1993 The genetics of boron tolerance in barley. Ph D Thesis, The University of Adelaide, South Australia. Jones L H P and Handreck K A 1969 Uptake of silica by Trifolium incartanum in relation to the concentration in the external solution and to transpiration. Plant and Soil 30, 71–80. Keren R and Bingham F T 1985 Boron in water, soils, and plants. Adv Soil Sci. 1, 230–276. Kluge R and Podlesak W 1985 Plant critical levels for the evaluation of boron toxicity in spring barley (Hordeum vulgare L.). Plant and Soil 83, 381–388. Kubata J 1980 Regional distribution of trace element problems in North America. In Applied Soil Trace Elements. Ed. B. Davies. pp 443–466. John Wiley, London. Kukier U and Sumner M E 1996 Boron availability to plants from coal combustion by-products. Water, Air, and Soil Pollution. 87, 93–110. Kukier U, Sumner M E and Miller W P 1994 Boron released from fly ash and its uptake by corn. J. Environ. Qual. 23, 596–603. Leyshon A J and Jame Y M 1993 Boron toxicity and irrigation management. In Boron and It’s Role in Crop Production. Ed. U C Gupta. pp 207–226. CRC Press, Boca Raton, FL, USA. Loomis W D and Durst R W 1992 Chemistry and biology of boron. BioFactors 3, 229–239. Lovatt C J and Bates L M 1984 Early effects of excess boron on photosynthesis and growth of Cucurbita pepo. J. Exp. Bot. 35, 297–305. Lukaszewski K M, Blevins D G and Randall D D 1992 Asparagine and boric acid cause allantoate accumulation in soybean leaves by inhibiting manganese-dependent allantoate amidohydrolase. Plant Physiol. 99, 1670–1676. Maas E V 1987 Salt tolerance of plants. In Handbook of Plant Science in Agriculture, vol. 2. Ed. B R Christie. pp 57. CRC Press, Boca Raton, FL, USA. Manyowa N M and Miller T E 1991 The genetics of tolerance to high mineral concentrations in the tribe Triticeae – a review and update. Euphytica 57, 175–185. Masson L 1967 Alaunos problemas relacionados con la calinidad in los vales de la costa sur. Oficeing Nacional de Evaluacion di Recursos Nationals. Lima, Peru. Materne A M 1979 Genetic variability in the response of field pea varieties to soil boron. Honours Thesis, The University of Adelaide. Mattigod S V 1983 A method of estimating the standard free energy of information of borate minerals. Soil Sci. Soc. Amer. J. 47, 654–655. Mehrotra O N, Srivastava R D L and Hishra P H 1980 Some observations on the relative tolerance of wheat genotypes to boron. Indian Agric. 24, 223–238. Moody D B, Rathjen A J and Cartwright B 1993 Yield evaluation of a gene for boron tolerance using backcross-derived lines. In Genetic Aspects of Plant Mineral Nutrition. Eds. P J Randall, E Delhaize, R A Richards and R Munns. pp 363–366. Kluwer Academic Publishers, Dordrecht, The Netherlands. Moody D B, Rathjen A J, Cartwright B, Paull J G and Lewis J 1988 Genetic diversity and geographical distribution of tolerance to high levels of soil boron. In Proc. 7th Int. Wheat Genet. Symp., Cambridge. Eds. T E Miller and R M D Koebner. pp 859–865. Nable R O 1988 Resistance to boron toxicity amongst several barley and wheat cultivars: a preliminary examination of the resistance mechanism. Plant and Soil 112, 45–57. Nable R O 1989 Effects of boron toxicity upon the mineral nutrient composition of barley and wheat cultivars. CSIRO Div. Soils Report No. 104. Nable R O and Moody D B 1992 Effects of rainfall on the use of foliar analysis for diagnosing boron toxicity in field-grown wheat. Plant Soil 140, 311–314. Nable R O, Cartwright B and Lance R C M 1990a Genotypic differences in boron accumulation in barley: relative susceptibilities to boron deficiency and toxicity. In Genetic Aspects of Plant Mineral Nutrition. Ed. N El Bassam. pp 243–251. Kluwer Academic Publishers, Dordrecht, The Netherlands. Nable R O, Lance R C M and Cartwright B 1990b Uptake of boron and silicon by barley genotypes with differing susceptibilities to boron toxicity. Ann. Bot. 66, 83–90. Nable R O, Paull G P and Cartwright B 1990c Problems associated with the use of foliar analysis for diagnosing boron toxicity in barley. Plant and Soil 128, 225–232. Nicholaichuk W A, Leyshon J, Jame Y W and Campbell C A 1988 Boron and salinity survey of irrigation projects and the boron adsorption characteristics of some Saskatchewan soils. Can. J. Soil Sci. 68, 77–90. Oertli J J 1994 Non-homogeneity of boron distribution in plants and consequences for foliar diagnosis. Comm. Soil Sci. Plant Anal. 25, 1133–1147. 197 Oertli J J and Kohl H C 1961 Some considerations about the tolerance of various plant species to excessive supplies of boron. Soil Sci. 92, 243–247. Oertli J J and Roth J A 1969 Boron nutrition of sugar beet, cotton, and soybean. Agron. J. 61, 191–95. Paliwal K V and Mehta K K 1973 Interactive effect of salinity, SAR and boron on the germination and growth of seedlings of some paddy (Oryza sativa) varieties. Plant and Soil 39, 603–609. Parker P R and Gardner E H 1981 The determination of hot water soluble boron in some acid Oregon soils using a modified azomethine-H procedure. Commun. Soil Sci. Plant Anal. 12, 1311–1377. Parker D R, Page A L and Thomas D N 1991 Salinity and boron tolerances of candidate plants for the removal of selenium from soils. J. Environ. Qual. 20, 157–164. Paull J G 1990 Genetic studies on the tolerance of wheat to high concentrations of boron. Ph.D. Thesis, The University of Adelaide, South Australia. Paull J G, Cartwright B and Rathjen A J 1988a Responses of wheat and barley genotypes to toxic concentrations of soil boron. Euphytica 39, 137–144. Paull J G, Nable R O and Rathjen A J 1992a Physiological and genetic control of the tolerance of wheat to high concentrations of boron and implications for plant breeding. Plant and Soil 146, 251–260. Paull J G, Rathjen A J and Cartwright B 1988b Genetic control of tolerance to high concentrations of soil boron in wheat. In Proc. 7th Int. Wheat Genet. Symp., Cambridge. Eds. T E Miller and R M D Koebner pp 871–877. Paull J G, Rathjen A J and Cartwright B 1991a Major gene control of tolerance of bread wheat (Triticum aestivum L.) to high concentrations of soil boron. Euphytica 55, 217–288. Paull J G, Rathjen A J and Cartwright B 1991b Tolerance to high concentrations of boron for the amphiploid of Triticum aestivum Agropyron elongatum. Plant and Soil 133, 297–299. Paull J G, Rathjen A J, Cartwright B and Nable R O 1990 Selection parameters for assessing the tolerance of wheat to high concentrations of boron. In Genetic Aspects of Plant Mineral Nutrition. Ed. N El Bassam. pp 361–369. Kluwer Academic Publishers, Dordrecht, The Netherlands. Paull J G, Rathjen A J, Langridge P and McIntosh R A 1995 Location of genes controlling boron tolerance of wheat. In Proc. 8th Int. Wheat Genet. Symp, Beijing. Eds. Z S Li and Z Y Xin pp 1065– 1069. Paull J G, Nable R O, Lake A W H, Materne M A and Rathjen A J 1992b Response of annual medics (Medicago spp.) and field peas (Pisum sativum) to high concentrations of boron: genetic variation and the mechanism of tolerance. Aust. J. Agric. Res. 43, 203–213. Perkins P V 1996 A theoretical approach to the assessment of boron phytotoxicity resulting from the amelioration of minespoil with pulverised fuel ash. Land Degradation and Development. 7, 239– 256. Peryea F J, Bingham F T and Rhoades J D 1985 Mechanisms for boron regeneration. Soil Sci. Soc. Am. J. 49, 840–843. Picchioni G A and Miyamoto S 1991 Growth and boron uptake of five pecan cultivar seedlings. HortScience 26, 386–388. Pichtel J R, Dick W A and Sutton P 1994 Comparison of amendments and management practices for long-term reclamation of abandoned mine lands. J. Environ. Qual. 23, 766–777. Piha M J; Vallack H W, Michael N and Reeler B M 1995 A low impact approach to vegetation establishment on mine and coal ash wastes in semi-arid regions. II. Lagooned pulverized fuel ash in Zimbabwe. J. Applied Ecology 32, 382–390. Ponnamperuma F N, Lantin R S and Cayton M T C 1979 Boron toxicity in rice soils. Int. Rice Res. Newsletter 4, 8. Prather R J 1977 Sulphuric acid as an amendment for reclaiming soils high in boron. Soil Sci. Soc. Am. Proc. 41, 1098–1101. Purvis E R and Hanna J 1938 Boron studies: I The susceptibility of various plants to boron toxicity as influenced by soil types. Soil Sci. Soc. Am. Proc. 3, 205–209. Rathjen A J and Pederson D G 1986 Selecting for improved grain yields in variable environments. In Plant Breeding Symposium DSIR. Eds. T A Williams and G S Wratt. pp 104–115. Agronomy Society of New Zealand, Special Publication No. 5. Rathjen A J, Cartwright B, Paull J G, Moody D B and Lewis J 1987 Breeding for tolerance of mineral toxicities in Australian cereals with special reference to boron. In Priorities in Soil/Plant Relations Research for Plant Production. Eds. P G E Searle and B G Davey. pp 111–130. School of Crop Sciences, The University of Sydney. Raven J A 1980 Short- and long-distance transport of boric acid in plants. New Phytol. 84, 231–249. Raven J A 1983 The transport and function of silicon in plants. Biol. Rev. 58, 179–207. Ravikovitch S, Margolin m and Navroth J 1961 Microelements in soils of Israel. Soil Sci. 92, 85–89. Rhoades J D, Ingvalson R D and Hatcher J T 1970 Laboratory determinations of leachable soil boron. Soil Sci. Soc. Amer. Proc. 34, 871–875. Riley M M, Robson A D, Dellar G A and Gartrell J W 1994 Critical toxic concentrations of boron are variable in barley. J Plant Nutr. 17, 1701–1719. Roundy B A 1985 Germination and seedling growth of tall wheatgrass and basin wildrye in relation to boron. J. Range Management 38, 270–272. Rozema J, De Bruin J and Broekman R A 1992 Effect of boron on growth and mineral economy of some halophytes and nonhalophytes. New Phytol. 121, 249–256. Ryan J, Mirjamoto S and Stroehlein J L 1977 Relation of solute and sorbed B to the B hazard in irrigation water. Plant and Soil. 47, 253–256. Schuman G E 1969 Boron tolerance of tall wheatgrass. Agron. J. 61, 445–447. Schwertmann U 1964 The differentiation of iron oxides in soil by extraction with NH4-oxalate solution. Z. Pflanzenernahr Bodenkd. 105, 194–202. Severson R C and Gough Z P 1983 Boron in mine soils and rehabilitation plant species at selected cool mines in western U.S. J. Environ. Qual. 12, 142–146. Severson R C and Tidball R R 1979 Spatial variation in total element concentration in soil within the northern great plains cool region. U.S. Geological Survey Paper 1134-A. Washington, DC, USA. Shani Y and Hanks R J 1993 Model of integrated effects of boron, inert salt, and water flow on crop yield. Agron. J. 85, 713–717. Shennan C, Grattan S R, May D M, Hillhouse C J, Schachtman D P, Wander M, Roberts B, Tafoya S, Burau R G, McNeish C and Zelinski L 1995 Feasibility of cyclic reuse of saline drainage in a tomato cotton rotation. J. Environ. Qual. 24, 476–486. Shorrocks V M 1964 Boron toxicity in Hevea brasiliensis. Nature 204, 599–600. Shorrocks V M 1995 Micronutrient News and Information, 15(1), 3–4. Smidt R E and Whitton J S 1975 Note on boron toxicity in a stand of radiata pine in Hawkes Bay, New Zealand. J. Science 18, 104–113. 198 Snape J W and Law C N 1980 The detection of homologous chromosome in wheat using backcross reciprocal monosomic lines. Heredity 45, 187–200. Spouncer L R, Nable R O and Cartwright B 1992 A procedure for the determination of soluble boron in soils ranging widely in Boron concentrations, sodicity, and pH. Commun. Soil Sci. Plant Anal. 23, 441–453. Su C, Evans L J, Bates T E and Spiers G A 1994 Extractable soil boron and alfalfa uptake: calcium carbonate effects on acid soil. Soil Sci. Soc. Am. J. 58, 1445–1450. Swietlik D 1995 Interaction between zinc deficiency and boron toxicity on growth and mineral nutrition of sour orange seedlings. J. Plant Nutrition 18, 1191–1207. Takkar P N 1982 Micronutrients: forms, content, distribution in profile, indices of availability and soil test methods. In 12th Int. Soil Sci. Cong., Part 1. New Delhi. 136p. Toledo J and Spurr J 1984 plant growth and boron uptake by Lycopersicon esculentum andL. cheesmanii f. minor. Turrialba 34, 111– 115. United States Salinity Lab. Staff 1954 Diagnosis and improvement of saline and alkali soils. USDA Handbook. No. 60. Vengosh A, Heumann K G, Juraski S and Kasher R 1994 Boron isotope application for tracing sources of contamination in groundwater. Environ. Sci. Tech. 28, 1968–1974. Walker C D and Lance R C M 1991 Silicon accumulation and 13 C composition as indices of water-use efficiency in barley cultivars. Aust. J. Plant Physiol. 18, 427–434. Walter A and Gutknecht J 1986 Permeability of small nonelectrolytes through lipid bilayer membranes. J. Membrane Biol. 90, 207–217. Watson M C, Ba˜ uelos G S, O’Leary J W and Riley J J 1994 n Trace element composition of Atriplex grown with saline drainage water. Agri. Ecosys. Environ. 48, 157–167. Wong J W C, Jiang R F and Su D C 1996 Boron availability in ash-sludge mixture and its uptake by corn seedling (Zea mays L.). Soil Sci. 161, 182–187. Yau S K, Nachit, M M, Ryan J and Hamblin J 1995 Phenotypic variation in boron-toxicity tolerance at seedling stage in durum wheat (Triticum durum). Euphytica 83: 185–191. Yokota H and Konishi S 1990 Effect of the formation of a sugarborate complex on the growth inhibition of pollen tubes of Camellia sinensis and cultured cells of Nicotiana tabacum by toxic levels of borate. Soil Sci. Plant Nutr. 36, 275–281. Zyrin N G and Zborishchuk J N 1975 Boron in the ploughed layer of soils of the European part of the USSR. Pochvovedenise 5, 44.

You May Also Find These Documents Helpful

  • Better Essays

    Unit 5 Biology

    • 1810 Words
    • 8 Pages

    Phytoextraction (or phytoaccumulation) uses plants or algae to remove contaminants from soils, sediments or water into harvestable plant biomass (organisms that take larger-than-normal amounts of contaminants from the soil are called hyperaccumulators). Phytoextraction has been growing rapidly in popularity worldwide for the last twenty years or so. In general, this process has been tried more often for extracting heavy metals than for organics. At the time of disposal, contaminants are typically concentrated in the much smaller volume of the plant matter than in the initially contaminated soil or sediment. 'Mining with plants', or phytomining, is also being experimented with. The plants absorb contaminants through the root system and store them in the root biomass and/or transport them up into the stems and/or leaves. A living plant may continue to absorb contaminants until it is harvested. After harvest, a lower level of the contaminant will remain in the soil, so the growth/harvest cycle must usually be repeated through several crops to achieve a significant cleanup. After the process, the cleaned soil can support other vegetation.…

    • 1810 Words
    • 8 Pages
    Better Essays
  • Good Essays

    Lab- Effects of Ecb

    • 688 Words
    • 3 Pages

    This experiment was conducted for a 140 day growing season in a controlled environment. The corn was planted and was then infested by a given amount of ECB. The first group tested was the golden corn. Three groups of golden corn were infested by three varying amounts of ECB. Group A was effected by no ECB, group B was infested by a low level of ECB and group C was infested by a high concentration of ECB. At the end of the growing season the stalks of corn were then inspected and measured for yield. Corn crop yield is measured by the…

    • 688 Words
    • 3 Pages
    Good Essays
  • Good Essays

    This document is adapted from Fact Sheet ST-604, a series of the Environmental Horticulture Department, Florida Cooperative Extension Service, Institute of Food and Agricultural Sciences, University of Florida. Publication date: October 1994. Edward F. Gilman, associate professor, Environmental Horticulture Department; Dennis G. Watson,…

    • 672 Words
    • 3 Pages
    Good Essays
  • Good Essays

    A few years back, on a visit to my uncle’s farmland in Rajhistan, India, I came across a few barley farms that were clearly receiving polluted water from a zinc mine nearby. The very same crops were then sold in the market! As I recounted the experience of what I saw, I could immediately connect to my biology course where I learnt about the environmental effects of heavy metals. This made me think, although zinc is an important nutrient for both plants and humans, very high concentrations can have adverse effects on both, plant and human life.…

    • 490 Words
    • 2 Pages
    Good Essays
  • Better Essays

    Agronomy for Sustainable Development (EDP Sciences) 30.1 (2010): 33-41. Academic Search Complete. Web. 21 Sept. 2013.…

    • 1351 Words
    • 4 Pages
    Better Essays
  • Satisfactory Essays

    It is generally accepted that phytomining is greener than conventional mining practices. In environments with metal-contaminated soil, phytominers can recollect metal pollutants from the soil, thereby restoring the soil to health. Still, growingmass amounts of plants also takes a toll on the land used for cultivation. Industrial farming practices deplete the soil and overgrowing biocrops has the potential to permanently alter an area's ecology.…

    • 385 Words
    • 2 Pages
    Satisfactory Essays
  • Satisfactory Essays

    Crystalline Boron

    • 298 Words
    • 2 Pages

    Boron is a chemical element with symbol B and atomic number 5. Because boron is produced entirely by cosmic ray spallation, it is a low-abundance element in both the solar system and the Earth's.…

    • 298 Words
    • 2 Pages
    Satisfactory Essays
  • Good Essays

    Plants and environmental stresses have been of most importance as a field of study and research through out the ages. It was found that the different stresses that plants are exposed to are outgoing and reduce the crop yield. Of these stresses, temperature, drought, salinity and microwaves are of major importance.…

    • 1601 Words
    • 7 Pages
    Good Essays
  • Powerful Essays

    Selenium Lab Report

    • 1900 Words
    • 8 Pages

    Selenium, found in group 16 of the periodic table, follows a cycle in the environment as it transfers between the biosphere, atmosphere and hydrosphere. It is also an essential element for humans and animals. It can cause both deficiencies and toxic effects if not taken in the correct quantities. This essay outlines the general features and behaviour of Se in the primary environment, its general abundance and its ability to substitute into minerals. Its Eh and pH also are important factors in determining the form which the Se takes, altering its mobility. This essay also covers the transition of selenium between mediums as it cycles through the environment. Once released through the effects of weathering or erosion, it enters the secondary environment where it interacts with plants animals and humans. Its bioavailability is important to determine the rate at which it can be removed from soils and water. This and its overall abundance in any given area can cause deficiency or toxicity.…

    • 1900 Words
    • 8 Pages
    Powerful Essays
  • Powerful Essays

    5. Hugh G. Gauch and Cecil H. Wadleigh, (1944). Effects of High Salt Concentrations on Growth of Bean Plants [Internet]. ITHAKA, Available from http://www.jstor.org/discover/10.2307/2472234?uid=3737536&uid=2129&uid=2&uid=70&uid=4&sid=47698725267407 [Accessed on the 13th of February 2012].…

    • 1414 Words
    • 6 Pages
    Powerful Essays
  • Good Essays

    Millet Water Experiment

    • 842 Words
    • 4 Pages

    The purpose of this experiment was to see how the seedlings react in order to determine possible effects of this “chemical free” product on the environment. Upon completion of the experiment it was determined that the pollutants did not have a detrimental effect on the millet seeds. The findings indicated that control group and the 5% group showed signs of the most decay within the petri dishes. Both of the millet seed groups, which showed the most decay were the two closest to the heater and the window; this indicates a variable that should have considered this prior to the start of the experiment such as the warmth of the room where the seeds were located and the amount of indirect sunlight…

    • 842 Words
    • 4 Pages
    Good Essays
  • Powerful Essays

    Using 40 soil samples, we will compare Beryllium measurement strategies to assess the possibility of onsite Be measurement and analysis.…

    • 1302 Words
    • 6 Pages
    Powerful Essays
  • Good Essays

    References: Wright, R. T., & Boorse, D. F. (2014). Environmental science (12th ed.) San Francisco, CA: Pearson Education, Inc. Retrieved from: Chapter 11- Soil: The foundations for land ecosystems, Pages 266-288.…

    • 602 Words
    • 3 Pages
    Good Essays
  • Powerful Essays

    the scientific method

    • 2341 Words
    • 9 Pages

    Agricultural scientists were concerned about the effect of air pollution, sulfur dioxide in particular, on soybean production in fields adjacent to coal-powered power plants. Based on initial investigations, they proposed that sulfur dioxide in high concentrations would reduce reproduction in…

    • 2341 Words
    • 9 Pages
    Powerful Essays
  • Satisfactory Essays

    According to a study conducted by Francisco, Cartea, Butrón, Sotelo, and Velasco, Brassica rapa plants grow best in high temperatures, and the metabolite substance regulates best in intense temperatures (2012). This paper explains an experiment in which the growth rate of Brassica rapa plants was studied based on watering the plants with different types of water. Deionized water and tap water were both used to water two different groups of the same plants. In a study conducted in Japan, tap water was treated with different minerals and then used to water Brassica rapa plants during their growth. The results of this study show that treated tap water greatly benefitted the plants growth (Ishikawa, Islam, Kazunori, Takeda, 2009).In a study conducted by Meeteren, Gelder, and Ieperen, tap water increased the fresh weight of cut chrysanthemum flowers placed in a vase and deionized water decreased the fresh weight (1999). Deionized water clearly has a negative effect on this specific plant, so the possibility of…

    • 338 Words
    • 2 Pages
    Satisfactory Essays

Related Topics