| development of vascular systems in tracheophytes |
led to |
more complex silicification patterns |
|
| lycopsids |
have |
archaic mitochondrial genome structure |
|
| climbing mechanisms |
represent |
different evolutionary solutions to the same problem |
|
| first C4 plants |
appeared approximately |
30 million years ago |
|
| expansion in GH gene counts |
was not even among |
families |
|
| early ecological interactions with fungi and bacteria |
profoundly influenced |
evolution of plants |
|
| hard pollinia |
probably appeared in |
MRCA of Sobralieae + remainder of Epidendroideae |
Orchidaceae |
| Type I |
is found across |
all tracheophyte lineages from lycophytes to monocots and eudicots |
|
| unique inflorescences |
contributes to |
evolutionary success of Asteraceae |
|
| zygote retention |
is |
prerequisite for the development of the alternation of generations |
|
| dicotyledony |
is proposed to be |
ancestral to monocotyledony |
|
| others |
have argued against |
homology of eudicot and monocot cotyledons |
|
| Benton et al. |
explained |
enormous diversity of plant species |
|
| convergent evolution |
is |
common phenomenon in plant evolution |
|
| concentration of adhesive root species in wettest areas |
may not be a consequence of |
independent events of the evolution of that mechanism |
|
| streptophyte algae |
show stepwise increase in the fraction of the genome occupied by |
GH genes |
|
| GH17 |
experienced more intense rates of |
gene accumulation |
|
| transition to land |
is proposed critical event for |
evolution of the embryoplast |
|
| evolution of PCW and pathogen response |
has been |
significant factor driving GH diversification |
|
| lycopsids |
appeared as early as |
Late Silurian |
|
| early unicellular streptophytes |
ultimately gave rise to |
land plants |
|
| auxin efflux transporters |
evolved before |
origin of land plants |
|
| eco-evolutionary success of climbers |
requires |
climbing mechanisms |
|
| associations between plant traits and environmental conditions |
can provide insight into |
evolution of plant traits |
|
| angiosperm diversification |
is |
key plant evolutionary event |
|
| HGT |
played crucial role in |
shaping the extraordinary evolutionary trajectory of plants |
|
| terrestrialization |
drove emergence of |
new tissues and regulatory circuits |
|
| OPDA/dn-OPDA biosynthesis |
origin predates |
land plant colonization |
|
| environmental selection on genome size |
is likely to play role in influencing |
evolutionary trajectory of plants |
|
| selfing syndrome |
is |
example of parallel evolution |
|
| polyploidy |
drives |
plant evolution |
|
| 10 GH families acquired in early viridiplants |
were |
vertically inherited in land plants |
|
| starch compartmentalization in chloroplasts |
is |
key plant evolutionary event |
|
| others |
suggest that |
splitting or duplication of an ancestral single cotyledon generated dicotyledony |
|
| Type III |
emerges exclusively in |
eudicots, particularly within superrosids and superasterids |
|
| bryophytes |
have |
thalloid bodies |
|
| genetic components of auxin signaling pathway |
further expanded in number and response complexity |
in parallel to evolution of diversity and complexity |
|
| (ATCRY1, BLU1, CRY1, HY4, OOP2, AT4G08920) and (AT-PHH1, ATCRY2, CRY2, FHA, PHH1, AT1G04400) subfamilies |
may have come from |
large-scale whole-genome duplication events |
|
| major evolutionary transitions |
were accompanied by |
significant changes in the GH repertoire |
|
| acquisition of plastids |
is |
key plant evolutionary event |
|
| ontogeny and homology of the grass cotyledon |
is |
particularly unresolved |
|
| GH152 |
experienced more intense rates of |
gene accumulation |
|
| Type III |
may have evolved |
independently in each group or with common ancestry in entire eudicots |
|
| Lycopodiella alopecuroides |
is |
most promising candidate among extant plants to investigate basal condition of phytolith distribution and function in tracheophytes |
Lycopodiella alopecuroides |
| GHs |
play a role in |
plant adaptation |
|
| Physcomitrium patens |
stands in |
important position for illuminating evolutionary development of green plants |
Physcomitrium patens |
| plant flammability |
could be a secondary outcome of |
selection for other functional traits, which increased individual fitness and coincidentally changed the flammability |
|
| endosymbiotic gene transfer |
could serve as |
significant origin of GH genes in eukaryotes and archaeplastidians |
|
| Physcomitrium patens |
is separated from |
Arabidopsis thaliana |
Physcomitrium patens; Arabidopsis thaliana |
| new Solanaceae fossils |
provide insight into |
evolution of the nightshade family |
|
| subset of 10 GH families acquired in early viridiplants |
seem to be |
independently lost in several lineages |
|
| Marchantia polymorpha |
is positioned in |
most basal lineage of the embryophytes |
Marchantia polymorpha |
| mycorrhizal symbioses |
played a key role in |
evolution of plant adaptation to drought |
|
| AHA family (H + -ATPases) |
is enlarged from |
2 genes in Physcomitrella patens to 11 genes in Arabidopsis thaliana |
Physcomitrella patens; Arabidopsis thaliana |
| mosaic expression of regulatory modules controlling secondary growth |
occurs among |
early tracheophytes |
|
| GH1 |
experienced more intense rates of |
gene accumulation |
|
| understanding how temperature-induced pollen limitation will influence natural selection |
is important to |
predict the effects of global warming on plant evolution |
|
| phylogenetic studies of monocotyledons using nucleotide sequences of genes |
resolved |
same group as a monophyletic clade |
|
| morphologically conserved representatives of Lycopodiaceae |
still maintain presence in |
wetland ecosystems into modern day |
|
| JA-Ile biosynthesis |
emerged within |
lycophytes |
|
| basal angiosperms |
diverged earlier from |
lineage leading to eudicots and monocots |
|
| fern guard cell regulatory mechanisms |
shed light on |
how these have evolved over the past 500 million years of plant life on land |
|
| true (AtTRS130, CLUB, TRAPPC10, TRS130, AT5G54440) mosses of basal-most lycopodiopsid family Lycopodiaceae |
first arose in |
Early Devonian |
|
| lateral root (LR) development |
occurs during |
evolution of root system |
|
| evolutionary transition from woody to herbaceous plant forms |
is considered one of the key innovations of |
angiosperms |
|
| horizontal gene transfer |
is likely the origin of |
GH families that green plants acquired throughout their evolution |
|
| gene duplication |
is a cause of |
expansion and functional diversification of transcription factor families |
|
| development of vascular systems in tracheophytes |
led to |
greater phytolith deposition |
|
| 17 GH families shared with nongreen archaeplastidians |
were likely |
present in the plant lineage before the origin of the viridiplants |
|
| multiple HGT events involving fungi and bacteria |
shaped |
carbohydrate hydrolysis mechanisms of land plants |
|
| origin of early land plants |
coincided with |
large degree of genetic novelty |
|
| duplication event of the EXO70 gene family in the monophyletic lineage of land plants |
is speculated to have resulted in |
three liverwort EXO70 proteins may take the ancestral positions of the three groups of EXO70 paralogs in land plants |
|
| Izu Islands |
offer outstanding framework for investigating |
patterns and mechanisms characterizing initial phases of flowering plant evolution on oceanic island |
|
| silicification |
reaches notable maxima in |
angiosperm monocot grasses |
|
| JA-Ile biosynthesis |
has been proposed to emerge in |
lycophytes |
|
| peptide signaling |
has made contributions to |
evolution of plants |
|
| Franhueberia gerriennei |
is |
Early Devonian woody tracheophyte |
|
| higher GH variability in green algae |
is likely due to |
independent HGT acquisition and gene loss |
|
| others |
consider |
eudicot and monocot cotyledons to be evolutionarily unrelated embryonic organs |
|
| cross talk between cytokinin (CK) and abscisic acid (ABA) |
evolved during |
land colonization of plants before the divergence of monocots and dicots |
|
| complete auxin response mechanism with multidomain proteins |
was evolved in |
land plants |
|
| selfing lineages |
acquire distinctive features by fixing |
new mutations after they become predominantly selfing |
|
| GH genes |
grew at a much higher rate |
gene duplication and fixation |
|
| findings |
may have important implications for |
understanding the environmental factors shaping plant evolution in the Neotropics |
|
| specialized functions of diverse plastid types |
likely emerged concomitantly with |
evolution of the land plants |
|
| Zygnematophyceae |
are |
sister lineage to land plants |
|
| selection for different compounds by multiple interacting organisms |
results in |
evolution of increased chemical diversity |
|
| climbing habit |
may be better classified as a |
synnovation |
|
| euphyllophytes |
underwent |
diversification |
|
| early archaeplastidians |
had |
small repertoire of GH families |
|
| flowering plants |
show stepwise increase in the fraction of the genome occupied by |
GH genes |
|
| initial development of larger bundle sheath (BS) in C3 species |
may be related to |
greater vein density of leaves in hot environments with high potential evapotranspiration |
C3 plants |
| phytochemical diversity |
is |
result of adaptive processes |
|
| leaves and cotyledons |
have homology supported by |
position in the body plan, proximity to the SAM, similar morphology and growth patterns, and existence of intermediate leaf-cotyledon morphologies |
|
| this study |
investigated |
evolution of guard cell signalling pathways |
|
| Lycophyta |
dominated |
terrestrial flora for much of Paleozoic |
|
| Angiosperm Terrestrial Revolution |
was due to |
plant innovations in ecophysiology and interactions with animals |
|
| auxin-induced transcriptional signalling |
evolved in |
ancestral land plant |
|
| C4 photosynthesis |
is |
key innovation in land plant evolution |
|
| 10 GH families |
were likely acquired in |
early viridiplants |
|
| root system development |
led to |
land plant diversification |
|
| selfing syndrome |
can be constructed from |
genetic variation present within the ancestral outcrossing population |
|
| connection between CC-type GRXs and redox-reactions in flower development and plant development |
might have existed in |
common ancestor of monocots and eudicots |
|
| PIN genes |
exist in |
streptophytes |
|
| expansion of transporter gene families |
likely reflects |
increasing need to adapt to new environmental niches |
|
| whole-genome duplication (WGD) |
has been suggested to explain |
incredible radiation experienced by flowering plants in the early Cretaceous |
|
| other studies |
found magnoliids to be sister to |
all eudicots, including magnoliids |
|
| bryophytes |
are |
three of four main living clades of land plants, along with tracheophytes |
|
| observed decrease in plant fitness and changes in selection |
indicate that |
temperature-mediated plasticity could alter plant evolutionary trajectories |
|
| Physcomitrium patens |
belongs to |
early lineage of land plants that diverged before development of vasculature |
Physcomitrium patens |
| monocots and eudicots divergence |
represents |
major event in higher plant evolution |
|
| CC-type GRX class |
expanded in size during |
land plant evolution |
|
| expansion of CC-type GRX class size |
may have facilitated |
establishment of redundant GRX activities |
|
| gene and genome duplications combined with protein retargeting |
have potential to generate |
variability and adaptations |
|
| compartmentation of metabolism |
enables adaptation to |
terrestrial environment |
|
| CPYC and CGFS classes |
remained relatively constant in number during |
plant evolution |
Physcomitrella patens; Pinus taeda; Oryza sativa; Populus trichocarpa; Arabidopsis thaliana |
| ancestral gene clusters |
predate |
monocot-eudicot divergence |
|
| (AtEMF2, CYR1, EMF2, VEF2, AT5G51230) |
may have played a major role in |
plant survival and the evolution of phenological variability |
Arabidopsis thaliana |
| evolution of seeds |
has commandeered |
existing cellular structures |
|
| (AtEMF2, CYR1, EMF2, VEF2, AT5G51230) |
is conserved in |
Dicots and early-diverging monocots |
|
| P. patens |
has |
intermediate evolutionary position between algae and vascular plants |
Physcomitrella patens |
| (CLF, ICU1, SDG1, SET1, AT2G23380) and (EZA1, SDG10, SWN, AT4G02020) lineages |
duplication separating |
prior to divergence of grasses and broad leaf species |
|
| many angiosperms |
have undergone |
one or more polyploidization events |
|
| evolutionary developments |
posed significant challenges to |
plant's structural viability |
|
| EXO70 paralogs |
likely emerged during |
land colonization |
|
| CC-type GRXs |
may have function in |
evolution of land plants that form organs of higher complexity |
Physcomitrella patens; Pinus taeda; Oryza sativa; Populus trichocarpa; Arabidopsis thaliana |
| aquatic algal ancestors |
are ancestral to |
earliest land plants |
|
| Poaceae family |
exhibits |
especially dynamic history of varied selection pressures |
|
| CslM lineage |
forms |
reciprocally monophyletic eudicot-monocot grouping with the CslJ clade |
|
| plants |
have been categorized into |
two phylogenetically distinct groups |
|
| vegetative desiccation tolerance (VDT) |
re-evolved independently in |
monocot and eudicot plant families |
|
| PHPs |
evolved from |
AHPs |
|
| Amborella trichopoda AmHAM1 and AmHAM2 proteins |
are sister to |
all other type-I and type-II HAM members, respectively |
Amborella trichopoda |
| fossilized plant remains |
allow estimation of |
timeline of evolutionary events |
|
| Lycophyta |
contains |
many of earliest known land plant fossils |
|
| timing of base composition shifts |
suggests that major plant clades are reflective of |
fundamental biological revolutions |
|
| 12 GH families |
possibly emerged associated with |
evolution of early terrestrial streptophytes |
|
| GH gene families exclusive to viridiplants in an EGT scenario |
suggest the necessity of |
subsequent independent gene losses in red algae and glaucophytes |
|
| detailed analysis of the phylogeny of Mp myosin XI |
will be valuable to identify |
conserved and specialized functions of myosin XI throughout plant evolution |
Marchantia polymorpha |
| comprehensive phylogeny of the land plant HAM family |
uncovers |
conservation and diversification of the ancestral (MIR170, AT5G66045) /171 binding site |
|
| different H2O2 responses to pathogen infection |
might have evolved during |
diversification of plants |
|
| plants |
had to evolve |
alternative means of metabolic coupling and organellar interaction hubs |
|
| Class III homeodomain leucine zipper genes |
predate |
evolution of vascular plants |
|
| glucomannan |
has |
clear taxonomic or functional distinctions |
|
| PHPs |
did not arise until |
evolution of certain gymnosperms |
Picea abies |
| divergence time of Euscaphis japonica from other malvid species |
was |
108 million years ago |
Euscaphis japonica |
| DT and ET populations |
reached their pinnacle |
30000–10000 and 80000–30000 years ago respectively |
Euscaphis japonica |
| genome redundancy and intergenomic interactions |
offer |
evolutionary flexibility |
|
| land plants |
are derived from |
green algal ancestors |
|
| ratio of (1,4)-β-D-glucosyl residues to (1,3)-β-D-glucosyl residues |
influences |
adoption of (1,3;1,4)-β-D-glucans by different plant species during evolution |
|
| HAM gene family |
emergence likely predates |
divergence of bryophytes from other plant lineages |
|
| HAM homologs from lycophytes |
form two groups: one is sister to |
other vascular plants |
|
| duplicate genes |
are prevalent in |
plant species |
|
| RNA-directed DNA methylation |
has ancient origin in |
early land plants |
|
| monocot and eudicot PHPs |
form independent clades that likely share |
independent evolutionary origins |
|
| fucogalactoxyloglucan |
has |
clear taxonomic or functional distinctions |
|
| rhamnogalacturonan-I (RGI) |
appears to be most predominant in |
vascular plants |
|
| vegetative desiccation tolerance (VDT) |
is believed to have been |
ancestral state in early diverging plants |
|
| acquisition of xyloglucan |
might be |
pre-adaptive advantage that enabled colonization of land |
|
| galactomannan |
has |
clear taxonomic or functional distinctions |
|
| diversification of At myosin XI isoforms during plant evolution |
has led to |
development of specific physiological and molecular functions |
Arabidopsis thaliana |
| C4 plants |
consist of approximately |
7500 species |
|
| Two major (CDC73, PHP, AT3G22590) clades |
found in |
dicots and monocots |
|
| organ-specific and development-specific functions |
were necessitated by |
emergence of terrestrial plants |
Arabidopsis thaliana |
| Eutremeae tribe |
is |
sister tribe to Thlaspideae |
|
| duplicate genomes |
are prevalent in |
plant species |
|
| Phylogenetic grades of taxa |
imply |
long independent evolutionary histories |
|
| purifying selection on core gene set |
conserves |
arbuscular mycorrhizal (AM) symbiosis |
|
| polyploidization |
plays key role in |
plant evolution and diversification |
|
| whole-genome duplication |
has major role in |
evolution |
|
| study of evolutionary dynamics of duplicate genes |
has been a focus of study in |
plant evolutionary genetics |
|
| Caryophyllales |
contains |
carnivorous plant lineage |
Caryophyllales |
| RK families |
have undergone remarkable expansion in gene number since |
plants started their conquest of land |
|
| parasitic or mutualistic relationships |
have helped |
plant adaptation to terrestrial ecosystems |
|
| PPR (pentatricopeptide repeat) protein family |
has greatly expanded during |
evolution of flowering plants |
|
| phylogenetic analysis of 105 plant genomes |
revealed |
clear partitioning between monocots and dicots |
|
| RLKs |
may originate in |
charophytes |
|
| evolutionary origin of HAM family |
coincides with |
origin of meristems |
|
| moss Physcomitrella patens |
is |
representative for the tree of plant life |
Physcomitrella patens |
| CSR clade |
has expanded in |
Solanaceae family |
|
| genetic evidence |
supports |
evolution of desiccation-tolerance (DT) in resurrection plants |
|
| EAR motifs in (JAZ5, TIFY11A, AT1G17380) (JAZ6, TIFY11B, AT1G72450) |
evolved in |
vascular plants |
vascular plants |
| NIP7;1 proteins |
are found only in |
dicot species |
|
| RLKs |
may originate in |
common ancestor of glaucophytes and Viridiplantae |
|
| increasingly colder and arid climate following mid-Miocene Climatic Optimum |
promoted |
speciation and lineage diversification |
|
| perennial Arabis alpina and annual Arabis montbretiana |
have been established as |
model system to study the perennial–annual transition |
Arabis alpina; Arabis montbretiana |
| variation in cell wall composition |
is likely generated during |
evolution of plant groups |
|
| KNOX gene function |
diverged during |
evolution of diploid body plans |
|
| three NPR clades (clade I, clade II, and clade III) |
are retained in |
most angiosperm species |
|
| (TOD1, AT5G46220) genes |
diverged during |
evolution of angiosperms and gymnosperms |
|
| nucleotide binding site leucine-rich repeat (NLR) gene family |
originated |
emergence of green plants on this planet one billion years ago |
|
| bryophytes |
diversified into |
three extant phyla: Marchantiophyta, Bryophyta, and Anthocerotophyta |
|
| multicellularization |
is |
key transition during plant evolution |
|
| horizontal gene transfer (HGT) |
contributes to |
environmental sensing |
|
| Brassica juncea |
contains |
conserved genomes from both of its diploid parents |
Brassica juncea |
| ancestral homeodomain genes |
predate |
divergence of mosses and flowering plants |
|
| ancient hybridization in rosids |
may explain |
unstable phylogenetic position within rosids |
Euscaphis japonica |
| understanding of herbivore-induced plant volatiles (HIPV) emission in the total phytobiome context |
is necessary to understand |
evolutionary consequences of herbivore-induced plant volatiles (HIPV) emission by plants |
|
| NLR genes |
evolution is under background of |
ecological adaption |
|
| WGD |
might have helped |
Euscaphis japonica to survive high-temperature period |
Euscaphis japonica |
| gene trees containing at least one paralogous pair from synteny regions from one of five Laurales genomes |
placed WGD of C. praecox and WGDs of C. salicifolius, C. kanehirae, P. americana, and L. cubeba on |
Laurales stem branch |
Chimonanthus praecox; Chimonanthus salicifolius; Cinnamomum kanehirae; Persea americana; Litsea cubeba |
| century-long fertile life spans, limited interspecific divergence, and large effective population sizes |
have created |
significant evolutionary network deeply influenced by incomplete lineage sorting (ILS) |
|
| crop domestication |
is |
model system of plant evolution |
|
| evolution of specialized metabolism |
occurs in |
plant kingdom |
|
| early diverging land plants (mosses and ferns) |
contain only orthologs of |
clade III NPR genes |
|
| miR396 |
is present in |
gymnosperms; monocots; eudicots |
|
| incomplete lineage sorting during diversification of ancestral population |
may have led to |
unstable phylogenetic position of Euscaphis japonica |
Euscaphis japonica |
| genome doubling (polyploidy) |
is |
pervasive force in plant evolution |
|
| candidate integrated domain-containing R proteins |
are present in |
early divergent land plants |
|
| arbuscular mycorrhizal (AM) symbiosis |
predates |
divergence of plant lineages |
|
| Physcomitrium patens |
is often used to study |
water-to-land transitions |
Physcomitrium patens |
| ATL gene family |
evolved specifically in |
land plants |
|
| genes encoding Fe-containing proteins |
were acquired early in |
plant evolutionary history |
Arabidopsis thaliana |
| results |
provide strong evidence for |
WGD shared by all Laurales |
|
| whole-genome duplication |
is prevalent and recurrent in |
plants |
|
| diploidization |
has been suggested to be |
crucial factor in evolutionary success of angiosperms |
|
| second population expansion of DT and ET |
occurred after |
Penultimate Glaciation retreated |
Euscaphis japonica |
| gene trees containing at least one paralogous pair from synteny regions from one of five Laurales genomes |
confirmed |
additional evidence for common Laurales WGD |
|
| intron-poor and intronless sub-families |
initially appeared as |
single intron-reduced or intronless gene in the early stages of plant life |
|
| cryptic (ATMYC2, JAI1, JIN1, MYC2, RD22BP1, ZBF1, AT1G32640) interacting domain (CMID) in (AtJAZ1, JAZ1, TIFY10A, AT1G19180) |
evolved in |
angiosperms |
angiosperms |
| diverse NLR subclasses |
identified across |
Viridiplantae lineages |
|
| shrinkage and differentiation of Euscaphis japonica ancestor population |
may be related to |
temperature change during mid-Pliocene |
Euscaphis japonica |
| ancient WGD event of Laurales and WGD event of Liriodendron |
were relatively close but were |
independent WGD events after differentiation |
|
| land plants |
evolved into |
distinct lineages |
|
| Rubrum wintersweet genome |
provides insight into |
evolution of the magnoliids |
Chimonanthus praecox |
| transcriptional innovation of MtSUP |
could have been crucial for |
developmental specialization in legumes |
Medicago truncatula |
| gene duplications |
play roles in |
plant evolution |
|
| allopolyploidization |
is |
important process in plant evolution |
|
| stomatal regulation of plant carbon and water relations |
may have became progressively more effective as |
hydraulic systems evolved in seed plant lineages |
|
| plants |
can evolve |
new R proteins recognizing new effector variants |
|
| remaining Csl groups |
are specific to |
either grasses or non-grass species |
|
| gene expansion of myosin XI from chlorophytes to angiosperms |
suggests that |
functions of myosin XI have diversified throughout plant evolution |
|
| drastic modification |
has occurred at least once in |
Antirrhinum |
|
| MEK2 |
may be |
ancient MAPKK that appeared before the divergence of monocots and dicots |
|
| genomic and transcriptomic data |
allow for |
fine-grained tracing of the evolution of key plant enzyme families across the green tree of life |
|
| plant evolution |
is largely driven by |
adaptations in seed protection and dispersal strategies |
|
| one gene from both Dof clades in Marchantia polymorpha |
demonstrates that |
the two Dof clades originated early in the evolution of land plants |
Marchantia polymorpha |
| (NTL, AT1G11570) genes |
were not identified in |
Selaginella moellendorffii |
Selaginella moellendorffii |
| small RNAs |
show differences in function between |
monocots and dicots |
|
| Phylogenetic grades of taxa |
imply |
extant species diversity potentially relictual and highly derived morphologically |
|
| core hormonal signaling networks |
are coalesced into |
appearance of vascular plants during evolution |
|
| stomata |
are present in |
all extant land plant lineages except liverworts |
|
| arbuscular mycorrhizal fungal (AMF) symbiosis |
appeared approximately |
450 million years ago |
|
| host-pathogen interactions |
occur across |
full spectrum of plant evolution |
|
| whole genome duplication (WGD) |
drives |
evolution of novel forms in plants |
|
| strigolactones (SLs) |
represent |
signalling molecules involved in key innovations during plant evolution |
|
| ethylene signaling |
may have evolved before |
ability to synthesize ethylene |
|
| natural variation |
occurs in |
genes involved in primary and specialized metabolism |
|
| inflorescence architecture |
is highly variable across |
plant lineages |
|
| core histone-modifying regulators |
co-evolved with |
accessory proteins |
|
| DT and ET lineages |
have experienced |
completely different demographic histories since differentiation |
Euscaphis japonica |
| monocot Oryza sativa |
is |
representative for the tree of plant life |
Oryza sativa |
| fossil record |
indicates |
most aspects of vascular plant form evolved multiple times |
|
| we |
could infer |
which subfamilies were present in the LCAs along the trajectory of streptophyte evolution |
|
| core-collection (CC) and MAGIC populations |
represent |
diversity of the cultivated tomato clade |
Solanum lycopersicum |
| Kobresia lineage |
split from the grasses |
27 million years prior to the major grass WGD event |
Kobresia littledalei |
| polyploidy |
is |
prominent feature in plant evolution |
|
| liverworts |
have been studied for |
role of epigenetics in evolution |
|
| emergence of accessory proteins |
coincided with |
development of vascular tissues |
|
| emergence of accessory proteins |
coincided with |
origin of seed formation |
|
| horizontal gene transfer (HGT) |
provides |
alternative mechanism for gene family emergence |
|
| whole genome duplications |
drives |
genomic changes during plant evolution |
|
| Solanaceae and Erythroxylaceae |
last common ancestor shared approximately |
120 million years ago |
|
| scattered distribution of tropane alkaloids |
indicates |
tropane alkaloid biosynthesis may have been recruited multiple times throughout plant evolution |
|
| plants (Embryophyta) |
originated from |
streptophyte ancestors |
|
| complex traits |
arise through |
coordinated deployment of existing molecular machinery |
|
| evolutionary transitions relating to meiosis |
occurred in |
lineages giving rise to angiosperms |
|
| vascular system |
potentiated |
species radiation into wide range of ecological niches |
|
| Piperales, Magnoliales, and Laurales |
did not experience common WGD event but experienced |
specific WGD event after differentiation |
|
| intron gain and loss |
occurred often during |
evolution of plants, especially in land plants |
|
| genome analyses |
will provide insights into |
relationship between Darwinian selection for agronomical phenotypes and DNA changes |
Oryza sativa |
| ancient and newly evolved components |
were assembled |
before and during land plant evolution |
|
| gerbera lineage |
diverged from |
the lineage containing Solanaceae |
|
| Arabidopsis thaliana |
diverged from |
tomato |
Arabidopsis thaliana; Solanum lycopersicum |
| Papaver |
belongs to |
most basal order in the eudicots, the Ranunculales |
Papaver rhoeas |
| Arabidopsis |
belongs to |
Brassicales |
Arabidopsis thaliana |
| Cleome L. |
is the most closely related genus to |
Arabidopsis thaliana |
Arabidopsis thaliana; Cleome L. |
| bacterial and fungal genes |
provide plants with |
novel enzymatic capabilities |
|
| stress-related genes |
have been shown to have contributed to |
terrestrial adaptation of green plants |
|
| root-associated fungal associations |
are widely believed to have promoted |
evolution of land plants |
|
| general details of eu (AP3, ATAP3, AT3G54340) /TM6-like gene function |
can be parsimoniously interpreted as |
the basal state among the asterids |
|
| (AtLHP1, LHP1, TFL2, AT5G17690) |
may act as linker between |
(CESA6, E112, IXR2, PRC1, AT5G64740) and PRC2 complexes |
|
| Actinidia genus |
exhibits |
extensive variation in ploidy |
Actinidia spp. |
| diversification of vascular and nonvascular plants |
is |
key transition during plant evolution |
|
| (RLK, AT5G67280) family |
was present in |
common ancestors of flowering plants |
|
| some ESTs |
may represent |
lineage-specific genes |
Solanum tuberosum |
| interspecific hybridization |
plays key role in |
plant evolution and diversification |
|
| significant overlap in cell-specific gene expression in bundle sheath and mesophyll cells from rice and Arabidopsis |
was detected despite |
this timescale of 140 million years |
Oryza sativa; Arabidopsis thaliana |
| WAK, PLN03088, and L-LEC domains |
emerged during |
colonization of the terrestrial environments |
|
| HAM |
is likely to be |
ancient gene family in land plants |
|
| Dof gene clades 'a' and 'b' |
arose early in |
land plant evolution |
|
| phytochelatins |
are |
ancestral (plesiomorphic) characters for basal land plants |
|
| vascular plants |
emerged during |
early Silurian |
|
| plant vascular system |
made |
life on land |
|
| TRBs |
appear in |
non-seed plants |
|
| B-function |
has persisted across |
vast expanses of time |
|
| absence of group I prolamins in Brachypodium |
strengthens |
close relationships of Brachypodium with wheat, barley, and oat |
Brachypodium distachyon; Triticum aestivum; Hordeum vulgare; Avena sativa |
| Middle Eastern and South African deserts |
are |
biodiverse centres for evolution of Old World desert flora |
|
| emergence of accessory proteins |
coincided with |
shifts in life cycle from gametophyte to sporophyte dominance |
|
| plant palaeogenomics |
has transformed |
the way we study plant evolution |
|
| Arabidopsis thaliana |
is phylogenetically closely related to |
Camelina gynandra |
Arabidopsis thaliana; Camelina gynandra |
| CLV |
was important in |
origin of land plant meristem functions in the gametophyte stage of the life cycle |
|
| regulatory gene homologs |
imply |
deep evolutionary origins |
|
| legumes |
diverged from |
Arabidopsis approximately 92 million years ago |
|
| close taxonomic affinity between C3 and C4 species in grass family (Poaceae) |
is rare because |
ancient origins of C4 pathway in Poaceae have led to significant divergence between C3 and C4 clades |
Poaceae |
| B-function |
has persisted with |
only few modifications |
|
| ancestral homeobox gene |
was already present after |
water-to-land transition of plants |
|
| gene regulatory network |
represents |
deep homology in plant evolution |
|
| FA |
is more closely related to |
SP and homologous non-Solanaceae proteins (TFL-1, TFL1, AT5G03840) and CEN |
Capsicum frutescens; Solanum lycopersicum |
| cytochrome c gene duplication |
occurred before |
separation of Arabidopsis and Brassica |
Arabidopsis thaliana; Brassica oleracea; Brassica rapa; Brassica napus |
| OsNMD3 and SbNMD3 clade |
arose before |
divergence of monocot and dicot phyla |
|
| land plants |
have |
charophytic ancestry |
|
| Dsi-1 VOC |
appears to have evolved early in |
plant lineage |
|
| phylogenetic relationships |
suggest |
recent duplication of ppc-1E1a in Portulaca |
Portulaca |
| duplication of CP12-1-like and CP12-2-like genes |
occurred after |
separation of monocot and dicot lineages |
|
| cross-kingdom transfers |
have been particularly significant with |
bacterial and fungal genes |
|
| Arabidopsis thaliana and Papaver rhoeas |
diverged |
140 million years ago |
Arabidopsis thaliana; Papaver rhoeas |
| streptophyte algae |
comprise |
five classes of freshwater and terrestrial algae (Mesostigmatophyceae/Chlorokybophyceae, Klebsormidiophyceae, Charophyceae, Coleochaetophyceae, and Zygnematophyceae) |
|
| the end of the transpiration stream |
is |
the synapomorphic trait that unites the two groups as tracheophytes |
|
| climbing habit |
is considered a |
key innovation in flowering plants |
|
| time-calibrated phylogeny with 1201 species |
represents |
major lineages of flowering plants |
|
| retention of GH genes after events of WGD |
was favored over |
most genes |
|
| retention of GH genes after events of WGD |
resulted in |
progressive increase in their relative frequency among the protein-coding genes |
|
| key plant evolutionary events |
are associated with |
significant shifts in GH composition and diversity |
|
| most Cupressaceae species (AM-associated) |
evolved |
high-drought tolerance |
|
| Acoca-Pidolle et al. study |
characterizes |
evolutionary change in selfing syndrome traits |
|
| bryophytes |
have a monophyletic relationship |
between hornworts and other land plants |
|
| roots |
may be |
shoot-derived organs |
|
| euphyllophytes |
is |
vascular plant lineage |
|
| dormancy |
has developed independently throughout the evolution of |
different plant lineages from cyanophytes to spermatophytes |
|
| pectins |
represent |
one of the adaptations of early terrestrial charophytes to land settings |
|
| GH125 |
is |
exclusive to core chlorophytes |
|
| (GUX1, PGSIP1, AT3G18660) and (GUX2, PGSIP3, AT4G33330) divergence |
pre-dates |
separation of monocot and dicot lineages |
|
| several gene duplications |
led to |
six gene lineages present in grass genomes |
|
| Charales |
is |
closest higher plant relatives |
|
| receptor-like kinase (RLK, AT5G67280) group |
has been subjected to |
extensive expansion over course of plant evolution |
|
| core components of the CLV pathway |
first arose in |
last common ancestor of land plants |
|
| angular structures |
is suggested to be formed in parallel with |
linear furanocoumarins |
|
| whole-genome duplication (WGD) events |
contributed substantially to |
diversification of plant lineages |
|
| laticifers |
appear |
polyphyletic in origin |
|
| phytoliths |
appear in |
earliest-diverging land plants |
|
| (AtOPR3, DDE1, OPR3, AT2G06050) |
has been proposed to emerge in |
vascular plants |
|
| PIN genes |
suggest origin in |
Viridiplantae ancestor |
|
| chicory genome |
provides insight into |
Asteraceae evolution |
Cichorium intybus |
| bryophytes and vascular plants |
diverged from |
common ancestor |
|
| climbing habit |
is not better classified as a |
key innovation |
|
| various traits constituting the selfing syndrome |
evolve simultaneously or sequentially |
evolutionary change |
|
| GH16 |
experienced more intense rates of |
gene accumulation |
|
| CLAVATA |
was |
genetic novelty enabling the morphological innovation of 3D growth in land plants |
|
| (CLI1, RPK2, TOAD2, AT3G02130) -like sequences |
form clade with |
each land plant lineage except hornworts |
|
| Physcomitrella CLAVATA1a |
is |
ortholog of (ATCLV1, CLV1, FAS3, FLO5, AT1G75820) BAM |
Physcomitrella patens |
| most species that combine water-storage tissue and C4 photosynthesis |
are found within |
Chenopodiaceae, in subfamilies Suaedoideae, Salsoloideae, and Camphorosmoideae |
|
| charophytes |
are postulated to be |
direct ancestors of land plants |
|
| photoinhibition or injury effects at low temperatures in C4 plants |
reflect |
tropical evolutionary origins of C4 species |
|
| ancestral divergences |
occurred before |
angiosperm radiation |
|
| poppy capsule and cereal grain |
are placed in context of |
angiosperm phylogeny |
|
| root cap formation |
was a later innovation |
after first appearance of roots |
|
| downstream TCS components |
are conserved in |
land plants |
|
| evolutionary loss of TDIF-like CLEs |
occurred in |
mosses |
|
| root cap |
presumably arose after |
first appearance of roots |
|
| DELLA-mediated growth restraint |
evolved subsequent to |
lycophyte divergence |
|
| function of some genes involved in root hair growth |
likely diversified in |
lineage leading to tracheophytes after divergence of last common ancestor of liverworts and angiosperms |
|
| (ATVIIIA, VIIIA, AT1G50360) basic helix-loop-helix (bHLH) proteins |
have been conserved since |
early stage of land plant evolution |
|
| euphyllophytes |
did not have fossil evidence of roots in |
Early Devonian |
|
| charophytes |
are |
direct algal ancestors of land plants |
|
| enzymic pathway(s) for cell-wall lignification |
is |
important feature |
|
| orange (Citrus sinensis) |
were apparently derived from |
cross between pummelo and mandarin |
Citrus sinensis; Citrus maxima; Citrus reticulata |
| grapefruit and bitter orange |
are siblings of |
orange |
|
| Chlamydomonas reinhardtii |
arose from |
most basal lineage |
Chlamydomonas reinhardtii |
| charophyte green algae (CGA) |
occupy |
key phylogenetic position |
|
| precursor of (ATSYP131, SYP131, AT3G03800) |
has a more general function and can be traced back to |
clade of algae that gave rise to the earliest land plants |
|
| mycorrhizal symbiosis |
was important for |
colonization of land by plants |
|
| gene duplication |
occurred before |
emergence of land plants |
|
| ATL genes |
were found in |
24 plant species (including mosses and lycopods) |
|
| monocots and eudicots |
diverged likely over |
120 million years ago |
|
| 41 green plant genomes |
represent |
key phylogenetic nodes of plant evolution |
|
| subsect. Caninae |
was separated from |
subsections Rubigineae Christ and Vestitae Christ |
Rosa |
| hybridization |
occurs frequently between |
extant species |
Rosa |
| Arabidopsis and Capsella |
separated |
∼6.2–9.8 mya |
Arabidopsis thaliana; Capsella grandiflora |
| JA biosynthesis mediated by (ATOPR1, OPR1, AT1G76680) (ATOPR2, OPR2, AT1G76690) |
appeared before |
(AtOPR3, DDE1, OPR3, AT2G06050) emergence |
|
| auxin signaling in present-day vascular plants |
might have evolved from |
genes present in non-vascular plants and green algae |
|
| Devonian period |
witnessed |
evolutionary radiation of tracheophytes |
|
| understanding how desiccation tolerance (DT) is regulated |
can provide insights into |
land plant evolution |
|
| data from this study |
suggest that |
both the scutellum and coleoptile are leaf homologs |
Zea mays subsp. mays |
| hornwort EG16s |
are sister to |
other land plants |
|
| UGT group E |
is overrepresented in |
Fagales (Casuarina equisetifolia) |
Casuarina equisetifolia |
| (BICAT2, CMT1, AT4G13590) /3 subclade |
resulted from |
whole genome duplication in eudicots |
|
| monocots and dicots separation |
occurred |
140-150 million years ago |
|
| (VPS26C, AT1G48550) gene |
appears to be absent from genomes of |
monocots for which genomic data are available |
|
| EG16, newly identified EG16-2 and XTH members |
appeared first in |
green algae |
|
| root branching |
has allowed |
plants to successfully colonize land |
|
| UGT group R |
was identified in |
this phylogenomic study |
|
| 58 seed plants analyzed |
show UGT number range of |
44 to 379 UGTs per genome |
|
| (ATCB5LP, B5 #5, CB5LP, AT1G60660) |
is present in |
Chlamydomonas reinhardtii |
Chlamydomonas reinhardtii |
| (ATCB5LP, B5 #5, CB5LP, AT1G60660) |
is present in |
flowering plants |
|
| IA motif in (CDI3, OZS1, RCD3, SLAC1, AT1G12480) anion channels |
appeared in moss first and remained largely conserved until emergence of |
Arecales and Poales lineages |
|
| perenniality |
is linked to |
enhanced (AHL, ATAHL, HL, AT5G54390) expression |
|
| female germline specification |
occurs in |
deeply diverged plant lineages |
|
| polyploidy |
is |
crucial force in plant evolution |
|
| P. patens |
is |
excellent evolutionary model system |
Physcomitrella patens |
| seed evolution |
contributed significantly to |
dominance of flowering plants |
|
| bryophytes |
is |
main lineage of land plants |
|
| ancestral COI1-independent jasmonate signaling pathway |
may have contributed to |
successful land colonization |
|
| branching axes |
occurred in both haploid and diploid phases of life cycle in |
last common ancestor of extant land plants |
|
| evolution of aquatic and amphibious plants |
has occurred independently multiple times in |
land plant lineages |
|
| root caps |
were |
relatively late invention |
|
| (RGE1, ZOU, AT1G49770) /ICE partnership |
evolved in |
early land plants |
|
| dicots |
may have extended |
ancestral PLT module |
|
| evolution of aquatic and amphibious plants |
is likely an example of |
convergent or parallel evolution |
|
| phylogenetic relationships in each group |
are compatible with |
species relationships predicted from other markers |
|
| phylogenomics |
favors |
Zygnematophyceae or the Coleochaetophyceae/Zygnematophyceae clade as the sister group of land plants |
|
| monocots and dicots |
diverged |
~140 to 150 million years ago |
|
| GEMMA CUP-ASSOCIATED (AtMYB1, MYB1, SRM1, AT3G09230) (GCAM1) |
is orthologous to |
angiosperm genes of R2R3-MYB subfamily 14 |
Marchantia polymorpha |
| sacred lotus |
is |
vital tool for understanding plant evolution |
|
| acquisition of genetic pathways that delimit root from shoot during embryogenesis |
played a pivotal role during |
land plant evolution |
|
| Marchantia polymorpha |
is member of |
early-diverging lineage among land plants |
Marchantia polymorpha |
| gametophytic meristems |
are distantly related to |
sporophytic meristems in bryophytes |
|
| roots in lycophyte clade and euphyllophyte clade |
originated |
at least twice during evolution |
|
| ancestral miRNA clusters |
appeared before |
divergence of monocot and dicot lineages |
|
| divergence of the (ABC33, ATCPS1, CPS, CPS1, GA1, AT4G02780) and KS activity |
occurred concurrently with |
the appearance of gibberellins |
|
| vascular system |
is believed to be |
key event in evolution of higher plants |
|
| CLV recruitment to sporophyte stem cell regulation |
occurred prior to |
origin of KNOX and WOX-regulated meristem functions |
|
| land plants |
have |
monophyletic origin |
|
| signaling components described above |
are largely conserved between |
eudicots and monocots |
|
| multiple horizontal gene transfer (HGT) events from soil bacteria to streptophyte progenitors |
accelerated |
plant terrestrialization |
|
| horizontal gene transfer (HGT) |
facilitated |
evolution of local Pi sensing circuits in embryophytes |
|
| WOX gene feature for root cap cell induction |
was lost after |
divergence of seed plants |
|
| 2OGD gene expansion |
occurred after |
split from common ancestor of land plants |
Arabidopsis thaliana; Oryza sativa; Picea abies; Selaginella moellendorffii; Physcomitrella patens; Chlamydomonas reinhardtii |
| Mesostigmatophyceae |
are |
early-diverging charophyte algae |
|
| Solanum jamesii |
is |
highly diverged species from cultivated potato |
Solanum jamesii |
| node η |
leads to |
Rosa chinensis group Q UGT homologs |
Rosa chinensis |
| Lignin biosynthesis variability |
correlates closely with |
diversity and evolution of land plants |
|
| gynoecium |
is crucial for |
evolutionary success of flowering plants |
|
| parallel acquisition of a regulatory pathway for controlling stomata apertures |
occurred prior to |
evolution of (AtTRS130, CLUB, TRAPPC10, TRS130, AT5G54440) mosses and ferns |
|
| OPDA and dn-cis-OPDA signaling pathway |
would have been crucial in |
land plant evolution |
|
| AtABCG13 |
has been not identified in |
monocots and early diverging land plant lineages |
|
| angiosperms |
acquired |
(LHCA2*1, Lhca6, AT1G19150) |
Arabidopsis thaliana; Hordeum vulgare |
| CLV |
is |
genetic novelty for a key morphological innovation of land plants |
|
| plant architecture |
has coevolved with |
stomatal physiology |
Arabidopsis thaliana |
| water-to-land transition of plants |
required an adaptation to |
temperature increase |
|
| branching |
was lost in diploid phase of |
bryophytes |
|
| lycophytes |
represent |
first clade in plant evolution in which roots appeared |
|
| gene lineage |
was repeatedly duplicated during |
early diversification of Portulacineae clade |
|
| plants |
invented and diversified |
flowers |
|
| tomato and Arabidopsis |
diverged |
before the radiation of dicotyledonous plants, approximately 90–112 million years ago |
Solanum lycopersicum; Arabidopsis thaliana |
| some plant groups |
have evolved |
stomata able to respond more rapidly to changing environment |
|
| embryophytes |
likely evolved from |
streptophyte algae |
|
| roots in lycophyte and euphyllophyte clades |
are believed to have originated from |
shoots |
|
| lycophytes and gymnosperms |
lack |
endosperm |
|
| myosin classes |
are present in |
plants |
|
| symbiotic associations with beneficial fungi |
occurred during |
conquest of land |
|
| recruitment of regulatory genes controlling rooting function in the sporophyte from the gametophyte stage |
occurred |
early in land plant evolutionary history |
|
| key developmental regulators for gametophyte generation in bryophytes |
have orthologous counterparts in |
angiosperms |
Marchantia polymorpha |
| (ATOPR1, OPR1, AT1G76680) (ATOPR2, OPR2, AT1G76690) |
origin is more ancient than |
(AtOPR3, DDE1, OPR3, AT2G06050) origin |
|
| early plants |
lacked |
true root systems |
|
| Schrenkiella parvula |
is close relative of |
Brassica crop species |
Schrenkiella parvula |
| Marchantia polymorpha (Mp) |
is |
early diverging land plant |
Marchantia polymorpha |
| diversification of molecular functions and expression patterns of myosin XIs in angiosperms |
results in |
achievement of specific tasks during plant evolution |
|
| fungi |
have been widely speculated to help |
land plant progenitors colonize the terrestrial environments |
|
| derived mosses |
are convergently vascular with |
tracheophytes |
|
| alternation of generations |
is characteristic for |
all land plants |
|
| Bursera genus |
showed evidence of |
increasing biosynthetic diversity over macroevolutionary time |
Bursera |
| components of the canonical auxin signaling pathway |
is believed to have evolved during |
transition to land plants |
|
| small repertoire of GH families in early archaeplastidians |
was progressively increasing toward |
modern land plants |
|
| independent loss of 10 GH families in several lineages |
suggests that they might not be |
essential to green plant cells |
|
| terrestrialization |
drove specialization of |
plastids |
|
| expansion and functional diversification of transcription factor families |
likely contributed to |
development of novel regulatory pathways during evolution |
|
| adjustable stomatal pores |
enabled |
development of life on land |
|
| (Lhca5, AT1G45474) acquisition |
implies that Lhca5 was acquired before |
appearance of common ancestor of land plants |
Klebsormidium flaccidum; Arabidopsis thaliana; Physcomitrella |
| Prupe.6G242400 |
belongs to |
TOE-type clade |
Prunus persica |
| LL |
was lost in |
grass genome lineage |
|
| further research |
is required to investigate |
significance of evolution of isochorismate synthase (ICS)-dependent biosynthesis pathway for 3-carboxy aromatic amino acids (3-carboxy AAAs) |
|
| abundance-based approach |
has been employed to understand |
phylogenetic history of phytolith trait |
|
| Marchantia polymorpha CRYPTOCHROME (MpCRY) |
is |
distant nonvascular plant relative of vascular plant CRYs |
Marchantia polymorpha |
| TTTAGGG repeat |
is |
ancestral for land plants |
|
| GH125 exclusive to core chlorophytes |
suggests its acquisition occurred after |
divergence of chlorophytes from the streptophytes |
|
| duplication event of the EXO70 gene family |
was first observed in |
Marchantia polymorpha |
Marchantia polymorpha |
| CYP710 |
shares a common ancestor with |
its functional homologs in fungi (CYP61) |
|
| guard cells and epidermal cells of hornworts |
show striking similarities with |
earliest plant fossils |
|
| bryophytes |
diverged from |
rest of the green lineage |
|
| plant ABC transporter genes |
almost doubled during |
plant land colonization |
|
| GH14 |
is universally conserved among |
all archaeplastidians |
|
| evolution of multicellularity |
is |
key plant evolutionary event |
|
| niche change |
depends on |
the evolution of plant functional traits |
|
| guard cells |
found in |
all major land plant lineages except liverworts |
|
| EXO70 protein |
has undergone |
extreme evolutionary proliferation in plants |
|
| unique clade in the (HUP39, PRP, AT3G23170) subfamily |
is present only in |
monocotyledonous plants |
|
| transporter genes |
have evolutionary trajectories among |
plant lineages |
|
| pollination |
has influenced |
diversification of seed plant families |
|
| plant traits |
reflect outcome of |
evolutionary processes of plants interacting with abiotic and biotic resources, conditions, and disturbances |
|
| shifts in base composition bias |
may shed light on |
major evolutionary transitions in the plant tree of life |
|
| GH13 |
is universally conserved among |
all archaeplastidians |
|
| Syntrichia caninervis and Syntrichia ruralis |
are closely related |
each other |
Syntrichia caninervis; Syntrichia ruralis |
| climbing mechanisms |
appear through |
evolutionary convergences |
|
| last common ancestor of land plants |
had approximately quadrupled |
GH families |
|
| new Early Devonian plants |
reveal |
unexpected complexity in early stages of tracheophyte radiation |
|
| findings |
help to understand |
how future environmental changes may affect plant form and function diversity |
|
| single cotyledon of the grasses |
is |
lingering problem in the evolution of plant development |
|
| MpGLK |
likely represents |
ancestral GOLDEN2-LIKE (GLK) architecture |
Marchantia polymorpha |
| gene losses in bryophytes |
have led to popularity of |
theory that land plant stomata had a complex, ABA-sensitive ancestral state |
|