Effect of artificial electric fields on plants grown under microgravity conditions

Ionic and structural hetorogeneity of cells, tissues, and organs of plants are associated with a spectrum of electric characteristics such as bioelectric potentials, electrical conductance, and bioelectric permeability. An important determinant for the plant function is electric properties of the ce...

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Veröffentlicht in:Advances in space research 2001-01, Vol.28 (4), p.629-631
Hauptverfasser: Nechitailo, G., Gordeev, A.
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Gordeev, A.
description Ionic and structural hetorogeneity of cells, tissues, and organs of plants are associated with a spectrum of electric characteristics such as bioelectric potentials, electrical conductance, and bioelectric permeability. An important determinant for the plant function is electric properties of the cell membranes and organelles which maintain energy and substance exchange with the environment. Enzymes and other biologically active substances have a powerful charge at the molecular level. Finally, all molecules, including those of water, represent dipoles, and this determines their reactive capacity. A major determinant is the bioelectric polarity of a plant is genetically predetermined and cannot be modified. It is an intrinsic structural feature of the organism whose evolution advent was mediated by gravity. An illustrative presentation of polarity is the downward growth of the roots and upward growth of stems in the Earth's gravitation field. However, gravity is a critical, but not the sole determinant of the plant organism polarization. Potent polarizing effects are exerted by light, the electromagnetic field, moisture, and other factors. It is known that plant cultivation in an upturned position is associated with impairment of water and nutrient uptake, resulting in dyscoordination of physiological processes, growth and developmental retardation. These abnormalities were characteristic when early attempts were made to grow plants in weightlessness conditions.
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An important determinant for the plant function is electric properties of the cell membranes and organelles which maintain energy and substance exchange with the environment. Enzymes and other biologically active substances have a powerful charge at the molecular level. Finally, all molecules, including those of water, represent dipoles, and this determines their reactive capacity. A major determinant is the bioelectric polarity of a plant is genetically predetermined and cannot be modified. It is an intrinsic structural feature of the organism whose evolution advent was mediated by gravity. An illustrative presentation of polarity is the downward growth of the roots and upward growth of stems in the Earth's gravitation field. However, gravity is a critical, but not the sole determinant of the plant organism polarization. Potent polarizing effects are exerted by light, the electromagnetic field, moisture, and other factors. 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subjects Bioelectric potentials
Biological Transport
Brassicaceae - growth & development
Brassicaceae - metabolism
Cell membranes
Cell Polarity
Electric conductance
Electric field effects
Electric Stimulation
Electricity
Electromagnetic wave polarization
Enzymes
Gravitational effects
Lepidium - growth & development
Lepidium - metabolism
Microgravity processing
Nitrogen - metabolism
Phosphorus - metabolism
Pisum sativum - growth & development
Pisum sativum - metabolism
Plant Roots - growth & development
Plant Roots - metabolism
Potassium - metabolism
Space Flight
Triticum - growth & development
Triticum - metabolism
Weightlessness
title Effect of artificial electric fields on plants grown under microgravity conditions
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