| BRAHMA stability |
promotes |
boron tolerance |
Arabidopsis thaliana |
| Posidonia australis in this study |
maintained its shoots under |
8-week low light exposure |
Posidonia australis |
| triploids |
are at higher risk of mortality in |
hotter and drier environments |
Populus tremuloides |
| gibberellic acid (GA) inhibitor treatment |
leads to higher tolerance to |
oxidative stress |
Hordeum vulgare |
| overexpression of sunflower HEAT SHOCK TRANSCRIPTION FACTOR A9 (AT-HSFA9, HSFA9, AT5G54070) |
leads to increase of |
seed longevity and thermal tolerance of seedlings |
Nicotiana tabacum |
| filmy ferns |
cannot endure |
high sun exposure and aridity |
|
| total tree NSC pools |
are |
large and resilient to short-term stress |
|
| drought-responsive TF HaDREB2 |
co-overexpressed with |
sunflower (AT-HSFA9, HSFA9, AT5G54070) |
Helianthus annuus |
| high-yielding rice varieties |
can withstand |
multiple abiotic stresses |
|
| clonal plants |
prevail in |
some but not all stressful conditions |
|
| persistence of leaf metabolism of Posidonia australis in Shark Bay |
may be challenged by |
occurrence of marine heatwaves |
Posidonia australis |
| stoloniferous plants |
have |
weaker stress tolerance |
|
| diatoms |
possess |
unique physiological and metabolic characteristics |
|
| homologous genes from Arabidopsis |
endow the plant with enhanced tolerance when |
overexpressed |
Arabidopsis thaliana |
| dry seed |
allows |
desiccation tolerance |
Arabidopsis thaliana |
| OXrPPR1 plants |
have longer roots than |
wild-type (WT) or OXmiR400 plants under Cd stress |
Arabidopsis thaliana |
| gibberellic acid (GA) inhibitor treatment |
leads to higher tolerance to |
heat stress |
Hordeum vulgare |
| late-embryogenesis abundant (LEA) proteins |
are involved in |
abiotic stress tolerance in plants |
Oryza sativa |
| ROS maintained at low levels |
likely causes |
enhanced Cd tolerance in OXrPPR1 plants |
Arabidopsis thaliana |
| annuals |
have |
weaker stress tolerance |
|
| resting cells |
enable diatoms to endure |
prolonged periods of unfavourable conditions |
|
| plant species |
vary in |
physiological tolerance of a variety of stressors |
|
| Haberlea rhodopensis |
can survive |
long-term darkness |
Haberlea rhodopensis |
| boron supply |
has beneficial impact on |
plant resistance to Al stress |
Pisum sativum |
| combination of GC-ToF-MS data and pronounced up-regulation of (AtSIP2, RS2, SIP2, AT3G57520) |
led to hypothesis that |
in IDL, imported raffinose could play a dual role of delivering reduced carbon and acting as stress tolerance mechanism |
Arabidopsis thaliana |
| imported raffinose in individually darkened leaves (IDL) |
could play a dual role of |
acting as a stress tolerance mechanism |
Arabidopsis thaliana |
| members of the A20/AN1 zinc-finger polypeptides |
are critically involved in |
stress tolerance of higher plants |
|
| dark septate root endophytes and other putative root-associated ascomycetes |
are generally well protected against harsh conditions by |
thick and melanized cell walls |
|
| OXrPPR1 transgenic plants |
has longer root length than |
wild-type (WT) plants under CuSO4, NaCl and ABA treatments |
Arabidopsis thaliana |
| leaf metabolites in Posidonia australis |
showed resistance to |
future warming temperature of 1.5°C for 1.5 weeks under ambient light conditions |
Posidonia australis |
| abscisic acid (ABA) production |
may benefit |
whole plant stress tolerance |
|
| belowground growth forms (BGF) |
relationship to stressful conditions depends on |
particular BGF |
|
| development of resting cells |
is crucial for |
ability to withstand harsh environmental conditions |
Thalassiosira pseudonana |
| homoeologous exchange |
correlates with |
salinity and hyperosmotic (drought-like) stresses |
|
| fungal endophytes |
may improve host resilience to |
abiotic stress like drought and heat |
|
| heat-induced plasticity |
may help protect |
flowers against various abiotic stresses |
|
| epigeogenous rhizomes |
occurrence is correlated with |
disturbance frequency, drought, cold, and shade |
|
| epigeogenous rhizomes |
is |
most tolerant to stressful conditions |
|
| OXmiR400/OXrPPR1 transgenic plants |
have root length comparable to |
OXrPPR1 plants |
Arabidopsis thaliana |
| increased leaf dry matter content (LDMC) |
increases stress tolerance by reducing |
fast growth |
Conyza canadensis |
| black fungi |
have in common |
ability to withstand hostile environments |
|
| root oxygen loss (ROL) barrier |
significantly reduced |
toxic effect of hydrogen sulphide |
|
| proline accumulation and scavenging of reactive oxygen species (ROS) |
enhance tolerance to |
abiotic stress |
|
| heterologous expression of OsSAP1 in tobacco |
conferred |
cold stress tolerance |
Nicotiana tabacum |
| Sorghum bicolor L. |
has tolerance to |
drought, waterlogging and salinity |
Sorghum bicolor L. |
| less below-ground respiratory demand in Halophila uninervis |
may allow it to acclimate more than |
larger seagrasses under light deprivation |
Halophila uninervis |
| Hordeum vulgare seedlings with largest endogenous GA concentrations |
are most susceptible to |
abiotic stresses |
Hordeum vulgare |
| anthocyanins |
may contribute to tolerance to |
environmental stresses |
|
| AM fungi |
enhance |
drought tolerance |
|
| improving root systems of crop plants |
may achieve |
secured plant productivity under nonoptimal conditions |
|
| (ALN, ATALN, AT4G04955) mutants that accumulate high levels of allantoin |
exhibit higher tolerance to |
drought and osmotic stress |
Arabidopsis thaliana |
| sequencing of the genome of a desiccation-tolerant moss and a second drought-tolerant moss, when used in conjunction with existing P. patens tools |
would undoubtedly serve to clarify |
mechanisms of stress tolerance in poikilohydric plants |
Tortula; Ceratodon; Physcomitrella patens |
| heterologous expression of OsSAP1 in tobacco |
conferred |
salt stress tolerance |
Nicotiana tabacum |
| transcription factors (TFs) |
function to enhance |
plants' tolerance via processes such as vegetative growth attenuation, osmoprotectant accumulation, and transpiration reduction |
|
| Piriformospora indica |
enhances |
resistance to biotic stresses |
Piriformospora indica |
| (ALN, ATALN, AT4G04955) mutants that accumulate high levels of allantoin |
compared with |
wild-type and (ATXDH1, XDH1, AT4G34890) plants |
Arabidopsis thaliana |
| genetic variation |
provides basis for |
tolerance to unfavorable osmotic and other environmental conditions |
|
| abscisic acid (ABA) |
promotes |
desiccation tolerance |
|
| transgenic wheat with moderate mannitol accumulation |
shows increased biomass and plant height compared to |
wild-type wheat under stressed conditions |
Triticum aestivum |
| HvDhn4s: TaNAC69-1 transgenic plants (D4:NAC69-L3) |
produce significantly more shoot biomass than |
Bobwhite |
Triticum aestivum |
| pre-treatment of adult plants with antimycin A |
significantly improved |
flooding survival in adult plants |
Arabidopsis thaliana |
| stress-tolerant progeny |
maintained healthy vegetative growth under |
high salinity stress |
Arabidopsis thaliana |
| double mutant cells |
are able to grow under |
excess illumination |
Chlamydomonas reinhardtii |
| (ATRAPTOR1B, RAPTOR1, RAPTOR1B, AT3G08850) plants |
are more tolerant to |
carbon starvation conditions |
Arabidopsis thaliana |
| heterologous expression of OsSAP1 in tobacco |
conferred |
dehydration stress tolerance |
Nicotiana tabacum |
| LOC_Os05g10670 |
was recently reported to confer |
improved tolerance to high-salt and drought stresses |
Oryza sativa |
| endopolyploidy |
plays role in |
abiotic stress response |
|
| sequencing of the genome of a desiccation-tolerant moss |
would serve to clarify |
mechanisms of stress tolerance in poikilohydric plants |
Tortula |
| cell proliferation and growth coordination through activation and repression of gibberellin (GA) signaling via DELLA stabilization |
is necessary to establish |
stress tolerance in the whole plant and in specific organs |
Oryza sativa |
| angiosperm perennials |
might better tolerate |
long-term darkness |
|
| crops |
exhibit sensitivity to |
harsh climates and soil conditions |
|
| up-regulation of phytochrome genes |
may serve to mitigate |
detrimental effects of darkness |
Haberlea rhodopensis |
| exogenous gibberellic acid (GA) application |
reverses |
salt stress-induced inhibition of germination |
|
| molecular chaperones |
function to enhance |
plants' tolerance via processes such as vegetative growth attenuation, osmoprotectant accumulation, and transpiration reduction |
|
| HvDhn4s: TaNAC69-1 transgenic plants (D4:NAC69-L3) |
produce significantly more |
shoot biomass under mild salt stress and water limitation |
Triticum aestivum |
| genes related to ROS homeostasis, mitochondrial functioning and cell wall remodelling |
potentially improve |
survival under stress conditions |
Arabidopsis thaliana |
| Al resistance |
was not significantly different between WT and rah1 single mutant |
WT and (RAH1, AT5G27920) |
Arabidopsis thaliana |
| Halodule uninervis |
did not appear to be impacted by |
high temperatures and low light |
Halodule uninervis |
| role of natural or synthetic 'anti-ER stress' chaperones ( (BIP3, HSP70-13, AT1G09080) or TUDCA, respectively) |
is demonstrated in |
tolerance of Arabidopsis to high light stress |
Arabidopsis thaliana |
| 2-week-old plants |
display better flooding tolerance than |
3-week-old plants |
Arabidopsis thaliana |
| corn hpPARP-transgenic plants |
show significant difference in |
yield under drought |
Zea mays |
| DH maize cell cultures |
displays tolerance to |
lethal concentrations of DCB |
Zea mays |
| ABA pre-treatment |
reduced submergence survival at |
both ages |
Arabidopsis thaliana |
| SALT TOLERANCE (BBX24, STO, AT1G06040) |
is |
stress-tolerance-related gene |
|
| DH maize cell cultures |
has I90 values very dissimilar to |
H12 maize cell cultures |
Zea mays |
| variegated phenotype observed in the (ATMSH1, CHM, CHM1, MSH1, AT3G24320) mutant |
has been reported to enhance |
plant survival under natural conditions of environmental stress, such as photooxidative light conditions |
|
| best hpPARP-transgenic lines |
show yield increase of |
20–40% under drought |
Brassica napus; Zea mays |
| dehydration-like stress |
jeopardizes |
plant fitness and survival |
|
| (RAE1, AT5G01720) mutant |
showed higher Al resistance than |
WT |
Arabidopsis thaliana |
| glyoxalase I |
has been shown to confer tolerance to |
abiotic stresses such as salt |
Nicotiana tabacum |
| alkenal reductase overexpression |
are usually more tolerant to |
stress conditions |
|
| shoot length of OE lines |
were longer than those of |
WT under abiotic stress conditions |
Oryza sativa |
| DH maize cell cultures |
has I50 values comparable to |
NH maize cell cultures |
Zea mays |
| DH maize cell cultures incubated with DCB |
displays behavior similar to |
maize cultures never cultured in presence of DCB |
Zea mays |
| stress-related genes |
were applied in |
genetic engineering of drought-tolerant crops |
|
| programmed cell death (PCD) |
promotes |
plant survival |
|
| pre-treatment of juvenile plants with antimycin A |
did not improve |
flooding survival |
Arabidopsis thaliana |
| cuticle |
serves as shield against |
osmotic stress |
|
| engineered plants |
have manifested |
improved stress-resistance phenotypes |
|
| 1 µg ml–1 Tunicamycin (Tm)-treated plants |
exhibit clear tolerant phenotype to |
high light stress |
Arabidopsis thaliana |
| C4 photosynthesis |
provides greater resilience to |
abiotic stresses |
|
| better climate tolerance |
could be achieved in |
current and re- or de novo domesticated crops |
|
| Strobilanthes cusia |
is capable of |
extreme environmental adaptation |
Strobilanthes cusia |
| Ex-TAQed plants |
10 of 10 944 were insensitive to |
high salinity stress during seed germination |
Arabidopsis thaliana |
| (AtSTOP1, STOP1, AT1G34370) |
is required for |
both Al resistance and proton tolerance |
Arabidopsis thaliana |
| (RAE1, AT5G01720) mutation |
could increase |
proton tolerance |
Arabidopsis thaliana |
| RADICAL-INDUCED CELL DEATH 1 (ATP8, AtRCD1, CEO, CEO1, RCD1, RIMB1, AT1G32230) |
is |
stress-tolerance-related gene |
|
| T-DNA-mediated inactivation of (anac017, NAC017, RAO2, AT1G34190) |
significantly reduced |
survival under submergence conditions |
Arabidopsis thaliana |
| VOCs |
mediate tolerance to |
abiotic stresses including elevated temperature |
|
| ER–PCD network-inhibiting (ATBI-1, ATBI1, BI-1, BI1, AT5G47120) |
ultimately raises |
plant tolerance to oxidative stress |
|
| cuticle |
serves as shield against |
salt stress |
|
| (anac017, NAC017, RAO2, AT1G34190) knockout |
provides evidence for the involvement of ANAC017 in |
flooding tolerance |
Arabidopsis thaliana |
| genetic engineering (GE) |
introduces |
drought tolerance |
|
| higher H + uptake ability in als5 mutant under low-pH stress |
was abolished by |
exposure to Al |
Arabidopsis thaliana |
| overexpression of TaABC1 |
conferred tolerance to |
drought |
Arabidopsis thaliana |
| UWO and perhaps other extremophiles |
can survive |
multistress environments |
Chlamydomonas raudensis |
| (AtCEST, CEST, Y3IP1, AT5G44650) |
is involved in |
stress tolerance |
Arabidopsis thaliana |
| MAIF1 overexpression |
reduces |
inhibition of abiotic stressors |
|
| Overexpression of spinach monooxygenases |
increased tolerance to |
salt, temperature and drought stress |
Oryza sativa; Nicotiana tabacum |
| deoxybrassinolide |
is known to have |
protective effects on membrane stability |
Zea mays |
| cuticle |
serves as shield against |
drought |
|
| low Tunicamycin (Tm) concentration |
enhanced |
phototolerance |
Arabidopsis thaliana |
| Arabidopsis with reduced PARP activity following transformation with PARP hairpin (hpPARP) construct |
are more resistant to |
heat |
Arabidopsis thaliana |
| H12 maize cell cultures |
has I90 values approximately 10 times higher than |
DH maize cell cultures |
Zea mays |
| Arabidopsis with reduced PARP activity following transformation with PARP hairpin (hpPARP) construct |
are more resistant to |
high light |
Arabidopsis thaliana |
| DH maize cell cultures |
has I10 values very dissimilar to |
H12 maize cell cultures |
Zea mays |
| large-effect QTLs |
confer tolerance to |
submergence |
|
| cellulose deficient mutant plants |
are typically more sensitive to |
abiotic stress |
|
| cell wall |
plays prominent role in |
abiotic stress tolerance |
|
| liquid-liquid phase separation (LLPS) |
influences |
stress tolerance |
|
| DNA methylation changes |
are linked to |
improved stress tolerance |
|
| mucilage production |
is low in |
overexpressors compared to WT |
Coccomyxa subellipsoidea |
| abiotic stress tolerance |
has implications for |
plant community dynamics |
|
| (ATRAPTOR1B, RAPTOR1, RAPTOR1B, AT3G08850) plants |
develop visibly better ability to regreen and produce new leaves after |
carbon starvation |
Arabidopsis thaliana |
| flavonoids |
protect plants from |
various abiotic stresses |
|
| sugar transport and accumulation in flowers |
is crucial factor determining |
resilience of tolerant genotypes to combined heat and drought stress |
|
| highly hydroxylated sphingolipids |
provide protection against |
environmental stresses |
|
| WT colonies during starvation |
secrete |
mucilage |
Coccomyxa subellipsoidea |
| new plant varieties |
have to be |
stress resilient |
|
| ancient genomes |
offer practical resources to improve |
resilience |
|
| late embryogenesis abundant proteins |
are directly involved in |
stress tolerance |
|
| aluminium resistance |
is related to |
lower Al accumulation in the root tip |
Phaseolus vulgaris |
| canola with reduced PARP activity following transformation with PARP hairpin (hpPARP) construct |
are more resistant to |
heat |
Brassica napus |
| DH maize cell cultures |
has I50 values very dissimilar to |
H12 maize cell cultures |
Zea mays |
| population genetic studies |
have identified |
striking degree of variability in tolerance to abiotic factors |
Hordeum vulgare |
| endophytes |
support host through |
abiotic stress alleviation |
|
| soil isolate collection from arsenic-contaminated rhizosphere |
was analyzed for |
arsenic resistance |
|
| plants |
endure |
abiotic and biotic stresses under fluctuating environmental challenges |
|
| this type of study |
allows |
plant resistance to a multistress situation |
|
| overexpression of (ATCBF1, CBF1, DREB1B, AT4G25490) |
conferred |
stress tolerance |
|
| UWO |
could maintain growth if |
lake temperatures increased and salinity decreased simultaneously |
Chlamydomonas raudensis |
| (ATMTP11, MTP11, AT2G39450) |
functions in |
Mn tolerance |
Arabidopsis |
| overexpression of polyamine-synthesizing enzymes |
allows generation of |
plants with increased stress tolerance |
|
| flooding conditions in the present study |
exposed |
tolerance differences between the provenances |
|
| abiotic stress tolerance |
has implications for |
agricultural productivity |
|
| canola with reduced PARP activity following transformation with PARP hairpin (hpPARP) construct |
are more resistant to |
drought |
Brassica napus |
| tolerance enhancement by genetic engineering to increase glycine betaine (GB) biosynthesis |
is more successful in |
salt and chilling stresses |
|
| anthocyanins |
contribute to |
plant tolerance to abiotic stress |
|
| PG mutant lines |
support |
notion that plastoglobules are important mediators of plant stress tolerance capacity |
|
| climate-resilient cultivars |
have |
enhanced resistance/tolerance to anticipated biotic and abiotic stresses |
|
| increasing longevity |
makes increasingly important |
constitutive tolerance of environmental stress |
|
| rice (Oryza sativa) |
shows highest tolerance to |
Al toxicity |
Oryza sativa |
| genetic polymorphisms |
are associated with |
environmental stress responses |
|
| CcCIPK-interacting proteins |
may reveal |
mechanism underlying improved stress tolerance in pigeon pea |
|
| excessive activation of anaerobic metabolism |
could be detrimental to |
surviving the stress |
|
| H12 maize cell cultures |
has I10 values approximately 10 times higher than |
DH maize cell cultures |
Zea mays |
| floral pigments |
are |
line of defense against desiccation |
|
| mRNA-binding proteins |
are directly involved in |
stress tolerance |
|
| (DORN1, LecRK-I.9, P2K1, AT5G60300) mutants |
rescued from |
fumonisin B1 toxicity |
Arabidopsis thaliana |
| mucilage secretion |
is |
adaptive mechanism against unfavorable conditions |
Coccomyxa subellipsoidea |
| increase in H2O2 and ABA levels |
resulting in |
improved stress tolerance to heat |
Solanum lycopersicum |
| wild-type plants |
are less sensitive to |
abiotic stress |
|
| chaperones |
are directly involved in |
stress tolerance |
|
| acid soils that permit deep rooting |
require |
drought resistance |
|
| overexpression of adenine isopentenyl transferase (ipt) gene |
improves |
heat tolerance in perennial grass species |
|
| als5 mutant |
shows tolerance to |
low pH |
Arabidopsis thaliana |
| enhancement of osmotic potential (OP) |
leads to |
avoidance of damage to cell membranes |
|
| 4% oxygen treatment |
results in |
increased tolerance to anoxia |
|
| overexpression of P5CS |
conferred |
stress tolerance |
|
| ER–PCD network-inhibiting (ATBI-1, ATBI1, BI-1, BI1, AT5G47120) |
ultimately raises |
plant tolerance to intense light |
|
| Epigenome engineering |
could be utilized to develop |
crops with enhanced resistance to abiotic stresses |
|
| overexpression of tomato ASR1 or lily ASR1 |
enhances tolerance to |
drought and salt stresses |
Nicotiana tabacum; Arabidopsis thaliana |
| DH maize cell cultures |
has I10 values comparable to |
NH maize cell cultures |
Zea mays |
| molecular and biochemical changes |
ameliorate exposure to |
particular stress |
|
| (anac017, NAC017, RAO2, AT1G34190) |
contributes positively to |
plant responses to submergence also at later vegetative stages |
Arabidopsis thaliana |
| Brassica juncea glyoxalase I overexpression line |
showed significant increase in tolerance compared to wild-type when treated with |
methylglyoxal and sodium chloride |
Nicotiana tabacum |
| down-regulation of AO activity during storage |
probably contributes to |
improved fruit tolerance to stressful conditions imposed by detachment from plant |
Pisum sativum |
| (AtVIP1, SUE3, VIP1, AT1G43700) mutant |
displayed enhanced tolerance to |
heavy metal stress |
Arabidopsis thaliana |
| Sullu |
is previously shown to be |
drought-tolerant |
|
| abscisic acid (ABA) signalling |
up-regulates |
genes with roles in stress tolerance |
|
| (AtVIP1, SUE3, VIP1, AT1G43700) and (SUE4, AT3G55880) mutants |
displayed enhanced tolerance to |
oxidative stress (paraquat) |
Arabidopsis thaliana |
| additional mortality on exposure to acute stress after the conditioning |
appears to be little |
little additional mortality |
Oryza sativa |
| constitutive expression of rice OsTOP6A or OsTOP6B |
confers |
abiotic stress tolerance to transgenic Arabidopsis plants |
Arabidopsis thaliana |
| plants |
have |
intricate defence mechanisms |
|
| versatility of hormonal regulation |
allows avoidance of |
detrimental effects of stress |
|
| transgenic plants overexpressing (STZ, ZAT10, AT1G27730) |
were found to be more tolerant to |
drought, salinity, osmotic stress, heat stress, and high-light stress |
Arabidopsis thaliana |
| root hair length |
had a strong relationship with |
Al 3+ tolerance of root hairs |
|
| CsubMADS1 transcription factor |
probably governs |
stress tolerance in C-169 during lag phase |
Coccomyxa subellipsoidea |
| engineering plants with enhanced stress tolerance |
avoids |
commonly associated growth penalties |
|
| survival of the conditioned plants |
was better than |
that of plants that had not been conditioned |
Oryza sativa |
| drought stress |
may reduce |
ozone (O3) injury in crop plants and forest species |
|
| alr104 mutant |
shows tolerance to |
combined low-pH/Al treatment |
Arabidopsis thaliana |
| Arabidopsis and wheat |
might employ |
similar mechanisms to combat combined low-pH/Al stress |
Arabidopsis thaliana; Triticum aestivum |
| these compounds |
are drought-responsive and putatively related to |
tolerance |
|
| anti-freeze proteins |
are directly involved in |
stress tolerance |
|
| survival of plants conditioned with 100 mM NaCl stress |
was significantly better on subsequent exposure to toxic 200 mM NaCl compared with |
unconditioned plants |
Oryza sativa |
| altered protein expression |
may indicate potential role in |
alleviating a later-occurring drought stress episode |
Triticum aestivum |
| secondary metabolites |
serve as |
chemical defence strategy |
|
| tobacco and Arabidopsis plants with suppressed expression of apoplastic AO gene |
were more tolerant to |
salt stress |
Nicotiana tabacum; Arabidopsis thaliana |
| sensitivity to drought |
determined |
magnitude of ozone (O₃) tolerance in wheat species under combination of drought and ozone (O₃) exposure |
Triticum aestivum |
| alr104 mutant |
was tolerant to |
low pH |
Arabidopsis thaliana |
| morphological, physiological, and biochemical responses |
decrease |
stress exposure damage |
|
| heterogonous over-expression of GsCBRLK in Arabidopsis |
resulted in |
enhanced plant tolerance to salt and ABA stress |
Arabidopsis thaliana |
| cross-tolerance between drought and ozone (O3) stress in winter wheat species |
is little known about |
whether any cross-tolerance exists |
|
| fine-tuned interaction of hormones and ROS with signaling components |
allow |
plant to survive different abiotic stress conditions |
|
| abscisic acid (ABA) |
confers tolerance to |
environmental stresses |
|
| exogenous application of cytokinins (CKs) |
mitigates |
root electrolyte leakage |
|
| Low-pH tolerance (als5 mutant) |
was associated with |
higher H + uptake under low-pH stress |
Arabidopsis thaliana |
| Arabidopsis thaliana accession Ler-1 |
tolerated |
Sr2+ concentrations up to 1 mM |
Arabidopsis thaliana |
| free amino acid accumulation |
appears to be of major importance in |
protection of plants |
|
| increased root viability |
contributes to |
tolerance of creeping bentgrass to water stress |
Agrostis stolonifera |
| rice FOX line R07303 |
contained |
(AtCEST, CEST, Y3IP1, AT5G44650) |
Oryza sativa |
| chloroplastic SODs overexpression |
improves |
stress tolerance |
|
| habitat-adapted fungal endophytes |
are required for |
plant survival in native habitats |
|
| efficient recovery from NH4+ toxicity in rice under moderate K+ conditions |
may offer focal point for |
bioengineering of ammonium tolerance into sensitive crop genotypes |
Oryza sativa |
| over-expressed poplar peroxisomal ascorbate peroxidase (APX) gene in tobacco |
could enhance |
plants' stress tolerance |
tobacco |
| TaABC1 overexpression |
confers increased tolerance to |
cold stress |
Arabidopsis thaliana |
| CEST-overexpressing transgenic Arabidopsis |
retained more chlorophyll than |
wild-type |
Arabidopsis thaliana |
| delay of Al uptake by cytosol |
improves |
plant resistance to Al |
|
| RIL46 |
was also tolerant to |
ozone |
Oryza sativa |
| alleviative effect of Si on Mn toxicity |
was described for |
common bean |
Phaseolus vulgaris |
| mechanisms that underlie plant tolerance to acidic and Al stresses |
appear to be |
different |
Arabidopsis thaliana |
| increasing endogenous SODs |
enhances |
stress tolerance |
|
| lower levels of reactive electrophile species (RES) |
may contribute to |
survival during severe stress |
|
| sugar beet |
is relatively robust when grown under |
hot, dry, or saline conditions |
|
| heterologous expression of (ASH2R, TRAUCO, TRO, AT1G51450) in Bre2p Δ yeast |
partially restores |
growth in formamide |
|
| high-dormancy seeds |
are more tolerant to |
high temperatures imposed at imbibition |
Lolium rigidum Gaud |
| TaABC1-overexpressing transgenic Arabidopsis |
had increased tolerance to |
abiotic stresses |
Arabidopsis thaliana |
| slight osmotic response |
may allow |
increased tolerance via adaption for subsequent stress |
|
| poor root functioning |
is |
key limitation for waterlogging tolerance in dryland crops |
Triticum aestivum L.; Hordeum vulgare L.; Zea mays L. |
| fractions containing high DP fructans (DP >7) |
do not protect |
liposomes from drying |
|
| exudation of OAs by plant roots to the rhizosphere |
is |
effective strategy to cope with cation toxicity and Pi deficiency |
|
| most effective EBR concentration |
is approximately |
200nM in AC and pTRV plants |
|
| foliar application of secondary messengers |
increased |
tolerance to salt stress |
|
| instructive chromatin regulators |
activity can be modulated to allow |
enhanced primary stress tolerance |
|
| (MSRA4, PMSR4, AT4G25130) expression |
confers protection against |
oxidative stress |
Arabidopsis thaliana |
| detoxification of Al in the apoplast through root exudates |
plays important role in |
Al resistance |
|
| sustaining cell cycle progression |
is |
integral part of the stress tolerance mechanism in plant roots |
|
| interaction of stress and sugar signalling |
is essential for |
plants to tolerate stress |
|
| stress tolerance genes |
include |
heat shock factors |
Zea mays |
| lack of acclimation in SAG relative to UWO |
resulted in |
sharp transition point between salt concentrations that enable or limit growth |
Chlamydomonas raudensis |
| basal thermotolerance |
is |
the inherent ability to survive temperatures above optimal growth temperatures |
|
| fungal endophytes |
confer |
habitat-specific stress tolerance |
|
| good barrier function 1 week after returning the plants to control medium |
may be expected to be reflected in |
enhanced survival |
Oryza sativa |
| ABA-deficient not mutant |
exhibits reduced tolerance to |
photo-oxidative stress |
|
| virus-induced gene silencing of (ATMPK1, MPK1, AT1G10210) /2 |
compromises |
acclimation-induced cross-tolerance |
Solanum lycopersicum |
| functional stay-green |
is |
valuable trait for improving crop stress tolerance |
|
| (ATHAL3, ATHAL3A, HAL3, HAL3A, AT3G18030) overexpression |
showed improved |
growth |
Arabidopsis thaliana; Oryza sativa |
| activation of antioxidant enzyme machinery by polyamines (PAs) |
reduces |
oxidative stress-induced membrane injury and electrolyte leak |
|
| some species of associative and endophytic diazotrophic bacteria |
are reported to increase |
plant tolerance against biotic and abiotic stresses |
|
| potato |
is less tolerant to |
copper stress |
|
| amino acids (mostly proline and glycine betaine) |
may act as |
protective compounds |
durum wheat |
| transgenic Arabidopsis lines with different expression levels of ABP9 |
show consistent phenotypes in |
stress performance |
Arabidopsis thaliana |
| GmERF057 expression in transgenic tobacco plants |
conferred enhanced tolerance to |
salt and pathogen stress |
Nicotiana tabacum |
| ammonium (NH4+) tolerance in rice |
depends upon |
potassium (K+) supply |
Oryza sativa |
| high ascorbate content plants and their fruit |
would not only be more nutritious but may also be more resistant to |
abiotic stresses such as high light, ozone, salt, and drought |
|
| high Al resistance in wheat |
was attributed to |
Triticum aestivum Al-activated malate transporter (TaALMT1) |
Triticum aestivum |
| silicon (Si) |
alleviates |
aluminium toxicity |
|
| efficient water use |
contributes to |
tolerance of creeping bentgrass to water stress |
Agrostis stolonifera |
| spermidine |
may have dual functions in |
plant stress tolerance |
|
| exogenous application of ABA |
has been reported to increase |
tolerance and crop yield |
|
| flowering |
ensures production of flowers even when plants are growing under |
adverse conditions |
|
| rice varieties with tolerance to various abiotic stress factors |
include tolerance to |
salinity, mineral deficiencies or toxicities, and flooding |
rice |
| glyoxalase I overexpression in tobacco |
showed higher tolerance to |
salt and methylglyoxal |
Nicotiana tabacum |
| membrane integrity and stability |
is |
major component of environmental stress tolerance |
|
| Arabidopsis (ATPRXIIF, PRXIIF, AT3G06050) |
is implicated in tolerance to |
salt stress |
Arabidopsis thaliana |
| EBR treatment |
is ineffective at restoring stress tolerance at |
ABA-deficient not mutant at 24h after application |
|
| changes in chromatin organization |
may endow plants with ability to survive |
combinations of stresses |
|
| fructans |
are believed to confer |
drought tolerance |
Lolium perenne |
| heat-responsive proteins |
is critical for understanding |
molecular mechanisms of stress tolerance |
|
| sorbitol |
is thought to be important in |
stress tolerance |
|
| screening for high g s |
may be the most effective way of selecting genotypes that will |
grow fast in saline soil |
durum wheat |
| genome of H. chilense |
seems to confer a certain degree of tolerance to |
drought and salt |
Hordeum chilense |
| diurnal leaf curling |
is example of |
plant architectural elements that correlate with improved tolerance to stress |
Sorghum bicolor |
| positive correlation of increased levels of glutathione and SA |
has been related to |
abiotic stress tolerance in several Brassicaceae species |
Brassicaceae |
| constitutive high growth |
rather than high physiological tolerance (i.e. small phenotypic plasticity), confers adaptation to |
salinity |
durum wheat |
| (ATMPK1, MPK1, AT1G10210) and (ATMPK2, MPK2, AT1G59580) |
are necessary components for |
acclimation-induced stress tolerance |
Solanum lycopersicum |
| cytokinin |
effects on plant resistance to stress |
plant resistance to stress |
|
| Salicornia europaea |
can survive under |
high salinity and N-deficient habitat conditions |
Salicornia europaea |
| GmERF089 transgenic plants |
had enhanced tolerance to |
salt and drought stresses |
|
| potassium (K+) homeostasis in rice |
shows more effective recovery from |
ammonium (NH4+) toxicity |
Oryza sativa; Hordeum vulgare |
| overexpression of ERF genes |
enhances resistance to |
biotic and abiotic stresses |
|
| genotypic evaluation during the first part of the crop cycle (perhaps even at the seedling stage) |
may be a valid option to select for |
salt tolerance in durum wheat |
durum wheat |
| silencing of (ATMPK1, MPK1, AT1G10210) /2 |
compromised |
PA-induced chilling tolerance |
Solanum lycopersicum |
| cold-acclimation-induced cold tolerance |
is associated with |
increased H2O2 accumulation |
|
| fungal endophytes |
confer habitat-specific stress tolerance to |
monocots |
|
| differences in ROS stress level formed in the leaves |
rather than the activity of ROS scavenging enzymes accounted for |
tolerance |
Oryza sativa |
| K+ acquisition and homeostasis in rice |
is resistant to |
ammonium (NH4+) nutrition |
Oryza sativa |
| transgenic overexpression of UDP-glucose-4-epimerase |
conferred tolerance to |
salt, drought, and freezing stress in Arabidopsis thaliana |
Arabidopsis thaliana |
| magnesium-dependent mechanisms |
govern |
alleviation of aluminium toxicity |
|
| morphological, physiological, and biochemical responses |
facilitate |
repair of damaged systems |
|
| overexpression of TaABC1 |
increased |
stress tolerance levels in transgenic Arabidopsis |
Arabidopsis thaliana |
| mutualistic fungi |
confer tolerance to |
disease |
|
| Aechmea 'Maya' |
is not particularly tolerant of |
severe light limitation in the short term |
Aechmea 'Maya' |
| improved root functioning |
should aid tolerance of |
soil toxins in anaerobic soils |
|
| heat tolerance |
has molecular basis in |
molecular mechanisms |
|
| ectopic expression of XhDsi-1 VOC in yeast |
did not confer |
tolerance to methylglyoxal in yeast glyoxalase I mutant |
Saccharomyces cerevisiae |
| Transgenic approaches with genes coding FTs to produce fructans with different DPs, such as PpFT1 and wft1 |
would probably reveal |
relationship between the DP of fructans and their physiological roles |
|
| RIL432 |
coped better with |
nitrate starvation |
Arabidopsis thaliana |
| osmotins and osmotin-like proteins |
are commonly associated with tolerance to |
osmotic stress |
|
| transient system for local and continuous delivery of indole-3-acetic acid (IAA) |
is used for |
enhancing stress tolerance in higher plants |
|
| rice coleoptiles exposed to combination of anoxia and pH 3.5 |
demonstrated |
tolerance to anoxia even during acid load imposed by exposure to pH 3.5 |
Oryza sativa |
| catechol |
is associated with |
aluminum tolerance |
|
| shoot growth and yield of tomato (Solanum lycopersicum) with enhanced abscisic acid (ABA) production |
were less inhibited by |
drought and salt stress |
Solanum lycopersicum |
| MADS-box transcription factors (MADS-box TFs) |
regulate |
proline accumulation |
|
| barley |
is more tolerant to salinity than |
durum wheat |
Hordeum vulgare; durum wheat |
| NAC genes |
play significant roles in |
plant tolerance to various environmental stresses |
|
| arginase1/2 mutants |
exhibited increased |
stress tolerance |
Arabidopsis thaliana |
| ABA-deficient not mutant |
exhibits reduced tolerance to |
heat stress |
|
| chromosome engineering methodologies |
have enabled transfer of |
genes controlling abiotic stress tolerance |
|
| modulation of instructive chromatin regulators |
should avoid causing |
growth or yield trade-offs |
|
| genotypic ranking |
suggests that genetic variability for salinity tolerance in durum wheat is maintained through |
entire crop cycle |
durum wheat |
| transgenic plants |
showed |
better survival rate |
Oryza sativa |
| fruits |
have systems in place that help them tolerate |
dehydration |
|
| ApY2SK2 transgenic Arabidopsis thaliana |
shows enhanced stress tolerance under |
drought stress |
Arabidopsis thaliana |
| Funneliformis mosseae inoculation and selenite application at booting stage |
significantly enhances |
saline-alkali tolerance of rice |
Oryza sativa |
| stigmasterol |
helps enhance |
plant resistance against heat stress |
Oryza sativa |
| Arabidopsis lines overexpressing RcFeSOD8 |
exhibited improved germination under |
heat stress |
Arabidopsis thaliana |
| cell membrane stability |
has |
positive association with physiological and biochemical parameters |
|
| ethylene |
affects |
responses to abiotic stresses |
|
| why1why3polIb-1 plants grown for 3 weeks at normal light, then transferred to high-light conditions for 1 week |
were considerably less affected by |
high-light treatment |
Arabidopsis thaliana |
| copy number variation |
is |
well-documented means to increase biotic and abiotic stress tolerance |
|
| SlMPK2 |
is involved in |
plant tolerance to abiotic stresses |
Solanum lycopersicum |
| metabolic homeostasis |
may confer |
adaptive and protective functions under abiotic stresses |
|
| early life stages of populations from distribution limits of Scots pine |
have capacity to tolerate and persist under |
increased temperatures and altered water availability as projected by climate change scenarios |
Pinus sylvestris |
| silencing of (ATMPK1, MPK1, AT1G10210) |
compromised |
PA-induced chilling tolerance |
Solanum lycopersicum |
| ZAT12-overexpressing Arabidopsis plants |
showed higher tolerance to |
cold, oxidative, osmotic, and high-light stresses |
Arabidopsis thaliana |
| stress tolerance mechanism of nitrate retention |
is similar to |
mechanism proposed for (AtNPF7.2, NPF7.2, NRT1.8, AT4G21680) nitrate reallocation |
Arabidopsis thaliana |
| newer maize hybrids |
may have increased tolerance to |
low soil nitrogen (N) |
|
| isoprene emitters |
are better protected against |
oxidative stress |
|
| temperate japonica subpopulation |
shows highest relative Al tolerance among |
five rice subpopulations |
Oryza sativa |
| foliar application of secondary messengers |
increased |
tolerance to extreme temperature |
|
| LeCDJ1 elevated expression |
may be attributed to |
enhanced protection of plants against damaging effects of environmental stresses |
Solanum lycopersicum |
| Chenopodium rubrum |
is tolerant to |
relatively high salt and nitrate concentrations |
Chenopodium rubrum |
| closely related species |
show substantial variations in |
NH4+ tolerance |
|
| Melatonin (MLT) |
might be beneficial for |
organisms facing environmentally induced oxidative stress |
|
| isoprene |
achieves |
protective effect against thermal and oxidative stresses |
|
| drought- and salt-inducible TaHsf members |
may have |
similar role |
Triticum aestivum |
| (ATCESA8, CESA8, IRX1, LEW2, AT4G18780) Arabidopsis gene |
causes |
enhanced drought and osmotic stress tolerance when mutant |
Arabidopsis thaliana |
| C4 grasses |
perform better under |
hot, dry conditions |
|
| glutathione peroxidase functionality in GSTs |
has been demonstrated to be important in |
tolerance of transgenic tobacco to chilling |
Nicotiana tabacum |
| flavodoxin expression in transgenic plants |
results in increased tolerance to |
multiple stresses |
|
| transgenic plants expressing CcCDR |
could successfully complete reproductive cycle under |
drought, salt, and cold stress conditions |
Arabidopsis thaliana |
| EBR treatment at 200nM concentration |
increases Fv/Fm by approximately 20% |
photo-oxidative stress tolerance |
|
| SUPPRESSOR OF (PPI1, AT4G27500) LOCUS1 (DAL1, SP1, AT1G63900) overexpression |
may be effective strategy in generating |
crops better able to cope with abiotic stresses |
Arabidopsis thaliana |
| Yeasts expressing (ABCG29, AtABCG29, ATPDR1, PDR1, AT3G16340) |
exhibited |
increased tolerance to p-coumaryl alcohol |
|
| (ATFKBP65, FKBP65, ROF2, AT5G48570) mutant |
shows similar phenotype to wild-type in presence of |
sorbic acid |
Arabidopsis thaliana |
| mannitol |
is important to increase tolerance to |
salt and osmotic stress |
|
| wild relative species of Solanaceae |
show |
wide tolerance levels to abiotic stresses |
|
| SlCDF1 and SlCDF3 |
were investigated for roles in |
abiotic stress tolerance |
Solanum lycopersicum |
| knockout (AtZAT12, RHL41, ZAT12, AT5G59820) Arabidopsis seedlings |
suffered increased sensitivity to |
cold, oxidative, osmotic, and high-light stresses |
Arabidopsis thaliana |
| precipitation |
strongly influences |
plant survival |
|
| 35S::miR156 expression |
increased |
stress tolerance |
Arabidopsis thaliana |
| anthocyanin |
could protect plants from |
damage |
plants |
| Piriformospora indica |
improves |
barley under Al stress |
Hordeum vulgare |
| RcFeSOD8 |
enhances tolerance to |
drought stress |
Ricinus communis; Arabidopsis thaliana |
| exogenous hydrogen sulfide (H 2 S) fumigation |
alleviates |
toxic symptoms associated with Cr 6+ stress |
Arabidopsis thaliana |
| overexpression of (ATCBF3, CBF3, DREB1A, AT4G25480) |
conferred |
stress tolerance |
|
| K+ acquisition and homeostasis in rice |
is only partially resistant to |
ammonium (NH4+) nutrition |
Oryza sativa |
| crops |
should be enabled to grow in |
drier and more infertile soils |
|
| tobacco and sugar beet plants expressing bacterial levansucrase |
exhibit |
increased drought and freezing tolerance |
|
| (ART1, HUA2, AT5G23150) (Al-tolerance transcription factor 1) |
is involved in |
Al tolerance |
Oryza sativa |
| EBR treatment at 30nM concentration |
increases Fv/Fm only marginally |
photo-oxidative stress tolerance |
|
| maintaining redox homeostasis |
is prerequisite for |
development of tolerance against biotic stresses |
|
| C4 photosynthesis trait |
enables |
efficient growth under water- and nitrogen-limited conditions at high temperatures |
|
| Arabidopsis plants overexpressing SlCDF1 and SlCDF3 genes |
showed improved tolerance compared with |
wild type (WT) |
Arabidopsis thaliana |
| next generation |
must be preserved against |
abiotic stresses |
Triticale |
| induction of (AtNPF7.2, NPF7.2, NRT1.8, AT4G21680) |
contributes essentially to |
Cd 2+ stress tolerance |
Arabidopsis thaliana |
| models in different crop systems |
should increase |
resilience to environmental stresses |
|
| endopolyploidy |
is linked with |
higher stress tolerance in plants |
|
| Spartina densiflora |
has |
physiological and morphological versatility |
Spartina densiflora |
| drought priming |
may alleviate |
severe drought stress event |
Triticum aestivum |
| overexpression of some HsfA genes, such as (ATHSFA2, HSFA2, AT2G26150) and HaHsfA9 |
can result in |
thermotolerance and salt and dehydration stress tolerance |
Arabidopsis thaliana; Helianthus annuus |
| AOX (alternative oxidase) |
has a role in maintaining growth and promoting plant survival under |
adverse conditions |
|
| PMTV infection |
protects plants from |
drought stress |
Nicotiana benthamiana |
| quiescent state |
enables |
plant endurance of various environments |
|
| petals |
must resist |
unfavorable environmental conditions |
|
| cost / benefit balance of individual stress tolerance mechanisms |
is essential for understanding |
stress tolerance mechanisms |
Thellungiella; Arabidopsis thaliana; crops |
| OsACA6 transgenic plants |
showed greater resistance than |
wild-type plants |
Nicotiana tabacum |
| overexpression of the Arabidopsis ortholog of this gene |
confers |
drought and salt tolerance |
Arabidopsis thaliana |
| miR156 induction |
assigns energy to |
tolerance process |
plants |
| ZjDREB1.4 |
is potentially useful for producing |
transgenic plants tolerant to high temperature and/or cold stresses with few negative effects |
Arabidopsis thaliana |
| growing plants |
must withstand |
mechanical disturbances from intense rainfall, wind, or arboreal animals |
|
| most plants |
cannot survive |
50 µg mL⁻¹ arsenic |
|
| (ATCIPK23, CIPK23, LKS1, PKS17, SnRK3.23, AT1G30270) overexpression |
significantly enhanced |
tolerance to low K+ |
Arabidopsis thaliana |
| auxin maximum re-establishment and CSCD death mechanism |
improves |
root's ability to withstand environmental stresses |
Arabidopsis thaliana |
| Serendipita indica |
enhances |
host resilience against biotic and abiotic stresses |
|
| (ATFKBP65, FKBP65, ROF2, AT5G48570) overexpression line |
shows less inhibition of growth by |
acetic acid |
Arabidopsis thaliana |
| EBR treatment |
restores heat and photo-oxidative stress tolerance in |
ABA-deficient not mutant |
|
| upregulated activities of photosynthesis |
may indicate potential role in |
alleviating a later-occurring drought stress episode |
Triticum aestivum |
| crop plants with enhanced stress tolerance |
would be beneficial for |
delaying onset of premature senescence |
|
| reduced water availability due to high salt level |
implies strong correlation between |
drought and salt stress tolerance |
|
| (STZ, ZAT10, AT1G27730) overexpressors and loss-of-function mutants |
display |
enhanced tolerance to drought and salinity stresses |
Arabidopsis thaliana |
| genetic background of cultivars |
influences |
ability to thrive in suboptimal environments |
|
| hypothesis |
predicts that |
translocon at the outer envelope membrane of chloroplasts mutant with reduced capacity to import photosynthesis-related proteins would show abiotic stress tolerance |
Arabidopsis thaliana |
| (ATFKBP62, FKBP62, ROF1, AT3G25230) (ATFKBP65, FKBP65, ROF2, AT5G48570) double mutant |
germinates less well than wild-type in presence of |
sorbic acid |
Arabidopsis thaliana |
| SUPPRESSOR OF (PPI1, AT4G27500) LOCUS1 (DAL1, SP1, AT1G63900) overexpression |
significantly promotes |
stress tolerance |
Arabidopsis thaliana |
| (AtSTOP1, STOP1, AT1G34370) (C2H2-type zinc finger transcription factor) |
is associated with |
tolerance to low pH |
Arabidopsis thaliana |
| EPSs |
may provide protection from |
desiccation |
|
| flavonoids |
enhance |
biotic stress tolerance |
|
| tolerance to stress |
is very important for |
plant survival |
|
| miR156 |
participates in stress tolerance processes by regulating |
(DFR, M318, TT3, AT5G42800) |
Arabidopsis thaliana |
| ALCOHOL DEHYDROGENASE 1 (ADH, ADH1, ATADH, ATADH1, AT1G77120) |
confers enhanced resistance to |
abiotic stress |
Arabidopsis thaliana |
| Hemoglobins (Hbs) |
are one of many different strategies that plants have evolved to |
overcome stress conditions and survive |
|
| β-cyclocitral |
triggers |
defense and detoxification mechanisms |
Arabidopsis thaliana |
| plants adapted to extreme environments |
have capacity to cope with |
adverse environmental cues |
|
| seedlings of common ash from different provenances |
were tested for |
differences in their physiological response and overall resistance to waterlogging |
|
| increased number of periderm layers |
is |
trait of agronomical importance in breeding programs targeting stress tolerance |
Arabidopsis thaliana |
| Tan et al. (2017) |
performed |
association analysis of salinity and drought tolerance |
Brassica napus |
| disruption of (PKS1, AT2G02950) |
impedes |
zygospore fitness |
Chlamydomonas reinhardtii |
| Casuarina equisetifolia (C. equisetifolia) |
exhibits |
resistance to typhoon |
Casuarina equisetifolia |
| DELLAs |
promote |
plant survival |
Arabidopsis thaliana |
| (ATFKBP62, FKBP62, ROF1, AT3G25230) (ATFKBP65, FKBP65, ROF2, AT5G48570) double mutant |
shows greater inhibition of growth by |
acetic acid |
Arabidopsis thaliana |
| ABA treatment |
restores heat and photo-oxidative stress tolerance in |
BR-deficient dim mutant |
|
| ABA treatment |
alleviates |
Fv/Fm reduction in both pTRV and pTRV-RBOH1 plants |
|
| overexpression of the C2H2-type ZFP genes ZFP252, ZFP245, and ZFP179 |
increased the tolerance of rice seedlings to |
drought, salinity, cold, and oxidative stress |
Oryza sativa |
| carbon availability |
has been shown to affect |
survival to submergence in Arabidopsis |
Arabidopsis thaliana |
| (ATFKBP65, FKBP65, ROF2, AT5G48570) mutant |
shows similar inhibition of growth by acetic acid to |
wild-type |
Arabidopsis thaliana |
| breeding for crop species that form more specialized types of late adventitious roots (LAR) |
could be interesting strategy to promote |
crop multi-stress resilience |
|
| DELLA protein accumulation |
confers |
tolerance to stress |
Arabidopsis thaliana |
| Haberlea rhodopensis |
remained green and viable throughout |
dark treatment |
Haberlea rhodopensis |
| Haberlea rhodopensis |
can withstand |
30 days of complete darkness |
Haberlea rhodopensis |
| plants with higher cellular ploidy |
are more tolerant to |
UV-B stress |
Arabidopsis thaliana |
| Arabidopsis thaliana |
is |
not a stress-tolerant species |
Arabidopsis thaliana |
| extremophile models |
is a new under-utilized component of |
plant stress biology |
|
| H12 maize cell cultures |
has I50 values approximately 10 times higher than |
DH maize cell cultures |
Zea mays |
| capacity to manipulate auxin signaling pathways under high ammonium and acidic stresses |
confers tolerance to |
high ammonium and acidic stresses |
Oryza sativa |
| ABA pre-treatment |
reduced |
submergence survival |
Arabidopsis thaliana |
| strains tolerant of environmental stress (hypersensitive to ABA or tolerant of high salinity) |
screened for among |
Ex-TAQ-diversified tetraploid plants |
Arabidopsis thaliana |
| STTM400 transgenic plants |
are more Cd-tolerant relative to |
wild-type (WT) seedlings |
Arabidopsis thaliana |
| 100 μM CdSO4 treatment |
increases root growth by 50% in |
STTM400 plants relative to WT plants |
Arabidopsis thaliana |
| plant life in Atacama Desert highlands |
is confronted with |
drought |
|
| sunflower (AT-HSFA9, HSFA9, AT5G54070) overexpressed conjointly with drought-responsive TF HaDREB2 |
positive effects on seed longevity were observed beyond those observed with |
overexpression of HaHSFA9 alone |
Nicotiana tabacum |
| (DPA, AT5G02470) lncRNAs |
are derived from |
quantitative trait loci (QTLs) significantly associated with stress tolerance |
Oryza sativa |
| leaf metabolism of Posidonia australis in Shark Bay |
might be able to persist under |
future global warming if light conditions are sufficient |
Posidonia australis |
| OsACA6 |
has |
function in imparting salinity/drought stress tolerance |
Oryza sativa |
| (DAA1, AT1G64110) knockout mutants |
are impaired in |
germination and root growth in response to ABA, NaCl and mannitol |
Arabidopsis thaliana |
| (ATMYB12, MYB12, PFG1, AT2G47460) and (ATMYB75, AtPAP1, MYB75, PAP1, PAP1-D, SIAA1, AT1G56650) double overexpressors |
show enhanced tolerance to |
drought stress |
Arabidopsis thaliana |
| proline |
is necessary for imparting tolerance toward |
abiotic stress |
Arabidopsis thaliana |
| sustainable ameliorative strategies |
promote |
radiocesium tolerance |
|
| calcium (Ca 2+) |
significantly rescued |
inhibition of root growth caused by Cr 6+ stress in wild type seedlings |
Arabidopsis thaliana |
| (PPR1, AT1G06580) mutant |
shows approximately 30% decrease in root growth relative to |
wild-type (WT) plants under Cd stress |
Arabidopsis thaliana |
| leaf metabolome of Halophila uninervis |
may not be affected by |
marine heatwaves occurring under future global warming at higher latitudes |
Halophila uninervis |
| biophysical alteration of cytosol and chloroplasts |
enables endurance of |
unfavourable conditions of deeper ocean |
Thalassiosira pseudonana |
| communities where rhizomes are overrepresented |
are good at dealing with |
hypoxia |
|
| (ACD11, AT2G34690) (accelerated cell death 11) overexpression |
improves |
salt and drought tolerance |
Arabidopsis thaliana |
| (AR2, ATR2, AT4G30210) emergence delay |
promotes |
higher desiccation tolerance |
|
| plant life in Atacama Desert highlands |
is confronted with |
daily negative temperatures |
|
| plants |
have evolved |
complex response systems to cope with environmental stresses |
|
| hypogeogenous rhizomes |
have |
weaker stress tolerance |
|
| belowground growth forms |
have capacity for |
survival of anoxia |
|
| more conservative risk-averse strategy |
would allow them to circumvent |
hostile growing periods such as early onset freeze or unexpected harsh conditions |
|
| miR156 overexpression |
did not improve tolerance to |
submergence |
Arabidopsis thaliana |
| clavicipitaceous fungal endophytes of grasses |
enhance |
host physiological tolerances to environmental stresses |
|
| irrigated rice cultivation |
protects against |
drought and heat stress |
|
| genetic manipulation of stomatal physiology or stomatal development |
can improve |
abiotic stress resilience |
|
| larger individuals |
can buffer |
risks |
|
| symbioses with AMF |
can support the maintenance of |
larger floral display during periods of drought or nutrient stress |
|
| persistent seagrasses such as Posidonia |
are generally characterized by |
high physiological resistance to environmental disturbances |
Posidonia australis |
| sufficient light levels |
can generally mitigate |
heat-induced damage in temperate seagrasses |
Posidonia australis |
| Posidonia spp. |
have been classified as |
species of persistence |
Posidonia australis |
| Pteris vittata |
can thrive in |
soils containing up to 1,500 µg mL⁻¹ arsenic |
Pteris vittata |
| (PPR1, AT1G06580) |
plays crucial role in |
enhancing plant stress tolerance |
Arabidopsis thaliana |
| larger trees |
may have greater |
tolerance for hydraulic and carbon risk |
Populus tremuloides |
| OXrPPR1 transgenic plants |
increase root growth by nearly 60% relative to |
wild-type (WT) plants under Cd stress |
Arabidopsis thaliana |
| plant life in Atacama Desert highlands |
is confronted with |
high solar radiation |
|
| diverse CRISPR tools |
used to target |
specific genes |
|
| Pearl millet (Pennisetum glaucum) |
is well suited to growth under |
harsh conditions, including low soil fertility, high soil pH, high soil Al 3+ saturation, low soil moisture, high temperature, and high salinity |
Pennisetum glaucum |
| priming |
protects |
shoot apical meristem (SAM) from growth-terminating damage |
Arabidopsis thaliana |
| Ca2+ ATPase pumps |
have role in |
stress tolerance |
|
| Ca2+ ATPases |
lead to |
stress tolerance |
|
| over-expression of transcription factors |
confers |
abiotic stress tolerance of crops |
|
| flavonoid overaccumulation |
is key to |
enhanced tolerance to oxidative and drought stress |
Arabidopsis thaliana |
| tobacco MAPKK (Nicotiana protein kinase 1 (NPK1)) overexpression |
led to enhanced tolerance to |
salt stress |
Nicotiana tabacum |
| canola with reduced PARP activity following transformation with PARP hairpin (hpPARP) construct |
are more resistant to |
high light |
Brassica napus |
| impairment of mitochondrial activity |
can be linked to |
superior tolerance to submergence in juvenile plants |
Arabidopsis thaliana |
| increased Al-resistance phenotype in the double mutant |
could be recovered to |
(RAE1, AT5G01720) level |
Arabidopsis thaliana |
| 35S::miR156 plants |
exhibited |
improved salt and drought tolerance |
Arabidopsis thaliana |
| ApSK3 transgenic Arabidopsis thaliana |
shows enhanced stress tolerance under |
osmotic stress |
Arabidopsis thaliana |
| defense and detoxification mechanisms |
enhances |
plant tolerance to abiotic stresses |
Arabidopsis thaliana |
| miR156-SPLs-DFR pathway |
functions as core regulatory module mediating |
coordinated development and abiotic stress tolerance processes |
Arabidopsis thaliana |
| ApSK3 transgenic Arabidopsis thaliana |
shows enhanced stress tolerance under |
drought stress |
Arabidopsis thaliana |
| selenite |
alleviates |
abiotic stresses |
|
| Populus cathayana |
exhibits |
sexually differential mechanisms to Zn resistance |
Populus cathayana |
| (ATFKBP62, FKBP62, ROF1, AT3G25230) |
positively modulates |
thermotolerance |
Arabidopsis thaliana |
| (ATFKBP65, FKBP65, ROF2, AT5G48570) overexpression line |
shows improved tolerance to |
propionic acid |
Arabidopsis thaliana |
| melatonin-loaded silica nanoparticles (MLT@SiNPs) |
holds potential for alleviating |
other abiotic stresses in crops |
|
| sextuple mutant ( (GED1, PRT6, AT5G02310) erfVII) |
was analyzed for role of |
Cys-Arg/N-end-rule-pathway-mediated stabilization of ERFVIIs on stress tolerance |
Arabidopsis thaliana |
| cell membrane stability |
has been used for evaluating |
tolerance to desiccation stress |
|
| OsACA6 over-expressing plants |
confirmed |
abilities to tolerate changing environment |
Nicotiana tabacum |