Shade Avoidance
The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include alte...
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| Published in | The New phytologist Vol. 179; no. 4; pp. 930 - 944 |
|---|---|
| Main Author | |
| Format | Journal Article |
| Language | English |
| Published |
Oxford, UK
Blackwell Publishing
01.09.2008
Blackwell Publishing Ltd |
| Subjects | |
| Online Access | Get full text |
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| Abstract | The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far-red wavelengths (low R: FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R: FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as 'the shade avoidance syndrome' and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. |
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| AbstractList | The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far‐red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as ‘the shade avoidance syndrome’ and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment.
Contents
Summary
930
I.
Introduction
931
II.
Shade avoidance responses
932
III.
Photoreceptor regulation of shade avoidance
932
IV.
Molecular mechanisms in shade avoidance signalling
934
V.
Crosstalk in shade avoidance signalling
939
VI.
Future perspectives
940
Acknowledgements
940
References
940 The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far-red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as 'the shade avoidance syndrome' and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. Summary930V.Crosstalk in shade avoidance signalling939I.Introduction931VI.Future perspectives940II.Shade avoidance responses932Acknowledgements940III.Photoreceptor regulation of shade avoidance932References940IV.Molecular mechanisms in shade avoidance signalling934The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far-red wavelengths (low R:FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R:FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as 'the shade avoidance syndrome' and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far‐red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as ‘the shade avoidance syndrome’ and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. Contents Summary 930 I. Introduction 931 II. Shade avoidance responses 932 III. Photoreceptor regulation of shade avoidance 932 IV. Molecular mechanisms in shade avoidance signalling 934 V. Crosstalk in shade avoidance signalling 939 VI. Future perspectives 940 Acknowledgements 940 References 940 The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far-red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as 'the shade avoidance syndrome' and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment.The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far-red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as 'the shade avoidance syndrome' and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. Contents Summary 930 V. Crosstalk in shade avoidance signalling 939 I. Introduction 931 VI. Future perspectives 940 II. Shade avoidance responses 932 Acknowledgements 940 III. Photoreceptor regulation of shade avoidance 932 References 940 IV. Molecular mechanisms in shade avoidance signalling 934 Summary The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading by neighbouring vegetation. When subject to vegetational shading, plants are exposed to a variety of informational signals, which include altered light quality and a reduction in light quantity. The former includes a decrease in the ratio of red to far‐red wavelengths (low R : FR) and is detected by the phytochrome family of plant photoreceptors. Monitoring of R : FR ratio can provide an early and unambiguous warning of the presence of competing vegetation, thereby evoking escape responses before plants are actually shaded. The molecular mechanisms underlying physiological responses to alterations in light quality have now started to emerge, with major roles suggested for the PIF (PHYTOCHROME INTERACTING FACTOR) and DELLA families of transcriptional regulators. Such studies suggest a complex interplay between endogenous and exogenous signals, mediated by multiple photoreceptors. The phenotypic similarities between physiological responses habitually referred to as ‘the shade avoidance syndrome’ and other abiotic stress responses suggest plants may integrate common signalling mechanisms to respond to multiple perturbations in their natural environment. |
| Author | Franklin, Keara A. |
| Author_xml | – sequence: 1 givenname: Keara A. surname: Franklin fullname: Franklin, Keara A. |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/18537892$$D View this record in MEDLINE/PubMed |
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| Snippet | The threat to plant survival presented by light limitation has driven the evolution of highly plastic adaptive strategies to either tolerate or avoid shading... Contents Summary 930 V. Crosstalk in shade avoidance signalling 939 I. Introduction 931 VI. Future perspectives 940 II. Shade avoidance responses 932... Summary930V.Crosstalk in shade avoidance signalling939I.Introduction931VI.Future perspectives940II.Shade avoidance... |
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| SubjectTerms | abiotic stress Adaptation, Physiological Arabidopsis - growth & development Arabidopsis - metabolism Arabidopsis - radiation effects Arabidopsis Proteins - metabolism Arabidopsis Proteins - physiology DELLA Developmental biology Ethylenes - metabolism evolution Flowering Gene expression regulation Genes Gibberellins Hypocotyls Indoleacetic Acids - metabolism Light light quality Models, Biological monitoring Phenotypes Photoreceptors Photosynthesis Photosynthetic Reaction Center Complex Proteins - physiology phytochrome PIF (PHYTOCHROME INTERACTING FACTOR) Plant growth regulators Plant Growth Regulators - metabolism Plant Growth Regulators - physiology Plants red to far‐red ratio (R : FR) shade shade avoidance Signal Transduction - radiation effects stress response Tansley Reviews Temperature transcription factors vegetation wavelengths |
| Title | Shade Avoidance |
| URI | https://www.jstor.org/stable/25150519 https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fj.1469-8137.2008.02507.x https://www.ncbi.nlm.nih.gov/pubmed/18537892 https://www.proquest.com/docview/21046476 https://www.proquest.com/docview/48040781 https://www.proquest.com/docview/69581530 |
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