| RiMsn2 |
enhances |
plant tolerance to drought stress |
|
| RiMsn2 |
regulates |
STRE-controlled genes from R. irregularis |
Rhizophagus irregularis |
| dryland ecosystems |
are composed of |
diverse biological strategies for dealing with water stress |
|
| differences between plant and air temperature |
can be used to infer |
plant water stress |
|
| These comparisons |
were true across |
seasonal or drought-induced soil moisture variation |
|
| stomatal closure |
minimizes |
water loss |
|
| CaDeSI2 |
modulates |
CaAITP1 protein in plant cells during drought stress |
Capsicum annuum |
| leaf δ13C |
can be immediately affected by |
droughts |
|
| this study |
aimed to identify |
cause of sensitivity of C4 assimilation to dehydration |
|
| dephosphorylated BpMADS11 |
plays a key role in |
drought tolerance conferred by BpMADS11 |
Betula pendula |
| dephosphorylation of BpMADS11 |
plays a role in |
drought tolerance |
Betula pendula |
| BpPP2C22 knockout |
resulted in BpMADS11 maintaining its |
phosphorylated state |
Betula pendula |
| silencing of RiMsn2 |
can influence |
expression levels of drought stress-responsive genes in Rhizophagus irregularis |
Rhizophagus irregularis; Medicago truncatula |
| difference in resistance to dehydration between poplar and lavender |
may explain |
difference in (PLD, PLDALPHA1, AT3G15730) lethal values between species |
|
| seedlings |
are less drought resistant than |
adults |
|
| drought stress |
induces |
CaOSR1 expression |
Capsicum annuum |
| treating sapwood capacitance (CS) as constant in models |
may overestimate |
buffering capacity under drought conditions |
|
| BpERF61 overexpression lines (BpERF61-OE5, BpERF61-OE6, BpERF61-OE7) |
suffer lowest degree of damage from |
dehydration |
Betula pendula |
| plant–plant interactions |
can exacerbate |
hot drought impacts |
|
| ANNEXIN 1 (ANN1, ANNAT1, AtANN1, ATOXY5, OXY5, AT1G35720) |
was found to be important for |
drought tolerance |
Arabidopsis thaliana |
| fET GLDAS |
displays several tails that decrease linearly with progressing CWD at |
medium fET sites |
|
| (PAC, AT2G48120) treatment plants |
show recovery rate of |
100% |
|
| Arabidopsis thaliana plants |
divided into |
Water, Semi-drought, and Drought groups |
Arabidopsis thaliana |
| apoplastic water potential drops more than xylem water potential and leaf water potential |
as xylem potential decreases to |
turgor loss point |
|
| dehydration |
causes subsequent increase in |
CaDeSI2 expression |
Capsicum annuum |
| BpERF61 |
mainly binds to |
three other kinds of motifs |
Betula pendula |
| 35S:PYL4 A194T transgenic plants |
showed enhanced drought resistance compared with |
nontransformed or 35S:PYL4 plants |
|
| (PAC, AT2G48120) concentration |
has concentration-dependent effect on |
PAC-enhancing drought tolerance |
|
| IbBBX24 |
enhances |
plant tolerance to drought stress |
Ipomoea batatas |
| greater proportion of bark in WL trees compared with WW and LL trees |
may contribute to |
difference in (PLD, PLDALPHA1, AT3G15730) lethal |
|
| flash-drought event |
causes only slight change in |
respiration rate (R) |
Betula pendula Roth |
| tree populations |
may be at risk of |
population declines with increased aridity |
|
| BpMADS11 |
regulates expression of |
BpERF61 |
Betula platyphylla |
| BpERF61 |
binds to DNA motif (GGGCCCC) to regulate |
drought stress-related genes |
Betula platyphylla |
| (FAR1, AT5G22500) (FAR-RED IMPAIRED RESPONSE 1) |
confers |
increased resistance to drought |
|
| (ATAZG1, AZG1, AT3G10960) |
does not confer |
sensitivity to drought |
Arabidopsis thaliana |
| (LGO, SMR1, AT3G10525) and (SMR5, AT1G07500) induction |
occurs under |
mild drought stress |
Arabidopsis thaliana |
| GintAQPF1 and GintAQPF2 |
respond to |
drought stress |
Rhizophagus irregularis |
| stomatal conductance |
were measured |
drought stress response |
Populus |
| CaSnRK2.6 |
is substrate of |
(AtUBP12, UBP12, AT5G06600) /13 |
Arabidopsis thaliana |
| semi-dwarf varieties |
typically do not outperform |
taller counterparts under drought |
|
| drought-stressed sunflowers |
show increased |
macroporosity in the rhizosheath |
Helianthus annuus |
| preserved rhizodeposition |
mitigates |
drought effects on the microbial community |
|
| RcOST1L overexpression line (RcOST1L-OE) |
shows better performance in |
drought tolerance |
Arabidopsis thaliana |
| AM and ECM trees |
may differ in their sensitivities to |
water stress |
|
| delayed mortality |
is hard to attribute to |
climate due to its delayed onset which depends on carbon storage filling prior drought and uncertain carbon use strategies which differ among tree species |
|
| Ri14-3-3 |
is significantly enhanced under |
severe drought conditions |
Medicago truncatula; Rhizophagus irregularis |
| abscisic acid (ABA) levels in leaves |
were shown to be relatively constant and only to substantially increase during |
repeated drought stress cycles |
|
| root barrier to radial O2 loss (ROL) |
is possibly of importance as |
drought tolerance trait |
|
| RiMsn2 and drought-responsive genes |
positively respond to |
drought stress during AM symbiosis |
Medicago truncatula; Rhizophagus irregularis |
| RiMsn2 knockdown through VIGS and HIGS |
resulted in significant decreases in |
relative water content (RWC) in mycorrhizal plants |
Medicago truncatula; Rhizophagus irregularis |
| RiMsn2 knock-down |
results in |
decreased plant tolerance to drought stress |
Rhizophagus irregularis |
| reducing stomatal conductance (gs) |
is one of the first responses of plants to |
high vapor pressure deficit (VPD) and drying soil |
Pinus sylvestris |
| drought |
causes |
biochemical responses |
|
| WL and LL trees |
showed the greatest difference in |
(PLD, PLDALPHA1, AT3G15730) lethal values |
|
| soil desiccation |
affects |
nutrient and water uptake |
|
| labile C inputs into the soil via rhizodeposition |
can increase in response to |
drought |
|
| drought |
did not affect |
transition traits |
Conyza canadensis |
| BpERF61 |
binds to DNA motif (TTGGAT) to regulate |
drought stress-related genes |
Betula platyphylla |
| SLR1-TAD1-PYLs module |
coordinates |
growth and survival during drought response |
Oryza sativa |
| inhibited GA accumulation |
contributes to |
rice survival under drought stress |
|
| all plots |
showed reduced gas exchange through most of |
2021 |
Pinus edulis |
| electrolyte leakage |
were measured |
drought stress response |
Populus |
| C4 plants |
are |
superb drought avoiders |
|
| sensitivity or elasticity |
quantifies |
reciprocal of tolerance |
|
| growth repression and yield reduction |
deliver more energy to |
stress response |
|
| (PYL9, RCAR1, AT1G01360) (PYL10, RCAR4, AT4G27920) slr1-d1 mutant |
restored survival rate to |
wild-type background levels |
|
| WL trees |
had higher PLD lethal value compared with |
WW and LL trees |
|
| Scots pine |
is known to suffer from |
drought |
Pinus sylvestris |
| (TOL2, AT1G06210) /3/5/6 quadruple mutant plant line |
is significantly more |
drought-tolerant |
|
| growing trees on oceanic island in Japan |
frequently receive |
tree drought-induced mortality |
|
| rapid dehydration |
caused nonstomatal limitation to rise three times more steeply in |
C4 maize and sorghum |
|
| BpERF61 |
regulates expression of |
drought tolerance-related genes |
Betula pendula |
| bpmads11 knockout lines (bpmads11#-3, bpmads11#-5, bpmads11#-10) |
show significantly increased |
H2O2 content |
Betula pendula |
| stomatal closure before embolism formation |
has been theoretically advanced as another fundamental component of |
plant drought tolerance |
|
| MdMYB88 |
slightly induced by |
simulated drought in roots of M. sieversii |
Malus sieversii |
| (ATVAMP711, VAMP711, AT4G32150) deletion mutant |
shows slower |
stomatal closure in response to drought stress |
Arabidopsis thaliana |
| ost2-2D-OE-VAMP711-1#/2# transgenic lines |
display phenotype similar to |
ost2-2D-OE-VAMP711 plants |
Arabidopsis thaliana |
| HVA22P:CBF3 transgenic families |
shows significantly higher |
relative yield (RY) |
Oryza sativa |
| HVA22P:CBF3 transgenic families |
shows significantly higher RY than |
wild-type (WT) |
Oryza sativa |
| Actin1:LOS5 transgenic families |
shows significantly higher |
relative yield (RY) |
Oryza sativa |
| constitutive and/or inducible overexpression of (ATCBF3, CBF3, DREB1A, AT4G25480) |
conferred |
drought resistance |
|
| constitutive and/or inducible overexpression of (ABA3, ACI2, ATABA3, AtLOS5, GIN5, LOS5, SIR3, AT1G16540) |
conferred |
drought resistance |
|
| (ATTSPO, TSPO, AT2G47770) expression and activity |
increase in response to |
water stress or ABA treatment |
Physcomitrella patens |
| DRE-like elements |
have been found in |
5' sequences upstream of dehydration-induced genes |
Physcomitrella patens |
| aridity index exerted negative effects on root N concentrations |
implying plant root growth and N uptake are inhibited by |
drought conditions |
woody plant species |
| reductions in water availability |
affects |
rice yields |
Oryza sativa |
| reduced crop water loss |
leads to |
better drought avoidance |
|
| medium to high stomatal density (SD) varieties (IR-64, HATRI-61, Bharathy, C-7306) |
perform better than |
low stomatal density varieties under drought stress |
Oryza sativa |
| reduced stomatal density (SD) and stomatal conductance (g sw) |
improved |
drought tolerance |
Oryza sativa |
| RiMsn2 |
may regulate |
downstream drought stress-responsive genes in Rhizophagus irregularis |
Rhizophagus irregularis |
| mechanism of nutrient stress enhancing tree mortality |
has been rarely addressed in |
tropical systems |
|
| mycorrhizal associations |
can facilitate |
land plants to mitigate drought stress |
|
| RiMsn2 |
binds to |
STRE elements of drought-responsive genes |
Rhizophagus irregularis |
| seedlings after dehydration 2 h (D2h) |
identified |
1320 upregulated genes |
|
| seedlings after dehydration 4 h (D4h) |
compared with D2h identified |
3941 upregulated genes |
|
| slr1-d1 mutants |
have slower water loss rate than |
wild-type (WT) |
|
| extreme short-term drought manipulation |
applied to |
mature piñon |
Pinus edulis |
| CmBBX19 |
physically interacts with |
CmABF3 |
Chrysanthemum morifolium |
| complete disconnection of the vascular bundle from the photosynthetic tissue of lycopods during drought |
is analogous behavior to |
transfusion tracheid collapse |
|
| comparative field studies by Taylor et al. (2014) |
found C4 species experienced water limitation in correspondence to |
midday depressions of leaf water potential (ΨL) |
|
| BpERF61 |
regulates |
drought stress genes |
Betula pendula |
| drought tolerance-related genes |
enhance |
drought tolerance |
Betula pendula |
| nutrient stress |
was found to enhance |
tree mortality after droughts |
|
| high levels of biodiversity, interactions among species, trait plasticity, and variation in species' relative abundance |
make difficult |
characterisation of community-level hydraulic vulnerability of tropical rainforests |
|
| savannah and grassland sites |
exhibit |
rapid declines of fET to 10% of water-unlimited rate |
|
| differences between plant and air temperature |
have been used to assess |
plant moisture stress |
|
| leaves with declining xylem water potential and declining leaf water potential |
show no signs of |
macroscopic loss of turgor |
|
| saplings of a hybrid poplar grown under well-watered (WW), water-limited (WL), or light-limited (LL) conditions |
were exposed to |
a severe drought |
Populus species (hybrid poplar) |
| drought |
affected |
functional traits |
Conyza canadensis |
| (TOL2, AT1G06210) /3/5/6 mutant |
shows |
clear drought tolerance |
Arabidopsis thaliana |
| leaf δ 13 C decrease |
indicates |
less drought stress |
|
| tree diversity experiments |
experienced |
extreme natural drought event in 2018 |
|
| leaf hydraulic conductance under high irradiance |
may be more vulnerable to dehydration (lower safety) |
dehydration vulnerability |
|
| vapor pressure deficit (VPD) |
is a significant independent predictor of |
Kmax (leaf hydraulic efficiency) |
|
| modest dips in leaf water potential (ΨL) |
did not trigger |
stress indicators in C3 plants |
|
| (AtPYL4, PYL4, RCAR10, AT2G38310) OE lines |
showed survival of around 30% after |
drought stress |
Arabidopsis thaliana |
| growth in semi-dwarf genotypes under drought |
may not prioritize |
reproductive parts |
|
| aridity gradient |
affects |
Δ performance |
Conyza canadensis |
| drought |
had weaker effects in |
recruitment life stage |
Conyza canadensis |
| Capsicum annuum DeSUMOylating Isopeptidase 2 (CaDeSI2) |
influences |
drought responses of pepper |
Capsicum annuum |
| pan-European 2018 summer drought |
impacted |
forest ecosystems |
|
| tree species richness |
increases leaf δ15N under |
high drought intensity |
|
| BpERF61 knockout |
exhibits decreased |
drought tolerance |
Betula platyphylla |
| drought resistance experiments under greenhouse conditions |
performed |
to test plant survival under drought stress |
Arabidopsis thaliana |
| (AtATL78, ATL78, PRU2, AT1G49230) |
is a positive regulator of |
drought stress response |
Arabidopsis thaliana |
| percentage loss of branch diameter (PLD) |
is a result of |
decrease in branch diameter during the drought relative to the maximum diameter of the branch before dehydration |
|
| drought stress |
decouples |
enzyme activity |
|
| water potential |
decreases during |
drought |
|
| TRV2:CaDeSI2/TRV2:CaAITP1 plants |
show survival almost as high as |
TRV2:CaAITP1 plants |
Capsicum annuum |
| decrease of CaDeSI2 gene expression during early dehydration/PEG exposure |
may be mediated via |
ABA-independent pathway |
Capsicum annuum |
| MpPUB9 gene expression levels |
increased precipitously under |
drought treatment |
Marchantia polymorpha |
| natural field conditions across a transect in Western China |
showed five C4 Amaranthaceae species had greater depression of photosynthesis due to water limitation compared to |
C3 neighbours |
|
| BpERF61 binding to different DNA motifs |
improves |
birch drought tolerance |
Betula pendula |
| 15-d-old seedlings submitted to dehydration for 12 h in a laminar flow hood, followed by rehydration |
used to measure |
survival rate 3 d afterward |
Arabidopsis thaliana |
| other barley lines |
senesced and gave |
lower yields |
Hordeum vulgare |
| reduced metabolic demand for root growth |
is particularly important under |
water stress |
Zea mays |
| water deficit |
reduced stomatal conductance in transgenic plants to |
25% to 29% of control conditions |
Hordeum vulgare |
| MdVND6 and MdMYB46 target genes |
expression is influenced under |
drought conditions |
Malus × domestica |
| T2 transgenic families |
were selected for |
drought resistance re-testing |
|
| (AtHPR1, AtTHO1, HPR1, RAE3, THO1, AT5G09860) expression |
was not inducible under |
all types of drought-imposed conditions such as desiccation of plants on filter paper |
Arabidopsis thaliana |
| drought |
causes need for |
cellular architecture reconstruction |
|
| hydrophilic, disordered regions spanning the length of LEAs |
are thought to fold upon water loss into |
amphipathic alpha-helices that stabilize cellular membranes |
|
| plants |
have evolved |
sophisticated mechanisms to cope with drought stress |
|
| extreme drought |
may cause |
drought-induced embolism in tropical French Guiana |
|
| GLDAS |
overestimates |
water stress |
|
| Pinus edulis trees experiencing extreme short-term drought (−90% ambient precipitation plot, 2020–2021) |
contrasted with |
Pinus edulis trees experiencing a decade of severe drought (−45% plot, 2010–2021) |
Pinus edulis |
| functional traits |
have weak or complex effects on |
how Conyza canadensis copes with drought stress |
Conyza canadensis |
| TRV2:CaDeSI2/TRV2:CaAITP1 plants |
show higher survival than |
TRV2:00 control plants |
Capsicum annuum |
| C4 grasses and Cyperaceae species |
showed 50% reduction in assimilation at |
−1.5 MPa leaf water potential |
|
| phosphorylation of BpMADS11 |
is critical for enhancing |
drought tolerance |
Betula pendula |
| leaf hydraulic conductance (Kleaf) and stomatal conductance (gs) |
are co-regulated by |
drought |
|
| (FAR1, AT5G22500) mutant |
are more sensitive to |
drought |
Arabidopsis thaliana |
| hot droughts |
are especially hard on |
trees |
|
| water potential |
measured as physiological metric to investigate |
mechanisms underlying drought-induced changes in NSC pool age |
Pinus edulis |
| irrigated trees |
were also more sensitive to changes in temperature when |
soil was drying |
Pinus sylvestris |
| 14-day drought treatment |
causes changes in |
photosynthetic apparatus |
Arabidopsis thaliana |
| observation of apoplastic water potential becoming more negative than turgor loss point |
is consistent with |
recent assessments of undersaturation using indirect techniques |
|
| relative water content (RWC) |
is a parameter related to |
tree water status |
|
| LL trees |
had the weakest PLD lethal value and |
resistance to cell damage |
|
| C3 grass and Cyperaceae species |
showed 50% reduction in assimilation at |
−3.8 MPa leaf water potential |
|
| increasing drought in dry areas |
may threaten |
survival of EcM gymnosperms more than AM gymnosperms |
|
| bpmads11 knockout lines (bpmads11#-3, bpmads11#-5, bpmads11#-10) |
show significantly increased |
MDA content |
Betula pendula |
| dephosphorylation of BpMADS11 |
induced the expression of |
BpERF61 |
Betula pendula |
| greater plasticity in vegetative phase change (VPC) timing |
would occur in |
a more severe drought treatment |
Arabidopsis thaliana |
| GO:0009414 (response to water deprivation) |
was enriched in |
SOM9 |
Setaria viridis |
| stressful outdoor conditions in middle of day |
can create temporary mild |
drought stress |
Nicotiana tabacum |
| drought |
is associated with |
tree mortality and forest dieback |
|
| trees |
were dehydrated to |
varying drought levels |
Populus species (hybrid poplar) |
| genome size (GS) |
plays unclear role in influencing |
species' response to reduced water availability |
|
| detailed studies of other NRLs |
can reveal |
how plants sense and respond to water limitation |
|
| (CPD45, FHY3, AT3G22170) and (FAR1, AT5G22500) proteins |
confer |
drought tolerance |
|
| Col-0 wild-type plants |
did not survive after |
drought stress |
Arabidopsis thaliana |
| mannitol |
induced |
(ATAZG1, AZG1, AT3G10960) transcription at a lower rate than sodium chloride |
Arabidopsis thaliana |
| most forests |
exhibit |
mild fET reductions |
|
| plants |
have evolved |
sophisticated molecular regulatory networks |
|
| stability of plasma membrane and its rupture |
were found to be linked to |
plant water status |
|
| WL (water-limited) trees |
had higher PLD lethal value of |
11.47% |
|
| LL (light-limited) trees |
had PLD lethal value of |
7.58% |
|
| tree populations |
may be sensitive to |
fluctuations in soil moisture |
|
| transfusion tracheids |
have been observed collapsing under |
drought |
|
| drought-impacted forests |
show significantly more loss in |
vegetation index |
|
| (CPD45, FHY3, AT3G22170) and/or (FAR1, AT5G22500) knockout mutants |
are less tolerant to |
drought stress |
|
| delayed mortality after drought events due to carbon starvation |
cannot be ruled out |
|
|
| control plants |
show survival rate of |
approximately 26% |
|
| strong decline in OXZ conductance preceding stomatal closure |
provided |
nonstomatal limitation of transpiration rate |
Solanum lycopersicum |
| difference in (PLD, PLDALPHA1, AT3G15730) lethal |
could also be attributed to |
physiological parameters, such as age or cell anatomy |
|
| alix-1 and (FREE1, FYVE1, PDE330, AT1G20110) mutant plant lines |
are difficult targets for |
engineering drought tolerance |
Arabidopsis thaliana |
| leaf water potential (ψL) |
should be measured in terms of |
stress intensity |
|
| modest dips in leaf water potential (ΨL) |
did not affect |
assimilation in C3 plants |
|
| BpERF61 |
does not mainly bind to |
DRE/CRT elements and GCC-boxes |
Betula pendula |
| plant heat shock transcription factors |
act on |
downstream drought-responsive element-binding factors (DREB2, DREB2A, AT5G05410) and (AtERF48, DREB2C, AT2G40340) |
|
| abscisic acid (ABA) accumulation |
is required to maintain |
root growth of maize (Zea mays L.), Arabidopsis, and rice (Oryza sativa L.) in response to water deficit |
Zea mays; Arabidopsis thaliana; Oryza sativa |
| small plant size together with very low stomatal density (SD) |
is ideal combination of traits for |
growth of rice under drought conditions |
Oryza sativa |
| epiphytic material (EM) segments moved from upper montane cloud forest to lower elevations in Costa Rica |
showed plants at lower, drier sites had significantly higher |
leaf mortality, lower leaf production, and reduced longevity |
|
| RiMsn2 |
regulates |
STRE-controlled genes |
Rhizophagus irregularis |
| tropical rainforests |
are susceptible to |
increases in mortality |
|
| RiPbs2 |
is required for |
drought resistance of the host plant |
Rhizophagus irregularis |
| drought |
causes |
morphological responses |
|
| strong decline in conductance of OXZ |
preceded |
stomatal closure during dry down |
Solanum lycopersicum |
| growth conditions |
influence |
relationship between stem diameter variations and drought damage mechanisms |
Populus |
| severe stress response |
can be accompanied by |
changes in leaf wax composition |
|
| drought |
reduced |
root : shoot ratio (RSR) |
Conyza canadensis |
| vein width |
is related to drought stress negatively |
drought stress |
|
| greater hydraulic safety |
leads to |
large decline in Kleaf and stomatal closure during drought |
|
| increased likelihood of drought-tolerant species |
may contribute to |
mitigated effect of drought on the middle growing-season plant community |
|
| BpMADS11 |
is |
M-Type MADS-box transcription factor |
|
| physical/anatomical mechanisms, such as the xylem and apoplastic (cell walls) structure |
are the main contributors to |
control of water movement out of the xylem, especially under drought |
|
| ABA biosynthetic pathway |
can be considered as potential target to |
improve plant performance under drought |
|
| drought stress coping mechanisms |
prevent |
water loss |
|
| increased frequency and intensity of droughts |
is expected to exacerbate |
tree mortality and forest dieback events |
|
| WW (well-watered) trees |
had PLD lethal value of |
6.62% |
|
| turgor loss and embolism spread |
increase |
risk of hydraulic failure |
|
| tree diversity |
can regulate |
drought impacts in natural forests |
|
| bpmads11 knockout lines (bpmads11#-3, bpmads11#-5, bpmads11#-10) |
show increased |
plant height |
Betula pendula |
| BpMADS11 |
can regulate the expression of |
BpERF61 |
Betula pendula |
| BpERF61 |
directly regulates |
drought tolerance-related genes |
Betula pendula |
| 202 target genes of BpERF61 |
are mainly involved in |
response to water deprivation |
Betula pendula |
| drought stress coping mechanisms |
maintain |
cell water content |
|
| drought-induced tree mortality globally |
is reported to increase |
research priority for characterising hydraulic traits |
|
| drought-activated (ATSAHH1, EMB1395, HOG1, MEE58, SAH1, SAHH1, AT4G13940) MAP kinase signalling cascade |
culminates at |
RiMsn2 |
Rhizophagus irregularis |
| high fET sites |
show almost no effect of |
water stress on plants |
|
| little plasticity in the timing of vegetative phase change (VPC) in response to drought |
was found |
|
Arabidopsis thaliana |
| (PLD, PLDALPHA1, AT3G15730) lethal value in lavender species |
was |
21.3% |
|
| plasticity of responses to drought |
was comparable between |
native and non-native ranges |
Conyza canadensis |
| CaDeSI2 |
plays a positive role in |
drought resistance |
Capsicum annuum |
| CaDeSI2-OX plants |
show less severe wilting than |
wild-type plants |
Arabidopsis thaliana |
| leaf shedding |
occurs during |
drought conditions |
|
| warming and drying environment |
increased |
mortality rate of large trees in subtropical forest |
|
| PEG-induced drought stress |
highly induces expression of BpMADS11 in |
roots and leaves |
Betula pendula |
| abscisic acid (ABA) |
is recognized as critical hormonal regulator of |
plant response to water stress |
|
| (AtPYL4, PYL4, RCAR10, AT2G38310) A194T OE lines |
showed survival of 60% to 70% after |
drought stress |
Arabidopsis thaliana |
| enhanced abscisic acid (ABA) biosynthesis and signaling |
regulates |
gene expression under water stress conditions |
|
| low stomatal density (SD) varieties (Nang Thom BIS, Sathi, UCP-188, OM-479) |
do not perform well under |
drought stress |
Oryza sativa |
| RiHog1-RiMsn2-STREs module |
controls |
drought stress-responsive genes |
Rhizophagus irregularis |
| water deficits |
influence |
crop productivity |
|
| difference in proportion of bark between poplar and lavender |
could also explain |
difference between the two species in (PLD, PLDALPHA1, AT3G15730) lethal |
|
| scenario (c) |
presents |
opposite response (increasing Δ performance) |
Conyza canadensis |
| intact plants grown in hydroponics |
showed assimilation decline at more negative ΨL in |
C3 wheat and sunflower |
|
| BpMADS11 overexpression lines (BpMADS11-OE1, BpMADS11-OE2, BpMADS11-OE3) |
recover quickly and grow well after rehydration, whereas |
drought tolerance |
Betula pendula |
| BpERF61 |
binds to DNA motifs such as G-boxes to regulate |
drought tolerance-related genes |
Betula pendula |
| ABSCISIC ACID INSENSITIVE 5 (ABI5, AtABI5, DPBF1, GIA1, AT2G36270) expression |
is induced by |
drought stress |
|
| plant growth during the subsequent 5-d period |
was reduced in |
nontransformed Col-0 and (AtPYL4, PYL4, RCAR10, AT2G38310) OE plants compared with A194T OE plants |
Arabidopsis thaliana |
| transgenic plants |
performed better than |
parental line (wild type; WT) under stress |
Hordeum vulgare |
| LN plants |
showed effective coordination of |
assimilation with balanced transpiration under drought stress |
Hordeum vulgare |
| modulated abscisic acid (ABA) homeostasis |
benefits plants under |
long-term stress |
Hordeum vulgare |
| greater water acquisition |
enables |
improved growth and yield under water stress |
Zea mays |
| (AtMAX2, MAX2, ORE9, PPS, AT2G42620) mutant at seedling stage |
displays strong hypersensitivity to |
drought stress |
Arabidopsis thaliana |
| (AtMAX2, MAX2, ORE9, PPS, AT2G42620) mutant at adult stage |
displays strong hypersensitivity to |
drought stress |
Arabidopsis thaliana |
| capacity of plants to resist embolism formation in the xylem |
is hypothesized to be a major component of |
plant drought tolerance and survival |
|
| Actin1:NHX1 |
is one of |
eight constructs showing significantly higher relative yield under both drought stress conditions |
|
| relative yield |
is used as criterion to evaluate |
drought resistance performance |
|
| CACG-like motifs |
is bound by |
(ANAC072, ANAC72, AtRD26, RD26, AT4G27410) |
|
| msi1-cs plants |
have increased |
drought tolerance |
Arabidopsis thaliana |
| aquaporin gene expression in Physcomitrella patens |
is stimulated by |
water stress and ABA |
Physcomitrella patens |
| RRS1-KO mutant |
significantly increased |
grain yield per plant under drought stress |
|
| declining xylem water potential and declining leaf water potential |
causes to become significantly more negative |
apoplastic water potential |
|
| severe drought events |
results in |
increased mortality |
Pinus sylvestris |
| functional traits |
mediate effects of |
drought on plant performance |
|
| comparison of among-population variation (APV) in drought responses across life stages |
may be important because |
impact of drought can significantly differ between seedlings and adults |
|
| ESCRT machinery components including (TOL2, AT1G06210) and (TOL5, AT5G63640) |
are highly upregulated in |
early drought stress responses |
plant cell suspension cultures |
| CaDeSI2-silenced pepper plants |
show enhanced susceptibility to |
drought stress |
Capsicum annuum |
| TRV2:00 plants |
show higher survival than |
TRV2:CaDeSI2 plants |
Capsicum annuum |
| CaDeSI2 |
positively modulates |
drought tolerance |
Capsicum annuum |
| CaDeSI2 transcript levels |
decrease during |
early dehydration/PEG exposure |
Capsicum annuum |
| comparative field studies by Taylor et al. (2014) |
found C3 species did not experience water limitation in correspondence to |
midday depressions of leaf water potential (ΨL) |
|
| NRL5 |
is involved in |
drought resistance |
Arabidopsis thaliana |
| OsPP18 |
confers |
drought stress tolerance |
Oryza sativa |
| ospp18 mutant |
shows significantly reduced tiller number compared with |
wild-type plants |
Oryza sativa |
| water stress in field |
reduces |
grain yield |
Zea mays |
| abscisic acid (ABA) |
is involved in |
drought stress tolerance |
|
| dehydration proteins |
accumulate to protect plants from |
damage of stress conditions |
|
| (ATVAMP711, VAMP711, AT4G32150) overexpression |
partially rescues |
drought-sensitive phenotype of ost2-2D mutant |
Arabidopsis thaliana |
| stomatal pores |
play an important role in the control of |
water loss in response to drought stress |
|
| (ATCBF3, CBF3, DREB1A, AT4G25480) |
is one of |
five genes showing significantly higher relative yield under both drought stress conditions |
|
| aquaporin gene knockouts |
wilt faster than |
wild-type gametophores during moderate water stress |
Physcomitrella patens |
| varieties with higher stomatal density (SD) and smaller stomatal size (SS) |
respond better to |
drought stress |
Oryza sativa |
| RiMsn2 |
may positively regulate |
expression of STRE-controlled genes |
Rhizophagus irregularis |
| forests growing under higher vapour pressure deficit (VPD) |
are expected to be |
more hydraulically resistant |
|
| chlorophyll fluorescence |
measured as physiological metric to investigate |
mechanisms underlying drought-induced changes in NSC pool age |
Pinus edulis |
| 90% plot |
had significantly more negative water potentials than control in |
September 2020 and June 2021 |
Pinus edulis |
| loss of hydraulic conductance assessed as AquaDust or SPC conductance |
proceeds through steeper drop based on |
best-fit exponents of sigmoidal dependence |
Solanum lycopersicum |
| modulated root aquaporin expression |
occurs under |
drought |
|
| Ectomycorrhiza-associated oaks (Quercus) |
were reported to have better |
growth performance than other trees during drought |
Quercus |
| BpMADS11 |
interacts with |
protein phosphatase 2C22 (BpPP2C22) |
Betula platyphylla |
| BpERF61 |
can confer |
drought tolerance |
Betula pendula |
| (ABCC2, AtABCC2, ATMRP2, EST4, MRP2, AT2G34660) transcript levels |
were considerably increased after exposure to |
drought for at least 4 d |
Arabidopsis thaliana |
| 2-week-old seedlings subjected to drought (polyethylene glycol [PEG]-infused plates) or osmotic (mannitol) stress for 1 week |
showed no evident differences in |
wilting appearance and root and shoot growth between mutant and wild-type seedlings |
Arabidopsis thaliana |
| mutations that enhance abscisic acid (ABA)-dependent inhibition of PP2Cs |
can be used for |
ameliorating drought stress |
|
| leaf death |
occurs as |
gs approaches zero and Kleaf declines by more than 88% |
Metasequoia glyptostroboides |
| LOHi lines |
suffered to lesser extent |
stress-induced reduction in assimilation |
Hordeum vulgare |
| OsPP18 |
mediates |
drought stress responses |
Oryza sativa |
| root system size |
correlates with |
tolerance to drought stress |
|
| wilting rate of leaves in ost2-2D mutant |
is much higher than |
other plants |
Arabidopsis thaliana |
| (ATVAMP711, VAMP711, AT4G32150) and (AHA1, HA1, OST2, PMA, AT2G18960) (AHA2, AtHA2, HA2, PMA2, AT4G30190) |
work together to regulate |
stomatal closure in response to drought stress |
Arabidopsis thaliana |
| (ABA3, ACI2, ATABA3, AtLOS5, GIN5, LOS5, SIR3, AT1G16540) overexpression |
leads to |
reduced leaf transpiration under drought conditions |
Arabidopsis thaliana |
| transgenic families of two gene constructs |
showed significantly higher relative spikelet fertility than |
wild-type |
|
| reduction in irrigation in Kipp |
resulted in only 1–11% reduction in yield of |
BnFTA transgenic lines |
Brassica napus |
| Tortula ruralis |
has |
two distinct cDNAs with high homology to PpDBF1 |
Tortula ruralis |
| incipient point of leaf death |
corresponds to |
88% loss of leaf hydraulic conductivity (Kleaf) |
Metasequoia glyptostroboides |
| drought stress |
markedly inhibited |
stomatal conductance, transpiration, and assimilation |
Hordeum vulgare |
| genes in response to stimulus category |
have altered drought-responsive expression patterns in |
ospp18 mutant |
Oryza sativa |
| Leucaena leucocephala |
is highly tolerant to |
drought |
Leucaena leucocephala |
| low water potential-induced Pro accumulation |
has been widely observed in |
plants |
|
| Piriformospora indica |
confers |
drought stress tolerance to Arabidopsis seedlings |
Arabidopsis thaliana; Piriformospora indica |
| (ATCBF3, CBF3, DREB1A, AT4G25480) transgenic plants with HVA22P promoter |
showed |
high drought resistance (LDS < 1) |
|
| ThZF1 |
is upregulated by |
drought |
|
| LP103 plants |
remained green for longer duration before senescence under |
postanthesis drought |
Hordeum vulgare |
| (ATCBF3, CBF3, DREB1A, AT4G25480) transgenic plants with Actin1 promoter |
showed |
high drought resistance (LDS < 1) |
|
| Actin1:ZAT10 |
showed significantly higher relative spikelet fertility than |
wild-type |
|
| Physcomitrella patens |
contains |
at least one DREB, PpDBF1 |
Physcomitrella patens |
| water-use efficiency under drought conditions |
is the focus of most studies |
|
|
| drought tolerance |
involves |
guard cell regulation |
|
| (ATCBF3, CBF3, DREB1A, AT4G25480) transgenic plants |
had better drought resistance performance than |
other genes in pre-screening |
|
| reduction in irrigation in Kipp |
resulted in 21% decrease in yield of |
control |
Brassica napus |
| Tr288, a Tortula ruralis protein with 78% similarity to Physcomitrella patens DHNA |
is thought to be involved in |
cellular protection, perhaps repair, during rehydration |
Tortula ruralis |
| severe levels of water stress |
sufficient to cause |
damage to the hydraulic system and incipient leaf damage |
Metasequoia glyptostroboides |
| sugar accumulation |
is important for |
osmotic adjustment under drought stress |
|
| MdMYB transcription factors |
cannot be expressed at higher levels in response to |
simulated drought treatment |
Malus domestica |
| Actin1:NHX1 transgenic families (T2) |
shows higher |
spikelet fertility |
Oryza sativa |
| exogenous candidate genes |
showed certain effects in improving |
drought resistance of rice |
Oryza sativa |
| HVA22P:CBF3 |
is one of |
eight constructs showing significantly higher relative yield under both drought stress conditions |
|
| constitutive and/or inducible overexpression of (ATSOS2, CIPK24, SNRK3.11, SOS2, AT5G35410) |
conferred |
drought resistance |
|
| (AtHPR1, AtTHO1, HPR1, RAE3, THO1, AT5G09860) expression kinetics |
is different from |
other drought-inducible genes such as (COR78, LTI140, LTI78, RD29A, AT5G52310) and (ATNCED3, NCED3, SIS7, STO1, AT3G14440) |
Arabidopsis thaliana |
| protection of photosynthetic electron transport chain (ETC) from excess light by alternative pathway (AP) |
was demonstrated in |
drought-stressed wheat |
Triticum aestivum |
| ABA-independent transcription |
occurs through |
activation of dehydration-responsive elements (DREs) in dehydration-induced gene promoters |
|
| 60 protein spots |
are irreversible in |
IR64 genotype |
Oryza sativa |
| HvDhn4s: TaNAC69-1 lines |
show 13-fold increase of |
TaNAC69-1 expression in roots under drought stress |
Triticum aestivum |
| drought stress |
sufficient to impact photosynthesis has relatively little effect on |
translocation |
|
| PIP expression induced by water deficit |
is |
complicated response |
Oryza sativa |
| (ASL11, LBD15, AT2G40470) mutant |
has increased sensitivity to |
water-deficit stress |
|
| LBD15-overexpressing lines |
show |
slower water loss |
|
| senescence |
is response to |
terminal drought |
Hordeum vulgare |
| lines with large cortical cell size (CCS) under water stress |
have greater |
stomatal conductance |
Zea mays |
| fad7-1/fad8-1 double mutant |
shows no significant difference in tumor size compared to wild-type at |
high relative humidity (75%–100%) |
Arabidopsis thaliana |
| (AT-POX, ATPDH, ATPOX, ERD5, PDH1, PRO1, PRODH, AT3G30775) mutants |
had |
the same low water potential-sensitive phenotype as (ATP5CS, P5CS1, AT2G39800) mutants |
Arabidopsis thaliana |
| (AtMAX2, MAX2, ORE9, PPS, AT2G42620) mutants |
are |
drought sensitive |
Arabidopsis thaliana |
| plants |
always lost turgor before experiencing |
stem embolism |
Quercus |
| plasma membrane (PM) H+-ATPase |
plays regulatory roles in |
response to drought stress |
Arabidopsis thaliana |
| (AHA1, HA1, OST2, PMA, AT2G18960) open stomata2-2D ( -2D) mutant plants with constitutive higher PM H+-ATPase activity |
are hypersensitive to |
drought stress |
Arabidopsis thaliana |
| rice MAPK |
overexpression significantly increases |
tolerance of rice to drought |
Oryza sativa |
| (ATNCED2, NCED2, AT4G18350) transgenic plants with HVA22P promoter |
showed |
high drought resistance (LDS < 1) |
|
| drought resistance of transgenic plants |
tested in |
field conditions |
|
| drought tolerance |
occurs in |
naturally fluctuating evaporative demand and soil moisture |
Zea mays |
| abscisic acid (ABA) accumulation |
occurs in response to |
drought |
|
| xylem resistance to embolism |
appears to be |
important property of drought tolerance in land plants |
|
| 1130 T1 families for 14 constructs |
were evaluated by |
leaf drying score (LDS) |
|
| drought stress applied by withholding water until relative water content was 70% |
caused |
(ATHPR1, HPR, AT1G68010) expression increased 1.6-fold compared to non-stressed plants |
Arabidopsis thaliana |
| Tortula ruralis aquaporins |
may be involved in |
recovery of desiccation-tolerant moss |
Tortula ruralis |
| stay-green Lochow-Petkus (LP103) line |
displayed |
reasonable level of drought tolerance |
Hordeum vulgare |
| overexpression of STRESS-RESPONSIVE (anac021, ANAC022, NAC1, AT1G56010) (SNAC1) |
resulted in |
improved drought tolerance |
Oryza sativa |
| lines with large cortical cell size (CCS) under water stress in mesocosms |
have greater |
shoot biomass |
Zea mays |
| several groups constructing transgenic plants with increased Pro accumulation |
have collectively led to |
ambiguous results on whether increasing Pro accumulation can by itself increase drought tolerance |
|
| Pro |
does contribute to |
drought resistance |
Arabidopsis thaliana |
| overexpression of a stress-responsive transcription factor in rice |
resulted in |
significantly improved drought resistance under field conditions |
Oryza sativa |
| laboratory or greenhouse conditions |
may be partially consistent with results from |
drought-stressed field environments |
|
| steady increase in transcripts of (COR78, LTI140, LTI78, RD29A, AT5G52310) and (ATNCED3, NCED3, SIS7, STO1, AT3G14440) |
suggests that |
plants started to experience water deficiency after 2 days |
Arabidopsis thaliana |
| abscisic acid (ABA) |
remains elevated long after initial dehydration |
drying moss |
Physcomitrella patens |
| overexpression of certain individual stress protein or transcription factor regulating multiple stress proteins |
was shown to confer |
increased tolerance to drought |
|
| msi1-cs plants |
were deprived of |
water |
|
| purified (LEA, AT2G21490) protein |
promoted |
formation of a sucrose-LEA glass |
|
| (CBNAC, NTL9, AT4G35580) or Ca2+/CaM binding to |
may positively regulate |
RD29 |
|
| (IRX14, AT4G36890) mutants |
exhibit |
drought-tolerant phenotype |
Arabidopsis thaliana |
| water deficit |
affects |
crop yield |
Oryza sativa |
| (AtPUB19, PUB19, AT1G60190) expression level |
is inversely correlated with |
degree of tolerance to water stress |
Arabidopsis thaliana |
| various root hydraulic conductances |
directly resulting in |
differing resistance to water deficiency |
Oryza sativa |
| number of dehydration-regulated genes |
was almost 10 times greater than |
number of genes under hydration conditions |
Arabidopsis thaliana |
| drought stress |
compromises |
grain yield |
|
| cortical cell size (CCS) in well-watered conditions |
is positively correlated with |
cortical cell size (CCS) in water-stressed conditions |
Zea mays |
| water stress in field |
reduces |
shoot biomass |
Zea mays |
| HVA22P:ZAT10 transgenic families |
shows significantly higher |
relative yield (RY) |
Oryza sativa |
| (ABA3, ACI2, ATABA3, AtLOS5, GIN5, LOS5, SIR3, AT1G16540) transgenic plants with Actin1 promoter |
showed |
high drought resistance (LDS < 1) |
|
| barley late embryogenesis abundant (LEA, AT2G21490) B19.3 promoter |
is induced in |
vegetative tissues during postanthesis drought stress |
Hordeum vulgare |
| ospp18 mutant |
shows slower growth than |
wild-type plants |
Oryza sativa |
| stomatal closure |
maintains |
water status in plant cells |
|
| decreased chlorophyll and relative water contents in ost2-2D mutant |
are partially rescued in |
Col-0:OE-VAMP711 plants |
Arabidopsis thaliana |
| constitutive and/or inducible overexpression of (ABA3, ACI2, ATABA3, AtLOS5, GIN5, LOS5, SIR3, AT1G16540) |
can contribute to improvement of |
drought resistance at level of yield per plant and/or spikelet fertility |
|
| limited number of transgenic families for (ATNCED2, NCED2, AT4G18350) |
might be reason why |
promising transgenic families with significant drought resistance have not been identified from (ATNCED2, NCED2, AT4G18350) |
|
| each plant |
was stressed to |
same degree at which leaves of main tillers were completely rolled |
Oryza sativa |
| down-regulation of (ATFTA, FTA, PFT/PGGT-IALPHA, PLP, AT3G59380) in canola using (AtHPR1, AtTHO1, HPR1, RAE3, THO1, AT5G09860) promoter driving RNAi construct |
resulted in |
yield protection against drought stress |
Brassica napus L. |
| seedlings |
subjected to |
drought stress |
|
| Physcomitrella patens DREB |
is expressed following |
water stress |
Physcomitrella patens |
| BiP-mediated negative regulation of N-rich protein (NRP, NRP1, AT5G42050) -mediated cell death signaling |
attenuates |
dehydration-induced cell death |
|
| mesophytic plants such as Arabidopsis |
face |
drought stress |
Arabidopsis thaliana |
| dor1 mutant |
displays |
drought-tolerant phenotype |
Arabidopsis thaliana |
| msi1-cs plants |
were monitored for |
wilting of rosette leaves |
|
| formation of a glassy matrix in dehydrated Physcomitrella patens tissue |
likely through |
(LEA, AT2G21490) accumulation |
Physcomitrella patens |
| senescing line |
showed markedly inhibited |
stomatal conductance, transpiration, and assimilation |
Hordeum vulgare |
| LN and LOHi lines |
possessed higher |
relative leaf water content at 4 DAS |
Hordeum vulgare |
| down-regulation of HvABA8′OH genes |
resulted in |
improved assimilation and water use efficiency (WUE) under terminal drought |
Hordeum vulgare |
| SNAC1 |
may have as downstream gene |
OsPP18 |
Oryza sativa |
| root traits |
correlate positively with |
crop performance under drought |
|
| VESICLE-ASSOCIATED MEMBRANE PROTEIN 711 (ATVAMP711, VAMP711, AT4G32150) |
is involved in regulating |
stomatal closure in response to drought stress |
Arabidopsis thaliana |
| (ATVAMP711, VAMP711, AT4G32150) repressing PM H+-ATPase activity |
is achieved by regulating |
(AHA1, HA1, OST2, PMA, AT2G18960) (AHA2, AtHA2, HA2, PMA2, AT4G30190) trafficking |
Arabidopsis thaliana |
| HVA22P:NPK1 transgenic families (T2) |
shows significantly higher |
yield per plant |
Oryza sativa |
| HVA22P:LOS5 transgenic families (T2) |
shows significantly higher |
yield per plant |
Oryza sativa |
| inducible promoter (HVA22P) |
had relatively better effect for |
(AT-NHX1, ATNHX, ATNHX1, NHX1, AT5G27150) drought resistance |
|
| transgenic families from nine constructs |
showed significantly higher relative yield than |
wild-type |
|
| (STZ, ZAT10, AT1G27730) |
is one of |
three genes showing significantly higher relative yield under both stress-inducible and constitutive promoter control |
|
| (ATFTA, FTA, PFT/PGGT-IALPHA, PLP, AT3G59380) |
could also be effective if |
expression of transgene is controlled by conditional promoter |
|
| abscisic acid (ABA) |
is central player in |
plant responses to drought stress |
|
| ospp18 mutant |
is more sensitive than wild-type to |
drought stress |
Oryza sativa |
| abscisic acid (ABA) |
induces |
stomatal closure |
|
| rao3/big and rao6/ (AS1, ATMYB91, ATPHAN, LL2, MYB91, AT2G37630) mutants |
conferred |
enhanced drought tolerance |
Arabidopsis thaliana |
| water deficit |
reduced transpiration rate in wild-type plants to |
18% of control conditions |
Hordeum vulgare |
| drought tolerance |
involves |
alterations in photosynthesis |
|
| lines with large cortical cell size (CCS) in field under water stress |
have greater |
rooting depth (D95) |
Zea mays |
| fad7-1/fad8-1 double mutant |
shows no significant difference in tumor size compared to wild-type at |
normal relative humidity (45%–50%) |
Arabidopsis thaliana |
| reductions in water potential that mimic the effects of soil drying during drought |
elicit |
up to a 100-fold increase of Pro content in the Col reference accession |
Arabidopsis thaliana |
| 447 drought-responsive lincRNAs |
of which |
208 were specific to the agronomically important and drought-sensitive reproductive stage of O. sativa |
Oryza sativa |
| OsFBK1 |
expression is enhanced in seedlings exposed to |
drought stress |
Oryza sativa |
| developing secondary phloem |
will increase in wooden plants under |
drought stress |
|
| transgenic plants of four genes |
showed significantly higher relative spikelet fertility than |
wild-type |
|
| different stress responsive genes |
may be clustered by means of |
crossing transgenic families with promising drought resistance |
|
| drought resistance testing in PVC pipes |
measures |
spikelet fertility |
|
| (AtERG1, Era-1, ERA1, AT5G66470) |
is |
one target that has previously been validated in transgenic canola in field |
Brassica napus |
| protection that ABA provides Physcomitrella patens, Funaria hygrometrica, and Atrichum androgynum |
is most likely partially attributable to |
protein synthesis |
Physcomitrella patens; Funaria hygrometrica; Atrichum androgynum |
| cortical cell size (CCS) |
may improve drought tolerance of |
maize and possibly other cereal crops |
Zea mays |
| drop in water content of air |
causes increase in |
abscisic acid (ABA) content |
Arabidopsis thaliana |
| (ABA3, ACI2, ATABA3, AtLOS5, GIN5, LOS5, SIR3, AT1G16540) |
is one of |
four genes showing significantly higher relative spikelet fertility under both promoter control in PVC pipes |
|
| reduced expression of (ATGSTU24, GST, GSTU24, AT1G17170) genes |
contributes to |
hypersensitivity of ospp18 mutants to drought stress |
Oryza sativa |
| water stress in mesocosms |
reduces |
shoot biomass |
Zea mays |
| MdMYB124 |
slightly induced by |
simulated drought in roots of M. sieversii |
Malus sieversii |
| PVCs with a small portion of (ATVAMP711, VAMP711, AT4G32150) |
could move close to or fuse with |
plasma membrane |
Arabidopsis thaliana |
| HVA22P:CBF3 transgenic families (T2) |
shows significantly higher |
yield per plant |
Oryza sativa |
| (LEA, AT2G21490) (late embryogenesis abundant) proteins |
are involved in |
formation of a glassy matrix |
|
| leaf water potential (Ψl) close to the turgor loss point of the leaf |
is still before |
incipient point of leaf death |
Metasequoia glyptostroboides |
| stay-green type plants |
survived longer under |
terminal drought |
Hordeum vulgare |
| ospp18 mutant |
shows earlier and more severe wilting symptoms compared with |
wild-type siblings |
Oryza sativa |
| lines with large cortical cell size (CCS) under water stress |
correlate with |
deeper rooting depth (D95) |
Zea mays |
| shoot growth |
is inhibited under |
water-limited conditions |
|
| number of transgenic families used in drought resistance experiments |
perhaps limited for |
(ATNCED2, NCED2, AT4G18350) |
|
| BnFTA2 and BnFTA4 under limited irrigation in Taber |
showed no reduction and 5% increase in yield respectively compared to optimal conditions |
yield under limited irrigation |
Brassica napus |
| ABA accumulation |
triggers production of |
hardening protein(s) that limit damage |
Atrichum androgynum |
| (AtERG1, Era-1, ERA1, AT5G66470) mutants |
exhibit |
drought resistance |
Arabidopsis thaliana |
| OsDREB1A overexpression in rice |
improves |
drought stress tolerance |
Oryza sativa |
| HvDhn4s-driven TaNAC69-1 lines |
produce very high levels of |
TaNAC69-1 transcript under drought-stress conditions |
Triticum aestivum |
| WT plants |
exhibit |
low survival rate under drought stress |
|
| PUB19-OX2 plants |
are hypersensitive to |
dehydration |
Arabidopsis thaliana |
| (AtPUB19, PUB19, AT1G60190) overexpression |
increases sensitivity to |
dehydration |
Arabidopsis thaliana |
| MsGME overexpression |
enhances |
drought tolerance |
Arabidopsis thaliana |
| OsPIP1;3 gene in upland rice cultivar (subspecies indica cv. Zhonghan 3) |
was responsive to |
drought stress |
Oryza sativa |
| drought resistance genes |
were identified in |
Acer truncatum |
Acer truncatum |
| (LEA, AT2G21490) gene family in Acer truncatum |
expanded to |
82 genes |
Acer truncatum |
| H2O2 production |
was progressively enhanced in |
both wild type and (AtATL78, ATL78, PRU2, AT1G49230) mutant under dehydration |
Arabidopsis thaliana |
| MYB, MYC, and WRKY transcription factor families |
regulate genes in response to |
drought stress |
Arabidopsis thaliana |
| 10 up-regulated MdMYB genes |
were not highly induced by |
simulated drought stress |
Malus sieversii |
| (STZ, ZAT10, AT1G27730) transgenic families (both promoters) |
shows significantly higher |
relative spikelet fertility |
Oryza sativa |
| drought resistance testing in PVC pipes |
measures |
yield |
|
| (ATMSI1, MEE70, MSI1, AT5G58230) |
has a proposed new role in |
negative regulation of the drought stress response |
Arabidopsis thaliana |
| low proline accumulation |
alleviates |
plant drought stress |
|
| mitogen-activated protein kinase (MAPK) cascade |
participates in |
AM fungal and host plant symbionts in responses to drought stress |
|
| higher expression of three Hog1-MAPK genes |
increased |
resistance of mycorrhizal plants to drought stress |
|
| GiTPS2 |
responds to |
drought stress |
Rhizophagus irregularis |
| RiAQP-2, RiNTH1/2, RiTPS-1/-2, and Ri14-3-3 |
are significantly decreased under |
drought stress (DS) conditions |
Medicago truncatula; Nicotiana benthamiana; Rhizophagus irregularis |
| long, dry periods |
is when high NSC in Mediterranean roots aids recovery |
hydraulic conductivity recovery |
|
| GA metabolic genes |
are associated with |
drought-resistant coefficient |
|
| obscuring of the full magnitude of the drop in potential across tissues and between symplast and apoplast |
limits our understanding of |
coupling of outside-xylem zone (OXZ) water status to stomatal closure, embolism avoidance, and collapse of leaf xylem conduits |
|
| dehydration threshold |
is suggested by observation from |
Lamacque et al. on Lavender |
|
| difference in resistance of poplar and lavender to dehydration |
probably explains |
difference in mortality timing between species |
|
| reduced photosynthetic activity |
reinforces |
trade-off for the plant to partition recent photoassimilates efficiently |
|
| RcOST1L |
has conserved functions in regulating |
drought response |
Arabidopsis thaliana; Rosa chinensis |
| plants |
may grow less in |
dry treatments than wet treatments |
|
| leaf carbon isotopic ratio (δ 13 C) |
is used as proxy for |
drought response |
|
| tree species richness |
decreases leaf δ15N under |
low drought intensity |
|
| (ABF3, AtABF3, DPBF5, AT4G34000) and (ABF4, AREB2, AtAREB2, AT3G19290) overexpression |
results in |
improved drought tolerance |
Arabidopsis thaliana |
| AtDREB1C overexpression in rice |
improves |
drought stress tolerance |
Oryza sativa |
| AtNF-YA5 |
is induced by |
drought |
Arabidopsis thaliana |
| variation in gene expression for the CWIN IVR1 |
occurs in |
pollen during water deficits |
wheat |
| irx14L mutant |
does not share |
drought-tolerant phenotype |
|
| bulliform cells |
lose turgor under |
water stress |
Oryza sativa |
| xanthine dehydrogenase suppression transgenic lines |
shows enhanced |
growth retardation during drought stress |
Arabidopsis thaliana |
| (ATRD22, RD22, AT5G25610) |
is significantly up-regulated in |
pub19-1 mutant plants under drought stress |
|
| (COR78, LTI140, LTI78, RD29A, AT5G52310) |
is significantly up-regulated in |
pub19-1 mutant plants under drought stress |
|
| PUB19-OX1 plants |
are hypersensitive to |
dehydration |
Arabidopsis thaliana |
| Atptpn-1 T-DNA insertion mutant |
is hypersensitive to |
drought |
Arabidopsis thaliana |
| ectopic expression of OsPIP1;3 gene |
resulted in |
higher resistance to water deficit |
Nicotiana benthamiana |
| (ATPIP1, PIP1, PIP1;1, PIP1A, AT3G61430) ;3 expression |
increased in response to |
drought stress |
Arabidopsis thaliana |
| (ASL11, LBD15, AT2G40470) protein |
possibly integrates vascular differentiation and stomatal aperture to enhance |
tolerance of water-deficit stress |
|
| Arabidopsis (AtGolS1, GolS1, AT2G47180) |
is induced by |
drought stress |
Arabidopsis thaliana |
| abscisic acid (ABA) |
is largely attributed to |
survival over continued growth in vegetative tissues during drought stress |
|
| avoidance strategies |
when fail, repair strategies may prevent |
excessive shoot dieback |
|
| water stress |
significantly reduces |
rooting depth (D95) |
Zea mays |
| abscisic acid (ABA) levels |
are elevated in |
crown galls |
Arabidopsis thaliana |
| (AtMAX2, MAX2, ORE9, PPS, AT2G42620) mutant |
shows impaired expression of |
stress-responsive genes |
Arabidopsis thaliana |
| increased temperature and larger variability of water stress |
results in |
higher mortality rate during terminal drought |
|
| (ATRAPTOR1B, RAPTOR1, RAPTOR1B, AT3G08850) plants |
responded to drought stress by producing |
higher ABA concentrations |
Arabidopsis thaliana |
| (ATNCED2, NCED2, AT4G18350) transgenic plants with Actin1 promoter |
showed |
high drought resistance (LDS < 1) |
|
| (AtHPR1, AtTHO1, HPR1, RAE3, THO1, AT5G09860) expression |
is up-regulated by |
drought |
Arabidopsis thaliana |
| ABA pretreatment |
promoted |
formation of a glassy matrix in dehydrated Physcomitrella patens tissue |
Physcomitrella patens |
| drought stress exposure for 1 week |
reduced WUE in |
senescing plants |
Hordeum vulgare |
| ethylene |
triggers expression of |
drought stress-responsive genes |
|
| (ATMYC2, JAI1, JIN1, MYC2, RD22BP1, ZBF1, AT1G32640) binding site in (ATRD22, RD22, AT5G25610) motif |
is associated with |
dehydration-responsive gene; abscisic acid induction, water stress |
Arabidopsis thaliana |
| inducible MdMYBs |
showed lower expression levels by |
simulated drought |
Malus domestica |
| Actin1:LOS5 transgenic families (T2) |
shows significantly higher |
yield per plant |
Oryza sativa |
| HVA22P:LOS5 transgenic families (T2) |
shows higher |
spikelet fertility |
Oryza sativa |
| (ATMSI1, MEE70, MSI1, AT5G58230) protein binding partners |
together with MSI1 control expression of |
drought stress-inducible genes |
Arabidopsis thaliana |
| ectopic expression of plant AQP genes like apple MdPIP1;3 |
enhanced |
plant resistance to water deficit under osmotic stress or extreme temperatures |
Malus domestica |
| (AtLtpI-5, cdf3, LP2, LTP2, AT2G38530) interaction with OsPIP proteins |
negatively affected |
drought resistance |
Oryza sativa |
| decline in photosynthesis |
is |
central consequence of drought |
|