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Web URL(s): | http://www.sciencedirect.com/science/article/pii/S00652113605167 Last checked: 09/24/2015 Notes: Item is within a limited access website |
Publication Type:
| Refereed |
Author(s): | Duncan, R. R.;
Carrow, R. N. |
Author Affiliation: | Department of Crop and Soi Sciences, University of Georgia at Griffin, Griffin, Georgia |
Title: | Turfgrass molecular genetic improvement for abiotic/edaphic stress resistance |
Source: | Advances in Agronomy. Vol. 67, 1999, p. 233-305. |
Publishing Information: | New York, Academic Press |
# of Pages: | 73 |
Keywords: | TIC Keywords: Genetic engineering; Molecular genetics; Genetic resistance; Genetic factors; Breeding improvement; Adaptation; Environmental stress; Drought resistance; Heat resistance; Cold resistance; Temperature stress; Temperature resistance; Soil salinity; Salt tolerance; Soil alkalinity; Bulk density; Oxygen deprivation; Light intensity; Shade resistance; Nutrient efficiency ratio; Nitrogen efficiency; Edaphic stress; Stress; Resistance; Water stress; Heat stress; Cold stress; Salt stress; Soil acidity; Alkaline soils; Soil strength; Oxygen; Shade stress; Nutrient availability; Endophytes; Cultural methods
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Abstract/Contents: | "Perennial grasses will always be subjected to fluctuating multiple stresses. Traditional breeding programs can address specific environmental constraints and, as mechanisms governing stress response become better understood, these programs can focus on specific components of these mechanisms. Gene technology provides an enhancement strategy for these traditional breeding approaches. An increasing number of genes are being identified, sequenced, and cloned. Transformation and regeneration technology is available for implementation into turfgrass stress resistance programs. With the release of new 'biotech' turf cultivars in the twenty-first century, management strategies will have to be adjusted to maximize performance and persistence. Enhanced abiotic/edaphic stress tolerance in turf will provide: 1. Improvements in performance under environmental extremes; 2. Functional root systems that perform equally well in stressed and non-stressed environments; 3. Improved water use efficiency; 4. Improved nutrient uptake/utilization efficiency; 5. Better adapted cultivars for niche environments; 6. More high-quality and environmentally compatible turfgrasses under abiotic/edaphic stressed conditions." |
Language: | English |
References: | 479 |
See Also: | Other items relating to: SALTT
Other items relating to: Breeding for Drought |
Note: | Figures Tables Graphs |
| ASA/CSSA/SSSA Citation (Crop Science-Like - may be incomplete): Duncan, R. R., and R. N. Carrow. 1999. Turfgrass molecular genetic improvement for abiotic/edaphic stress resistance. Adv. Agron. 67:p. 233-305. |
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| Web URL(s): http://www.sciencedirect.com/science/article/pii/S00652113605167 Last checked: 09/24/2015 Notes: Item is within a limited access website |
| MSU catalog number: b2208398a |
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