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A. Boland, P. Jerie, E. Maas (1997)
LONG-TERM EFFECTS OF SALINITY ON FRUIT TREES
L. Prior, A. Grieve, B. Cullis (1992)
Sodium chloride and soil texture interactions in irrigated field grown sultana grapevines. II. Plant mineral content, growth and physiologyCrop & Pasture Science, 43
Southey Southey, Jooste Jooste (1991)
The effect of grapevine root‐stock on the performance of Vitis vinifera L., (cv. Colombard) on a relatively saline soilSouth African Journal of Enology and Viticulture, 12
Barnard Barnard, Thomas Thomas (1932)
Fruit bud studies: 2. The sultana: differentiation and development of the fruit budsJournal for the Council for Scientific and Industrial Research, 5
J. Obbink, D. Alexander (1973)
Response of Six Grapevine Cultivars to a Range of Chloride ConcentrationsAmerican Journal of Enology and Viticulture
Hoffman Hoffman, Catlin Catlin, Mead Mead, Johnson Johnson, Francois Francois, Goldhamer Goldhamer (1989)
Yield and foliar injury response of mature plum trees to salinityIrrigation Research, 10
R. Walker, P. Read, D. Blackmore (2000)
Rootstock and salinity effects on rates of berry maturation, ion accumulation and colour development in Shiraz grapes.Australian Journal of Grape and Wine Research, 6
Bernstein Bernstein, Ehlig Ehlig, Clark Clark (1969)
Effect of grape root‐stocks on chloride accumulation in leavesJournal of the American Society for Horticulture Science, 94
Maas Maas, Hoffman Hoffman (1977)
Crop salt‐tolerance ‐ current assessmentJournal of the Irrigation and Drainage Division of the American Society of Civil Engineers, 103
E. Feinerman, D. Yaron, H. Bielorai (1982)
Linear crop response functions to soil salinity with a threshold salinity levelWater Resources Research, 18
W. Downton (1977)
Chloride accumulation in different species of grapevineScientia Horticulturae, 7
Downton Downton (1985)
Growth and mineral composition of the Sultana grapevine as influenced by salinity and rootstocksAustralian Journal of Agricultural Research, 36
D. West, J. Taylor (1984)
Response of Six Grape Cultivars to the Combined Effects of High Salinity and Rootzone WaterloggingJournal of the American Society for Horticultural Science
L. Prior, A. Grieve, B. Cullis (1992)
Sodium Chloride and Soil Texture Interactions in Irrigated Field Grown Sultana Grapevines, I. Yield and Fruit QualityCrop & Pasture Science, 43
R. Walker, D. Blackmore, P. Clingeleffer, R. Correll (2002)
Rootstock effects on salt tolerance of irrigated field-grown grapevines (Vitis vinifera L. cv. Sultana): 1. Yield and vigour inter-relationshipsAustralian Journal of Grape and Wine Research, 8
D. Marquardt (1963)
An Algorithm for Least-Squares Estimation of Nonlinear ParametersJournal of The Society for Industrial and Applied Mathematics, 11
R. Stevens, G. Harvey, D. Partington, B. Coombe (1999)
Irrigation of grapevines with saline water at different growth stages. 1. Effects on soil, vegetative growth, and yieldCrop & Pasture Science, 50
L. Prior, A. Grieve, P. Slavich, B. Cullis (1992)
Sodium chloride and soil texture interactions in irrigated field grown sultana grapevines. III. Soil and root system effectsCrop & Pasture Science, 43
Prior Prior, Grieve Grieve, Cullis Cullis (1992b)
Sodium chloride and soil texture interactions in irrigated field grown Sultana grapevines II. Plant mineral content, growth and physiologyAustralian Journal of Agricultural Research, 43
M. Genuchten, G. Hoffman, R. Hanks, A. Meiri, J. Shalhevet, U. Kafkafi (1984)
Management Aspect for Crop Production
M. Genuchten, S. Gupta (1993)
A Reassessment of the Crop Tolerance Response FunctionJournal of the Indian Society of Soil Science, 41
S. Gupta, S. Sharma (1990)
Response of crops to high exchangeable sodium percentageIrrigation Science, 11
Bernstein Bernstein, Brown Brown, Hayward Hayward (1956)
The influence of rootstock on growth and salt accumulation in stone‐fruit trees and almondsProceedings of the American Society for Horticultural Science, 68
Prior Prior, Grieve Grieve, Cullis Cullis (1992a)
Sodium chloride and soil texture interactions in irrigated field grown Sultana grapevines I. Yield and fruit qualityAustralian Journal of Agricultural Research, 43
R. Walker (1994)
Grapevine responses to salinity, 67
Stevens Stevens, Harvey Harvey, Partington Partington, Coombe Coombe (1999)
Irrigation of grapevines with saline water at different growth stages. I. Effects on soil, vegetative growth and yieldAustralian Journal of Agricultural Research, 50
Walker Walker (1994)
Grapevine responses to salinity (Réaction de la vigne à la salinité)Bulletin de l'OIV, 67
Prior Prior, Grieve Grieve, Slavich Slavich, Cullis Cullis (1992c)
Sodium chloride and soil texture interactions in irrigated field grown Sultana grapevines III. Soil and roots system effectsAustralian Journal of Agricultural Research, 43
W. Downton (1985)
Growth and mineral composition of the sultana grapevine as influenced by salinity and rootstockCrop & Pasture Science, 36
Three data sets derived from 5– or 6‐year field experiments at Merbein (Victoria), Dareton (New South Wales) and Loxton (South Australia) were used to assess the relationship between yield of own‐rooted or grafted grapevines and electrical conductivity of the saturated soil paste extract (ECe). This involved a non‐linear least squares fit method to determine the threshold of ECe at which yield begins to decline and the slope of the yield reduction with increasing ECe above that threshold. Threshold and slope are the two key parameters in this piece wise linear model of grapevine response to salinity. The soil ECe values were integrated to take account of both spatial and temporal variation in soil salinity within the profile. The ECe threshold for own‐rooted Sultana at Merbein in the Sunraysia region was found to be 2.3 0.2 dS/m and the slope of yield reduction above the threshold was 8.9 1.2 % per 1 dS/m increase in soil ECe. At Dareton, a similar threshold of 2.1 0.3 dS/m was found for own‐rooted Sultana, however the higher slope of the yield reduction (15.0 2.0 %) relative to the same vines at Merbein may have been related to the higher sodium adsorption ratio (SAR) in irrigation water and its impacts on soil physical properties, especially in that part of the vineyard with a heavier soil type. The rootstock Ramsey resulted in a threshold of 3.3 0.2 dS/m and slope of 5.7 0.4% with the scion Colombard at Loxton, indicating a more tolerant combination of scion‐rootstock to salinity. The rootstocks 1103 Paulsen and R2 with Sultana as scion were the most salt tolerant, with no discernible yield reduction until ECe exceeded about 4 dS/m. Of four other rootstocks with Sultana as scion, compared with own‐rooted Sultana, J17–69, and R4 had similar threshold values (2.3 0.2 and 2.5 0.2 dS/m) and slopes of yield reduction (10.1 1.9 % and 8.0 0.5 %, respectively), while R1 had a similar threshold of 1.8 0.2 dS/m but a lower slope of yield reduction (4.3 0.9 %) than Sultana on own roots and R3, J17–69, R1 and R4 rootstocks. Comparatively, R3 rootstock responded differently by way of a higher threshold of 3.0 0.2 dS/m than own‐rooted Sultana and J17–69 and R1 rootstocks and a higher slope of yield reduction of 12.4 1.0 % relative to Sultana on own roots and R4 and R1 rootstocks. Based on our long‐term studies of yield‐salinity relationships on contrasting sites, the pre‐eminence of certain rootstocks in conferring tolerance to soil salinity has been confirmed. Ramsey, 1103 Paulsen, and a new hybrid designated here as R3 were generally outstanding, with Ramsey varying only slightly in its comparative effectiveness when grafted to different scion varieties. An overall interaction between scion variety and rootstock genotype was thus evident in the form of yield‐salinity relationships.
Australian Journal of Grape and Wine Research – Wiley
Published: Oct 1, 2002
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