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Boron Toxicity

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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



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    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,…

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

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    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.…

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    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.…

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    Crystalline Boron

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    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.…

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    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.…

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    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].…

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

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    the scientific method

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    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…

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    Selenium Lab Report

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    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.…

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    Millet Water Experiment

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    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…

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    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…

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    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.…

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