Ion exchange properties of roots and ionic interactions within the root apoplasm: Their role in ion accumulation by plants

The Botanical Review

Volumn 46, Issue 1, 1980, Pages 75-99

  Haynes, R J ^a  

^a LINCOLN UNIVERSITY   (New Zealand)

Author keywords

[No Author keywords available]

Indexed keywords

EID: 0002984212     PISSN: 00068101     EISSN: 18749372     Source Type: Journal    
DOI: 10.1007/BF02860867     Document Type: Article

References (138)

1. Transport through roots
2. The influence of aluminum on phosphate sorption by whole plants and excised roots of some pasture legumes
3. The influence of temperature, pH, and metabolic inhibitors on uptake of lead by plant roots
4. The cation exchange capacity of plant roots, and its relationship to the uptake of insoluble nutrients
5. Ion transport—Introduction and general principles
6. Diffusion and absorption of ions in plant tissue. III. The role of the root cortex cells in ion absorption
7. Uptake of dinitrophenol and its effect on transpiration and calcium accumulation in barley seedlings
8. The relationship between metabolism and exchangeability of ions in plant tissues
9. The initial uptake of ions by barley roots. III. The uptake of cations
10. Uptake and distribution of mercury within higher plants
11. Iron localization in pea plants
12. Some aspects of free space in plant tissues
13. Diffusion and exchangeable rubidium ions in pea roots
14. Some aspects of lead in plant nutrition
15. Uptake of phosphate and sulphate by wheat roots at low temperature
16. The study of the rhizosphere by scanning electron microscopy
17. The effect of aluminum on uptake and metabolism of phosphorus by barley seedlings
18. Interactions between aluminum and phosphorus on root surfaces and cell wall material
19. The endodermis, its structural development and physiological role
20. Inhibition of the uptake and long-distance transport of calcium by aluminum and other polyvalent cations
21. The endodermis and its development in barley roots as related to radial migration of ions and water
22. Sites of absorption and translocation of iron in barley roots. Tracer and microautoradiographic studies
23. Ion uptake and root age
24. Effect of calcium on the potassium flux into the exudate of excised maize roots
25. Fibrillar, modified polygalacturonic acid in, on, and between plant cell walls
26. The measurement of the cation-exchange capacity of plant roots
27. An evaluation of published data on the mineral composition of plants in the light of cation-exchange capacities of their roots
28. Root cation exchange capacity and organic acid content of tops as indices of varietal yield
29. Cation-exchange capacity and pectin gradients in leek root segments
30. Influence of competition between root colloids for cations on K/Ca ratio in plant tops
31. The electrical double layer and Donnan equilibrium in relation to plant cell walls
32. Electrochemical gradients and K+ and Cl− fluxes in excised corn roots
33. Studies on the mucilaginous layer of barley (Hordeum vulgare) roots
34. Action rapide des solutions salines sur les plantes vivantes: Deplacement reversible d’une partie des substances basiques contenues dans la plante
35. Solubilization of soil and rock phosphate as related to root cation exchange capacity
36. Cation exchange capacity of plant roots
37. Effect of metabolic inhibitors and temperature on uptake and translocation of45Ca and42K by intact bean plants
38. The effect of several enzymes on cation exchange in roots
39. Cation exchange in plant roots
40. Cation exchange properties of the roots of some ornamental plant species
41. Effect of exchange capacity of clay mineral and acidoid content of plant on uptake of sodium and calcium by excised barley and pea roots
42. Ion transport and endodermal suberization in the roots of Zea mays
43. Ion uptake in relation to development of a root hypodermis
44. Effect of adsorbed cations on phosphorus uptake by excised roots
45. Effect of adsorbed cations on phosphorus absorption by various plant species
46. Cation effects on chloride, sulphate, and phosphate uptake by excised roots
47. Capacité d’échange de cations des systèmes radiculaires et des sols et leurs relations avec l’alimentation minérale
48. De la manière de fonctionnement de l’adsorbant radiculaire des plantes
49. The absorption of lead and copper by roots of Hordeum vulgare
50. Potassium competition in grass-legume associations as a function of root cation exchange capacity
51. Relationships between structural development and the absorption of ions by the root system of Cucurbita pepo
52. Ammonium and nitrate nutrition of plants
53. Studies on cation-exchange capacities of roots
54. Mineral ion content and cell electropotentials of pea and oat seedling tissue
55. The role of calcium in the absorption of anions and cations by excised barley roots
56. Possible relationship of cation exchange capacity of plant roots to cation uptake
57. Nature of the calcium effect in phosphate uptake by barley roots
58. Metabolism-linked binding of rubidium in the free space of wheat roots and its relation to active uptake
59. Apparent free space and surface film determined by a centrifugation method
60. Non-metabolic uptake of ions by barley roots
61. Copper uptake and accumulation by perennial ryegrass grown in soil and solution culture
62. Uptake and transport of lead by perennial ryegrass from flowing solution culture with a controlled concentration of lead
63. Cadmium uptake from solution by plants and its transport from roots to shoots
64. Two-phase studies on availability of iron in calcareous soils. V. Kinetics of iron transfer as conditioned by ion exchange capacities and structure of roots
65. Pathways of ions from soil into root according to diffusion models
66. Root-soil boundary zones as seen in the electron microscope
67. Cation interchange between plant roots and soil colloids
68. Calcium uptake and transport by wheat seedlings as affected by aluminum
69. Variations in fertilizer response of different varieties of wheat and rice
70. Kationenaustauschkapazitat und Pektingehalt von Pflanzenwurzeln
71. Cation-exchange capacities of tissues of higher and lower plants and their related uronic acid contents
72. The content exchange theory amended
73. Apoplasmic transport in tissues
74. Exchange acidity of wheat and pea roots in salt solutions
75. Calcium activation of orthophosphate absorption by barley roots
76. Rhizoplane fibrils in wheat: demonstration and derivation
77. The aggregation of wheat rhizoplane fibrils and the accumulation of soil-bound cations
78. The significance of “Apparent Free Space” (A.F.S.) in ion absorption
79. Cortical cell fluxes and transport to the stele in excised root segments of Allium cepa L. I. Potassium, sodium and chloride
80. Cortical cell fluxes and transport to the stele in excised root segments of Allium cepa L. II. Calcium
81. Cortical cell fluxes and transport to the stele in excised root segments of Allium cepa L. III. Magnesium
82. The ionic relationships of soil and plant
83. Observations on ectodesmata and the virus infection process
84. Dynamic studies on nutrient uptake by crop plants. X. Contact solutional uptake of fused magnesium phosphate (phosphorus 32) by acidoidal plant root and unsaturated soil colloid
85. Uptake of calcium by excised barley roots
86. Interspecific differences in strontium uptake by pasture plants as a function of root cation-exchange capacity
87. Competition for nutrients between grasses and white clover. II. Effect of root cation-exchange capacity and rate of emergence of associated species
88. The caparian strip as a barrier to the movement of Lanthanum on corn roots
89. Uptake mechanisms: inorganic and organic
90. The relation between the radius of the root and its nutrient absorbing power (a)
91. Mucilages at the root surface
92. Labile-bound sulphate in wheat roots: Localization, nature and possible connection to active absorption mechanism
93. The distribution of zinc-65 in Agrostis tenuis Sibth. and A. stolonifera L. tissues
94. Ion absorption in young sunflower plants. II. The sulphate uptake in the apparent free space
95. Active and passive components of sulphate uptake in sunflower plants
96. A labile-bound component of phosphate in free space of sunflower plant roots
97. Effects of ionic strength of nutrient solutions on phosphate uptake by sunflower
98. The effect of divalent cations on the uptake of salt by beetroot tissue
99. The location of the Donnan free space in disks of beetroot tissue
100. Sodium and potassium uptake by seedlings of Hordeum vulgare
101. Cation exchange capacity of roots and yield potential in sugar cane
102. Mechanisms of zinc in bean (Phaseolus vulgaris) tissues
103. H+ and Ca2+ in phloem and symplast: relation of relative immobility of the ions to the cytoplasmic nature of the transport paths
104. Cs, K and Ca transport in two different species
105. Calcium stimulation of phosphate absorption by annual legumes
106. The structure of barley roots in relation to the transport of ions into the stele
107. Uptake and binding of uranyl ions by barley roots
108. Active accumulation of sodium by roots of five aquatic species
109. The initial uptake of ions by barley roots. I. Uptake of anions
110. H+ transport and regulation of cell pH
111. Cation exchange capacity of roots and its relation to calcium and potassium content of plants
112. Influence of nitrogen fertilization, cation concentration and root cation exchange capacity on calcium and potassium uptake by plants
113. A comparison of chloride and potassium fluxes in red beet tissue
114. Water pathways in higher plants. II. Water pathways in roots
115. The subcellular distribution of zinc and copper within the roots of metal tolerant clones of Agrostis tenuis Sibth
116. The accumulation of65Zn by root homogenates of zinctolerant clones of Agrostis tenuis Sibth
117. The symplast concept. A general theory of symplastic transport according to the thermodynamics of irreversible processes
118. On the function of apparent free space in plant roots. A study of the absorbing power of epidermal and cortical cells in barley roots
119. Calcium and other polyvalent cations as accelerators of ion accumulation by excised barley roots
120. A specific Ca requirement for potassium uptake by excised vetch roots
121. Nature and magnitude of calcium uptake by excised roots of vetch and barley
122. Sur les relations entre l’adsorption radicellaire préférentielle et l’absorption sélective de Ca, Mg, K et Na, chez diverses populations d’Anagallis arvensis L. et d’autres espèces
123. Physico-chemical selectivity for cations and CEC of grass roots
124. Interrelationships among root CEC, yield and monoand divalent cations in coconut (Cocus nucifera L.)
125. Uptake of ions by plants growing in soil
126. Die Permeation von Ionen als Bewegung durch eine electrostatishe Barriere
127. Mikroautoradiographische Untersuchungen über die Aufnahme von35SO42− durch Wurzeln von Zea mays L. Die Funktion der primaren Endodermis
128. Pinocytosis and membrane dilation in uranyl-treated plant roots
129. The uptake of cations by Vallisneria leaves