Importance of pre‐anthesis anther sink strength for maintenance of grain number during reproductive stage water stress in wheat

ABSTRACT Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified gene...

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Published inPlant, cell and environment Vol. 33; no. 6; pp. 926 - 942
Main Authors JI, XUEMEI, SHIRAN, BEHROUZ, WAN, JIANLIN, LEWIS, DAVID C., JENKINS, COLIN L. D., CONDON, ANTHONY G., RICHARDS, RICHARD A., DOLFERUS, RUDY
Format Journal Article
LanguageEnglish
Published Oxford, UK Blackwell Publishing Ltd 01.06.2010
Blackwell
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Abstract ABSTRACT Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified genetic variability for drought tolerance at the reproductive stage. Drought‐tolerant wheat germplasm is able to maintain carbohydrate accumulation in the reproductive organs throughout the stress treatment. Starch depletion in the ovary of drought‐sensitive wheat is reversible upon re‐watering and cross‐pollination experiments indicate that the ovary is more resilient than the anther. The effect on anthers and pollen fertility is irreversible, suggesting that pollen sterility is the main cause of grain loss during drought conditions in wheat. The difference in storage carbohydrate accumulation in drought‐sensitive and drought‐tolerant wheat is correlated with differences in sugar profiles, cell wall invertase gene expression and expression of fructan biosynthesis genes in anther and ovary (sucrose : sucrose 1‐fructosyl‐transferase, 1‐SST; sucrose : fructan 6‐fructosyl‐transferase, 6‐SFT). Our results indicate that the ability to control and maintain sink strength and carbohydrate supply to anthers may be the key to maintaining pollen fertility and grain number in wheat and this mechanism may also provide protection against other abiotic stresses.
AbstractList ABSTRACT Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified genetic variability for drought tolerance at the reproductive stage. Drought‐tolerant wheat germplasm is able to maintain carbohydrate accumulation in the reproductive organs throughout the stress treatment. Starch depletion in the ovary of drought‐sensitive wheat is reversible upon re‐watering and cross‐pollination experiments indicate that the ovary is more resilient than the anther. The effect on anthers and pollen fertility is irreversible, suggesting that pollen sterility is the main cause of grain loss during drought conditions in wheat. The difference in storage carbohydrate accumulation in drought‐sensitive and drought‐tolerant wheat is correlated with differences in sugar profiles, cell wall invertase gene expression and expression of fructan biosynthesis genes in anther and ovary (sucrose : sucrose 1‐fructosyl‐transferase, 1‐SST; sucrose : fructan 6‐fructosyl‐transferase, 6‐SFT). Our results indicate that the ability to control and maintain sink strength and carbohydrate supply to anthers may be the key to maintaining pollen fertility and grain number in wheat and this mechanism may also provide protection against other abiotic stresses.
Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified genetic variability for drought tolerance at the reproductive stage. Drought-tolerant wheat germplasm is able to maintain carbohydrate accumulation in the reproductive organs throughout the stress treatment. Starch depletion in the ovary of drought-sensitive wheat is reversible upon re-watering and cross-pollination experiments indicate that the ovary is more resilient than the anther. The effect on anthers and pollen fertility is irreversible, suggesting that pollen sterility is the main cause of grain loss during drought conditions in wheat. The difference in storage carbohydrate accumulation in drought-sensitive and drought-tolerant wheat is correlated with differences in sugar profiles, cell wall invertase gene expression and expression of fructan biosynthesis genes in anther and ovary (sucrose : sucrose 1-fructosyl-transferase, 1-SST; sucrose : fructan 6-fructosyl-transferase, 6-SFT). Our results indicate that the ability to control and maintain sink strength and carbohydrate supply to anthers may be the key to maintaining pollen fertility and grain number in wheat and this mechanism may also provide protection against other abiotic stresses.
Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified genetic variability for drought tolerance at the reproductive stage. Drought-tolerant wheat germplasm is able to maintain carbohydrate accumulation in the reproductive organs throughout the stress treatment. Starch depletion in the ovary of drought-sensitive wheat is reversible upon re-watering and cross-pollination experiments indicate that the ovary is more resilient than the anther. The effect on anthers and pollen fertility is irreversible, suggesting that pollen sterility is the main cause of grain loss during drought conditions in wheat. The difference in storage carbohydrate accumulation in drought-sensitive and drought-tolerant wheat is correlated with differences in sugar profiles, cell wall invertase gene expression and expression of fructan biosynthesis genes in anther and ovary (sucrose : sucrose 1-fructosyl-transferase, 1-SST; sucrose : fructan 6-fructosyl-transferase, 6-SFT). Our results indicate that the ability to control and maintain sink strength and carbohydrate supply to anthers may be the key to maintaining pollen fertility and grain number in wheat and this mechanism may also provide protection against other abiotic stresses.Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young microspore stage of pollen development is characterized by abortion of pollen development and reduction in grain number. We identified genetic variability for drought tolerance at the reproductive stage. Drought-tolerant wheat germplasm is able to maintain carbohydrate accumulation in the reproductive organs throughout the stress treatment. Starch depletion in the ovary of drought-sensitive wheat is reversible upon re-watering and cross-pollination experiments indicate that the ovary is more resilient than the anther. The effect on anthers and pollen fertility is irreversible, suggesting that pollen sterility is the main cause of grain loss during drought conditions in wheat. The difference in storage carbohydrate accumulation in drought-sensitive and drought-tolerant wheat is correlated with differences in sugar profiles, cell wall invertase gene expression and expression of fructan biosynthesis genes in anther and ovary (sucrose : sucrose 1-fructosyl-transferase, 1-SST; sucrose : fructan 6-fructosyl-transferase, 6-SFT). Our results indicate that the ability to control and maintain sink strength and carbohydrate supply to anthers may be the key to maintaining pollen fertility and grain number in wheat and this mechanism may also provide protection against other abiotic stresses.
Author SHIRAN, BEHROUZ
DOLFERUS, RUDY
JENKINS, COLIN L. D.
LEWIS, DAVID C.
CONDON, ANTHONY G.
RICHARDS, RICHARD A.
WAN, JIANLIN
JI, XUEMEI
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  fullname: SHIRAN, BEHROUZ
– sequence: 3
  givenname: JIANLIN
  surname: WAN
  fullname: WAN, JIANLIN
– sequence: 4
  givenname: DAVID C.
  surname: LEWIS
  fullname: LEWIS, DAVID C.
– sequence: 5
  givenname: COLIN L. D.
  surname: JENKINS
  fullname: JENKINS, COLIN L. D.
– sequence: 6
  givenname: ANTHONY G.
  surname: CONDON
  fullname: CONDON, ANTHONY G.
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  givenname: RICHARD A.
  surname: RICHARDS
  fullname: RICHARDS, RICHARD A.
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  fullname: DOLFERUS, RUDY
BackLink http://pascal-francis.inist.fr/vibad/index.php?action=getRecordDetail&idt=22688153$$DView record in Pascal Francis
https://www.ncbi.nlm.nih.gov/pubmed/20199626$$D View this record in MEDLINE/PubMed
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Issue 6
Keywords Anther
Monocotyledones
β-Fructofuranosidase
Water stress
Cell wall
Germplasm
Triticum
Gramineae
Drought resistance
pollen sterility
Angiospermae
tapetum
Pollen
young microspore
Reproductive cycle
Grains
Reproductive stage
Enzyme
Plant ecology
Tolerance
cereals
Source sink relationship
Sterility
Glycosylases
cell wall invertase
Pre-anthesis
Glycosidases
Hydrolases
drought tolerance
Spermatophyta
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
CC BY 4.0
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Notes Present address: Jiangxi Academy of Agricultural Sciences, Nanchang, Jiangxi, China.
Present address: Faculty of Agriculture, Shahrekord University, P.O. Box 115, Shahrekord 8818634141, Iran.
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Snippet ABSTRACT Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the...
Reproductive stage water stress leads to spikelet sterility in wheat. Whereas drought stress at anthesis affects mainly grain size, stress at the young...
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SubjectTerms abortion (plants)
Adaptation, Physiological
beta-fructofuranosidase
Biological and medical sciences
Biological Transport
biosynthesis
cell wall invertase
cell walls
cereals
cross pollination
Dehydration
drought
drought tolerance
flowering
Flowers
Flowers - physiology
fructans
Fructans - metabolism
Fundamental and applied biological sciences. Psychology
gene expression
Gene Expression Regulation, Plant
genes
genetic variation
genetics
germplasm
growth & development
inflorescences
metabolism
Organ Size
physiology
plant ovary
pollen
pollen sterility
Pollination
Pollination - physiology
Reproduction
Reverse Transcriptase Polymerase Chain Reaction
Seeds
Seeds - growth & development
starch
Starch - metabolism
Stress, Physiological
sucrose
Sucrose - metabolism
tapetum
Triticum
Triticum - genetics
Triticum - growth & development
Triticum - physiology
water stress
wheat
young microspore
Title Importance of pre‐anthesis anther sink strength for maintenance of grain number during reproductive stage water stress in wheat
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fj.1365-3040.2010.02130.x
https://www.ncbi.nlm.nih.gov/pubmed/20199626
https://www.proquest.com/docview/733460463
https://www.proquest.com/docview/742700025
Volume 33
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