| TEM genes |
have greater |
Dn : Ds |
Arabidopsis thaliana |
| (AT-POX, ATPDH, ATPOX, ERD5, PDH1, PRO1, PRODH, AT3G30775) orthologous genes |
revealed |
specific origin of (AT-POX, ATPDH, ATPOX, ERD5, PDH1, PRO1, PRODH, AT3G30775) for pod dehiscence |
|
| credible shift set |
contained |
31–58 shifts |
|
| gbM genes |
exhibit lower |
Dn : Ds ratios |
Arabidopsis thaliana |
| two prominent peaks in Ks plots |
occur for |
every species, including outgroups |
|
| group II introns |
are evolutionarily related to |
spliceosomal RNAs, non-LTR retrotransposons, or telomerases |
|
| MoPhzF |
was acquired through |
horizontal gene transfer (HGT) |
Magnaporthe oryzae |
| barley and Brachypodium |
have a much closer evolutionary relationship than |
barley and rice |
Hordeum vulgare; Brachypodium distachyon; Oryza sativa |
| in the family Poaceae |
all PPCKs are grouped together |
but within this clade the subdivision is driven by the high similarity of (ATPPCK1, PPCK1, AT1G08650) proteins |
Zea mays; Sorghum bicolor; Setaria italica; Oryza sativa |
| VEF-L36 and (FIE2, FIS2, AT2G35670) |
were derived from VRN2-like ancestral sequence in |
Arabidopsis and possibly in other angiosperms |
Arabidopsis thaliana |
| Physcomitrella patens Trxs m isoforms |
are clustering together in |
cluster III |
Physcomitrella patens |
| MoPHZC/D/E/G genes |
were not likely acquired through |
an ancient horizontal gene transfer (HGT) event |
Magnaporthe oryzae |
| putative xyloglucan (XyG) arabinofuranosyltransferases |
evolutionary history was investigated using |
phylogenetics |
Solanum lycopersicum |
| larger effective population sizes for nuclear loci |
may lead to |
deeper coalescence times |
|
| horizontal gene transfer (HGT) |
allows organisms to |
acquire novel traits and exploit unexplored resources |
|
| (AtcPT1, cPT1, CPT3, AT2G17570) sequences from S. habrochaites |
group into |
two major clades |
Solanum habrochaites |
| Anabaena sp. PCC 7120 (ATMSRB1, MSRB1, AT1G53670) |
is in |
second subgroup of 1-Cys MSRBs |
Anabaena sp. PCC 7120 |
| TEM genes |
showed higher Dn : Ds ratios compared to |
unM and gbM genes |
Arabidopsis thaliana |
| AhMYB2 |
clusters with |
betalain regulator BvMYB1 next to anthocyanin MYBs (S6) |
Amaranthus hypochondriacus; Beta vulgaris |
| effectors with antimicrobial activity |
may have |
ancient evolutionary origins |
|
| understanding of the links between varied molecular evolutionary phenomena within Ericales and striking evolutionary novelties |
is limited |
current knowledge |
|
| shifts out of tropical climates in Ericales |
are associated with |
whole genome duplications (WGDs) and gene-tree conflict |
|
| constitutive housekeeping expression states |
consistent with |
lower Dn : Ds ratio |
Arabidopsis thaliana |
| credible shift set |
contained |
59–89 shifts |
|
| antifungal effector AMP3 |
likely evolved from |
ancient antimicrobial proteins of terrestrial fungal ancestors |
Verticillium dahliae |
| intra and interspecific centromere diversity |
will be integral to enhance understanding of |
evolutionary dynamics of repeat regions and associated chromatin |
|
| cowpea isomiRs of miR4407 |
may be |
functionally diverged |
Vigna unguiculata |
| evolutionary events |
might have had an effect on |
(RLK, AT5G67280) subfamily expression profiles |
|
| 4 (RLK, AT5G67280) subfamilies (LRR VII, LysM, RLCK IV, and RLCK X) |
registered negative correlation between |
divergence time and expression divergence |
|
| VEF-L36 and (FIE2, FIS2, AT2G35670) |
were derived from |
VRN2-like ancestral sequence |
Arabidopsis thaliana |
| synonymous (Ds) and nonsynonymous (Dn) substitution divergence from Arabidopsis lyrata |
used to calculate |
Dn : Ds ratios |
Arabidopsis thaliana; Arabidopsis lyrata |
| 251 of the 604 (RLK, AT5G67280) genes (42%) |
show |
association between sequence evolution and expression divergence |
Arabidopsis thaliana |
| clear distribution into two groups |
suggests |
distinct origin for two types of MSRB genes |
|
| TEM genes |
showed higher |
Dn : Ds ratios |
Arabidopsis thaliana |
| hints of positive selection |
may indicate |
recent selective adaptation |
Albugo candida |
| antimicrobial effectors with antimicrobial activity |
may have evolved from |
antimicrobial proteins that originally functioned in microbial competition |
|
| phylogenetic analyses |
indicated that |
g162, g164, g165, g166 and g169 formed well-supported group |
Plasmopara viticola |
| (RLK, AT5G67280) subfamilies |
demonstrate signs of |
differential evolution of sequence and expression |
|
| intragenic sequence duplication, deletion/insertion, and intergenic exon shuffling |
could account for |
structural and functional diversification of the VEF genes from an EMF2-like ancestor |
Arabidopsis thaliana |
| 1-Cys MSRB1s |
could be defined in |
three other subgroups |
photosynthetic organisms |
| Synechococcus sp. CC9311 MSRB1.2 |
is in |
first subgroup of 1-Cys MSRBs |
Synechococcus sp. CC9311 |
| Trx m3 orthologs |
are forming |
independent clad |
|
| six of the (RLK, AT5G67280) subfamilies (16%) |
display |
inverse association between sequence divergence and expression divergence |
Arabidopsis thaliana |
| Ka/Ks ratios |
suggest |
relaxation of purifying selection for (ACC2, AT1G36180) |
Arabidopsis thaliana |
| six of the (RLK, AT5G67280) subfamilies |
display |
inverse association between selective pressure and expression divergence |
Arabidopsis thaliana |
| TmXET6.3 (Tropaeolum majus xyloglucan endotransglycosylase 6.3) |
clustered independently on phylogenetic tree |
HvXET3 and HvXET4 |
Tropaeolum majus; Hordeum vulgare |
| Group D |
follows |
Group C |
Striga hermonthica |
| molecular properties of myosin XI |
are conserved between |
bryophytes and angiosperms |
Marchantia polymorpha; Arabidopsis thaliana |
| about a third of the (RLK, AT5G67280) subfamilies |
display |
association between selective pressure and expression divergence |
Arabidopsis thaliana |
| VEF genes |
may be the result of |
historic gene duplication event followed by diversification |
Arabidopsis thaliana |
| eukaryotic 2-Cys MSRBs |
could be subdivided in |
two subgroups |
eukaryotes |
| first subgroup of eukaryotic 2-Cys MSRBs |
contains |
higher plants 2-Cys MSRBs |
higher plants |
| within the systematics groups |
further organization driven by |
PPCK isoform |
Flaveria pringlei; Flaveria robusta; Flaveria ramosissima; Flaveria trinervia; Flaveria bidentis; Flaveria chloraefolia; Flaveria pubescens; Flaveria anomala; Flaveria brownii; Lotus spp.; Soja spp.; Arabidopsis thaliana; Cleome gynandra |
| strength of purifying selection |
varies among |
(RLK, AT5G67280) subfamilies |
Arabidopsis thaliana |
| similarity in domain structure and amino acid composition |
could be the result of |
convergent evolution |
|
| high recombination rates and foreign DNA integration in plant mitochondrial DNA |
explains |
difficulty of retracing evolutionary story of group II introns |
|
| PPCK isoforms and ppcA PEPC from C4 photosynthesis species |
are found on branches marking |
longest evolutionary distance |
Flaveria |
| PpTrxm5 and PpTrxm6 |
are more closely related with |
lower percent identity (59%) |
Physcomitrella patens |
| other CslA group members |
formed separate clade each for |
rice and Arabidopsis |
Oryza sativa; Arabidopsis thaliana |
| M subunit |
shows by far the lowest level of |
sequence identity of all cyt-bf subunits between M. laminosus and Synechocystis sp. PCC 6803 |
|
| (ACC2, AT1G36180) structure, function, and retention |
differ widely throughout |
Brassicaceae |
|
| plant and microbial PALs and TALs |
are part of |
superfamily of enzymes from plants, fungi, and bacteria |
|
| similarity of Class III (Plsp2B, TPP, AT2G30440) genes to proteobacterial sequences |
suggests |
Class III (Plsp2B, TPP, AT2G30440) genes may have been recruited by horizontal gene transfer from endosymbiotic ancestor of mitochondria |
Arabidopsis thaliana |
| DkBG proteins |
clustered into |
three clades |
Diospyros kaki; Arabidopsis thaliana; Solanum lycopersicum; Oryza sativa |
| EMB15 UDP-GlcNAc pyrophosphorylase domain |
originated in |
fungi |
|
| PPCKs cluster |
primarily based on |
systematic relationships rather than photosynthetic type or PPCK isoform |
|
| different evolutionary forces |
might be related to |
divergence of expression patterns within (RLK, AT5G67280) subfamilies |
|
| gene families |
may be the result of |
gene duplication and subsequent diversification from ancestral sequences |
|
| MSRBs of photosynthetic organisms |
are divided into |
two main groups |
photosynthetic organisms |
| (RLK, AT5G67280) sequence evolution |
linked to |
expression divergence |
|
| trans-splicing introns in plant mitochondria |
have arisen via |
genomic recombination of monopartite introns |
vascular plants |
| conserved changes found in both C3 species (F. robusta and F. pringlei) on one side and both C4 species (F. bidentis and F. trinervia) on the other |
defined as |
amino acid exchanges of interest |
Flaveria pringlei; Flaveria robusta; Flaveria trinervia; Flaveria bidentis |
| evolutionary time |
increases toward |
sequence form of the C4 species |
Flaveria trinervia; Flaveria bidentis |
| degree of selective pressure |
tested for relationship to |
amount of expression divergence within each (RLK, AT5G67280) subfamily |
|
| (RLK, AT5G67280) subfamilies |
appear to be under |
purifying selection |
Arabidopsis thaliana |
| CrMSRB1 |
is in |
first subgroup of 1-Cys MSRBs |
Chlamydomonas reinhardtii |
| Ostreococcus MSRB1.1s |
are in |
third subgroup of 1-Cys MSRBs |
Ostreococcus lucimarinus; Ostreococcus tauri |
| phylogenetic analyses of PEPC isoforms in Flaveria spp. |
are similar to |
results of PPCK phylogenetic analysis |
Flaveria pringlei; Flaveria robusta; Flaveria ramosissima; Flaveria trinervia; Flaveria bidentis; Flaveria chloraefolia; Flaveria pubescens; Flaveria anomala; Flaveria brownii |
| Kelch motif |
is ancient and has dispersed widely during |
evolution |
|
| (AtEMF2, CYR1, EMF2, VEF2, AT5G51230) |
may have acted as |
prototype in the generation of the VEF gene family |
Arabidopsis thaliana |
| multiple independent green algal (PRK, AT1G32060) gene origins |
is |
alternative explanation |
|
| CrMSRB1.2 |
cannot be clearly attached to |
a subgroup |
Chlamydomonas reinhardtii |
| phylogenetic analysis |
reveals |
three well supported clades of CSLCs in flowering plants |
|
| Group 3 (HKL, HLP1, AT1G66080) proteins |
are identified as |
relatively basal evolutionary clades |
|
| Group 5 proteins |
have |
many amino acid substitutions |
|
| reduced variability in plant mitochondrial transit peptides |
could be indicative of |
higher selective pressure due to the presence of chloroplasts as a second potential target organelle |
|
| transposable element activity |
provides opportunities for |
genesis of pollen-specific miRs |
|
| ancestral cis-arranged introns |
are found for all trans-splicing introns in |
ferns, fern allies, or hornworts |
|
| 31 (RLK, AT5G67280) genes (5%) |
show |
inverse association between sequence divergence and expression divergence |
Arabidopsis thaliana |
| genes of the shikimate pathway |
do not originate from single prokaryotic ancestor |
single prokaryotic ancestor of cyanobacterial origin |
|
| RhNUDX1, RcNUDX1-1a, RcNUDX1-1b, and RwNUDX1-1 |
are closely grouped together in |
phylogenetic tree |
Rosa x hybrida; Rosa chinensis; Rosa x wichurana |
| duplicate paired genes encoding NF-Y proteins |
exhibit |
asymmetry in amino acid substitution rates |
Oryza sativa |
| poor conservation of rhythmic lincRNAs between distantly related diatom species |
suggests |
strong divergence in primary nucleotide sequence |
Skeletonema robusta |
| enzyme family |
traverses |
all possible lineages |
|
| ARGONAUTE proteins (AGOs) |
can be classified into |
four evolutionary classes |
|
| HYL1-like protein |
was present in |
last common ancestor of plants and animals |
|
| transfer of a partial, inverted T-DNA repeat from Agrobacterium to an N. otophora ancestor |
was accompanied by |
structural and functional divergence of the TE-6b genes |
Nicotiana otophora |
| different characteristics of PDATs from green algae and land plants |
strongly suggest |
functional divergence in the evolutionary history of PDATs from Viridiplantae |
|
| subsequent duplication to TE-1 and TE-2 |
was accompanied by |
structural and functional divergence of the TE-6b genes |
Nicotiana otophora |
| Plant RALF peptides |
have diverged into |
four major clades |
|
| CO-like proteins (COLs) |
have |
function conserved throughout the phylogenetic tree of green plants |
Chlamydomonas reinhardtii; Physcomitrella patens; Arabidopsis thaliana |
| phylogenetic computation of genomic variations at E1009 locus |
presents |
evolutionary relationship network of Striga hermonthica groups |
Striga hermonthica |
| rice PHPs and Arabidopsis (AHP6, HP6, AT1G80100) proteins |
are likely not |
orthologous |
Oryza sativa; Arabidopsis thaliana |
| phylogenetic tree |
shows |
clades related by common descent |
|
| indel |
occurs as |
conserved, extended connecting element |
|
| cyanobacterial Psb32 homologs |
clustered together |
phylogenetic tree |
|
| conserved interrelation between algae and plant homologs |
shows |
probable conservation and importance of this interaction among photosynthetic eukaryotes |
Chlamydomonas reinhardtii; Arabidopsis thaliana |
| PM3A |
is |
evolutionary young |
Triticum aestivum |
| unequal distribution of SAPs |
allows |
hypothesis that Rpi-chc1 alleles evolved through insertion of DNA stretch into LRR domain |
Solanum chacoense; Solanum berthaultii; Solanum tarijense; Solanum tuberosum |
| mitochondrial and chloroplast transit peptides |
suggest |
common evolutionary origin |
|
| loss of the right-hand part of the TE-2 repeat |
was accompanied by |
structural and functional divergence of the TE-6b genes |
Nicotiana otophora |
| HvXET3 and HvXET4 isoforms |
are monophyletic |
evolutionary clade |
Hordeum vulgare |
| nuclear calcium (Ca 2+)-signaling system |
may have originated from |
prokaryotes |
prokaryotes |
| P. patens and S. mollendorffii |
have |
most ancestral sequences |
Physcomitrella patens; Selaginella mollendorffii |
| Arabidopsis lyrata |
is |
5,000,000 years apart from Arabidopsis thaliana |
Arabidopsis lyrata; Arabidopsis thaliana |
| nucleotide substitution rates in Utricularia and Genlisea |
are radically sped up relative to |
sister group, the carnivorous butterworts (Pinguicula) |
Utricularia; Genlisea; Pinguicula |
| phylogenetically unrelated alleles |
share |
motifs up to 19 residues long from polymorphic regions of Prunus S-RNases |
Prunus |
| N. ventricosa |
is nested within different lineage in |
cpDNA phylogeny |
Nepenthes ventricosa |
| (CYP98A8, AT1G74540) and (CYP98A9, AT1G74550) |
evolved rapidly via |
retroposition and positive Darwinian selection |
Arabidopsis thaliana |
| evolutionary path of calcium (Ca 2+) to becoming second messenger |
particularly concerns |
possible role of calcium (Ca 2+) as second messenger in prokaryotes |
|
| plant and green algal Psb32 homologs |
clustered together |
phylogenetic tree |
|
| HvXET6 (Hordeum vulgare xyloglucan endotransglycosylase 6) |
clustered in independent position on phylogenetic tree |
HvXET3 and HvXET4 |
Hordeum vulgare |
| evolutionary analysis |
suggests |
Arabidopsis (EFR, AT5G20480) and rice XA21 are phylogenetically related |
|
| (ANAC059, ATNAC3, NAC3, ORS1, AT3G29035) ortholog promoters |
suggest |
lower selective pressure for conservation |
Arabidopsis thaliana; Arabidopsis arenosa; Brassica oleracea; Capsella rubella; Raphanus sativus |
| rates of AA substitution in Dof domains |
during the most recent 50-million-year period were |
profoundly low |
Oryza sativa; Sorghum bicolor |
| DR and duplicate lost (DL) genes |
showed |
no overall significant difference in rates |
Oryza sativa; Sorghum bicolor |
| 22 AA changes |
is an average of |
1.1 AA change per million years during that time interval |
Oryza sativa; Sorghum bicolor |
| Dof lineage SF06 |
exhibits |
dramatic asymmetry in evolutionary rate over 20-million-year interval |
|
| genome sequencing |
has begun to shed light on |
origin and evolution of dual functions of strigolactones (SLs) |
|
| genes encoding Fe-containing proteins in Arabidopsis |
was acquired very early during |
evolution |
Arabidopsis thaliana |
| Cys2-His2 zinc-finger genes |
show rapid evolution making |
orthology assessment difficult |
|
| genes following 24-h period |
were associated with |
older phylostrata than genes following 12-h period |
Skeletonema robusta |
| (TOD1, AT5G46220) paralogs from Arabidopsis and rice |
are clustered together |
phylogenetic tree |
Arabidopsis thaliana; Oryza sativa |
| relationship between structure and function |
explains |
protein structure is often more conserved than amino acid sequence |
|
| evolutionary relationship of (ATCAND1, CAND1, ETA2, HVE, TIP120, AT2G02560) and OsCAND1 |
supports |
differential essentiality of (ATCAND1, CAND1, ETA2, HVE, TIP120, AT2G02560) between species |
Arabidopsis thaliana; Oryza sativa |
| DkBG1 |
is closer to |
LOC_Os04g39880 of rice |
Diospyros kaki; Oryza sativa |
| young age of Nicotiana tabacum |
did not allow for |
many transversions to accumulate in genome |
Nicotiana tabacum |
| sequence conservation between bi-chromosomal Wm82_mtDNA and mono-chromosomal AGH_mtDNA |
suggests that |
bi-chromosomal Wm82_mtDNA and mono-chromosomal AGH_mtDNA are derived from a common ancestor |
Glycine max |
| one AA substitution |
is projected to have occurred in the |
97–70 MYA interval |
Oryza sativa; Sorghum bicolor; Kobresia littledalei |
| amino acid substitution rates in the Dof domain |
are |
some of the lowest known for proteins |
|
| the same type of exchange |
was observed in |
the C4 species in Amaranthaceae |
|
| OsERS1 and its homologs |
divided into |
two clades: eukaryote-specific GluRSs (clade I) and prokaryote-originated GluRSs (clade II) |
|
| positive association between selective pressure and expression divergence |
may reflect |
relaxed purifying selection allowing greater divergence in expression to evolve |
Arabidopsis thaliana |
| (AtEMF2, CYR1, EMF2, VEF2, AT5G51230) |
is |
most plesiomorphic form of the gene |
Arabidopsis thaliana |
| necessity to fine-tune levels of germline-specific transcripts |
provides opportunities for |
genesis of pollen-specific miRs |
|
| centromeric histone 3 (CENH3, HTR12, AT1G01370) |
undergoes rapid evolution |
(CENH3, HTR12, AT1G01370) protein sequence |
|
| protein sub-cellular localization and undetermined functions |
suggest possible co-evolution of |
protein function and localization |
|
| S335 |
is under positive selection |
evolutionary pressure |
Pseudomonas syringae |
| divergence time of F. erecta from fig clade |
was |
14.0 Ma |
Ficus erecta; Ficus carica |
| HvXET3 and HvXET6 |
did not share |
monophyletic origin |
Hordeum vulgare |
| HvXET3 and HvXET4 |
shared |
monophyletic origin |
Hordeum vulgare |
| HvXET5 (Hordeum vulgare xyloglucan endotransglycosylase 5) |
clustered independently on phylogenetic tree |
HvXET3 and HvXET4 |
Hordeum vulgare |
| HvXET6 |
branched early in clade of |
HvXET3 and HvXET4 |
Hordeum vulgare |
| distinct regions/motifs in (ATPDAT, PDAT, PDAT1, AT5G13640) sequences from green algae and land plants |
strongly suggest |
functional divergence in the evolutionary history of PDATs from Viridiplantae |
|
| average Ka/year of all rice Dof gene Dof domains over the last 50 MY |
is on par with |
ferredoxin protein in animals |
|
| closest homology for MATEs in cassava |
is in line with |
results of MATE protein alignment |
Manihot esculenta |
| gene body methylation (gbM) |
has |
evolutionary origin |
|
| (AtDRB1, DRB1, HYL1, AT1G09700) homologs in sponges and cnidarians |
proposes |
potential for common evolutionary origin between plants and animals |
|
| Zt6/Ribo1 |
is |
pair of orthologs |
|
| Utricularia and Genlisea |
exhibit |
highly increased rates of nucleotide substitution |
Utricularia; Genlisea |
| protein encoded by cDNA |
clusters with |
other plant (ATCCD1, ATNCED1, CCD1, NCED1, AT3G63520) enzymes |
Osmanthus fragrans |
| well characterized fructan exohydrolases (FEHs) |
evolved from |
cell wall invertases (cwINVs) |
|
| HvPPO1 and HvPPO2 |
were closely related to |
wheat PPOs on 2AL, 2BL, and 2DL |
Hordeum vulgare; Triticum aestivum |
| animal, fungal, and plant SCO proteins |
form |
separate clusters |
|
| NOMT genes from low-sakuranetin-accumulating cultivars |
formed |
at least two clusters in dendrogram |
Oryza sativa |
| short tandem duplication |
occurred during |
evolution of Brassicaceae lineages |
Arabidopsis thaliana |
| 22 AA changes in the TPL-binding, GI-binding, and FKF1-binding domains |
occurred from 70 to 50 MYA in |
the SF02 and SF04 lineages |
Oryza sativa; Sorghum bicolor |
| long generation times |
causes |
slow molecular evolution at neutral sites |
|
| selective pressures on virulence effectors |
leave footprints in |
extant allelic variation |
|
| phylostratigraphic analysis |
revealed |
rhythmic protein-coding genes were enriched in eukaryote and stramenopile age |
Skeletonema robusta |
| groups I, II and III |
may represent |
the original genes of the CcCIPK family |
Cajanus cajan |
| signals of positive selection |
can be searched for in |
whole transcriptomes |
|
| (UGT73C7, AT3G53160) |
is |
recently emerged gene specific for Brassicaceae and closely related family |
Arabidopsis thaliana |
| genetic structure of bacterial virulence effectors |
may contribute to |
rapid generation and turnover of virulence effectors |
|
| VdAve1/VdAve1L2 |
is |
pair of orthologs |
|
| epimutEvo clock substitution rate |
exceeds DNA or protein clock rates by |
4–5 orders of magnitude |
|
| quantitative data on substrate specificity and transport rates |
are important in understanding |
transporter evolution |
|
| discovery of (AtDRB1, DRB1, HYL1, AT1G09700) homologs in sponges and cnidarians |
challenges |
notion of convergent evolution |
|
| mutation that causes the P130T amino acid substitution in Kasalath NOMT |
was detected in |
other Oryza sativa cultivars and an Oryza rufipogon strain that cluster together with Kasalath NOMT |
Oryza sativa; Oryza rufipogon |
| Brassica ZEPs |
likely evolved rapidly after |
whole-genome duplication and triplication |
Brassica napus |
| absence of (AtDRB1, DRB1, HYL1, AT1G09700) homologs in bilaterian animals |
led to belief that |
(AtDRB1, DRB1, HYL1, AT1G09700) evolved independently in plants and animals |
|
| amino acid variances between AOC and MPO enzymes |
imply |
evolutionary replication event |
|
| low evolutionary rate of protein genes in plant mitogenomes |
is consistent with |
only two SNPs identified in protein coding sequences between Wm82 and AGH mtDNAs |
Glycine max |
| duplicated gene copies |
are more likely to escape |
selective constraints |
|
| NC |
no statistically significant differences (ANOVA, P >0.01) in |
ggps, (TAT, TAT3, AT2G24850) tyra, and (APG1, E37, IEP37, VTE3, AT3G63410) paralogues |
Solanum lycopersicum; Solanum pennellii |
| glutathione S-transferase (ATGSTU24, GST, GSTU24, AT1G17170) genes |
cluster into |
two sub-clades |
Actinidia deliciosa |
| insertion of DNA stretch into LRR domain |
may happen through |
unequal crossing-over with paralog sequences |
Solanum chacoense; Solanum berthaultii; Solanum tarijense; Solanum tuberosum |
| directional selection |
has driven |
evolutionary divergence of indica and japonica OsTTG1 alleles |
Oryza sativa |
| seed number differences among (TOD1, AT5G46220) orthologs |
are consistent with |
evolutionary relationships |
Solanum lycopersicum; Nelumbo nucifera; Nymphaea colorata; Oryza sativa; Arabidopsis thaliana |
| ancestral clade |
should be renamed as |
group-IV (floral) clade |
|
| phylogenetic relationships of cyclases that generate nonsteroidal triterpene alcohols |
might indicate |
recent and rapid catalytic evolution |
|
| lower Ka/Ks value (<1) in Arabidopsis |
suggests |
occurrence of purifying action in duplication events influenced by natural selection |
Arabidopsis thaliana |
| SF06A lineage |
had |
one amino acid substitution in the Dof domain |
Oryza sativa; Sorghum bicolor |
| (TOD1, AT5G46220) orthologs |
are clustered together |
phylogenetic tree |
Solanum lycopersicum; Nelumbo nucifera; Nymphaea colorata; Ginkgo biloba; Pinus taeda |
| plant endoglucanases (EG16) |
evolved to |
true XTHs |
|
| differences in miRNA biogenesis between animals and plants |
led to belief that |
(AtDRB1, DRB1, HYL1, AT1G09700) evolved independently in plants and animals |
|
| ancestral group |
shows divergence from |
group-I/II XTHs and group-III/EG16 sequences |
|
| D14L |
is |
older paralogue to (D14, AT3G03990) |
|
| effector structural conservation |
occurs |
within and across diverse taxa |
|
| polymorphic sites in sequences encoding LRR domain of Mla alleles |
are under |
positive selection |
Hordeum vulgare |
| differences in primary sequence |
might be proxy for |
functional divergence |
|
| phylogenetic analysis |
revealed |
papaya lcy-β2 was most similar to chromoplast-specific lycopene β-cyclase from tomato |
Carica papaya; Solanum lycopersicum |
| predicted amino acid sequences of (PPO, TOPP2, AT5G59160) genes from six grass species |
were used for |
phylogenetic analysis |
Hordeum vulgare; Triticum aestivum; Oryza sativa; Zea mays; Sorghum bicolor; Brachypodium distachyon |
| HvPPO1 and HvPPO2 |
were compared with |
deduced (PPO, TOPP2, AT5G59160) amino acid sequences of five other species |
Hordeum vulgare; Triticum aestivum; Oryza sativa; Zea mays; Sorghum bicolor; Brachypodium distachyon |
| AtXTH11 |
is |
member of group-IV (floral) clade |
Arabidopsis thaliana |
| protein structure |
is often more conserved than |
amino acid sequence |
|
| 14 duplicated gene pairs in O2 and (OHP, OHP1, PDE335, AT5G02120) regions |
averaged |
Ks value of 0.448 |
Zea mays |
| nucleotide substitution rates in Utricularia and Genlisea |
occur across genomes of |
mitochondrial, plastid, and nuclear compartments |
Utricularia; Genlisea |
| cytoplasmic invertases (cytINVs) cluster |
shows only distant relationship to |
sequences mentioned above |
|
| Ks value of Os 03–Os 07 |
falls into |
two groups with average values of 0.30 and 0.60 |
Oryza sativa |
| LRR-Extensin gene pair |
has Ks values of |
0.245±0.031 (Os 03–Os 07), 0.417±0.045 (Sb 01–Sb 02), 0.317±0.033 (Zm 01–Zm 07), 0.37±0.035 (Zm 02–Zm 05) |
Oryza sativa; Sorghum bicolor; Zea mays |
| enhanced speciation rates among bladderworts |
was attributed to |
systemic effect of accelerated nucleotide substitution rates |
Utricularia |
| KCHs from Oryza sativa, Arabidopsis thaliana, Populus trichocarpa, Vitis vinifera, Ricinus communis, and Physcomitrella patens |
cluster into |
four different clades |
Oryza sativa; Arabidopsis thaliana; Populus trichocarpa; Vitis vinifera; Ricinus communis; Physcomitrella patens |
| monocotyl and dicotyl plants |
lack |
recent common ancestor of anther-specific cwINVs |
|
| (TOD1, AT5G46220) ortholog members from angiosperms |
are clustered together |
(TOD1, AT5G46220) ortholog clade |
Solanum lycopersicum; Nelumbo nucifera; Nymphaea colorata; Oryza sativa; Arabidopsis thaliana |
| AtXTH11 |
is |
member of ancestral clade |
Arabidopsis thaliana |
| Auxin gene pair |
has Ks values of |
0.561±0.072 (Os 03–Os 07), 0.321±0.049 (Sb 01–Sb 02), 0.307±0.046 (Zm 01–Zm 07) |
Oryza sativa; Sorghum bicolor; Zea mays |
| VvRabGAPs and VvRabGDIs |
were from |
distinct clades |
Vitis vinifera |
| KCHs from Physcomitrella forming a separate branch |
indicates |
a possible higher evolutionary divergence of these proteins |
Physcomitrella patens |
| dicot-A and monocot-A clusters |
are only distantly related to |
each other |
|
| RNase Phy3 and RNase Phy4 |
are very different from |
canonical S-RNases found in Petunia hybrida |
Petunia hybrida |
| third lineage of Nepenthes endochitinases |
contains |
N. hybrid 'Mizuho' and monophyly of N. gracilis and N. singalana |
Nepenthes hybrid 'Mizuho'; Nepenthes gracilis; Nepenthes singalana |
| higher ω ratios in green algal branch |
means |
evolution was more relaxed in the algal group |
|
| higher non-synonymous (KA) than synonymous (KS) substitution rate |
is indication of |
positive selection |
|
| (GEX3, AT5G16020) |
shows high levels of |
sequence conservation |
|
| TaIVR3 from wheat |
is located in |
cluster monocot-C |
Triticum aestivum |
| first lineage of Nepenthes endochitinases |
consists of |
N. ventricosa and N. mirabilis |
Nepenthes ventricosa; Nepenthes mirabilis |
| 19 genes |
M1a displayed the best fit, indicating that even when a proportion of codons are evolving neutrally, there is |
no support for positive selection |
Arabidopsis thaliana; Solanum lycopersicum; Solanum pennellii |
| 460 small GTPase sequences |
were phyletically analysed to shed light on |
evolution and functional characteristics of legume-specific homologues |
Medicago truncatula; Lotus japonicus; Arabidopsis thaliana; Homo sapiens; Saccharomyces cerevisiae |
| MATE protein alignment |
displays highest homology between |
MATE genes on chromosome 16 and chromosome 17 |
Manihot esculenta |
| 30 AA changes in these three domains |
have occurred from 50 MYA to the present, which is an average of |
0.6 AA changes per million years during that time interval |
Oryza sativa; Sorghum bicolor |
| evolution of integrated domains in R genes |
has been postulated to be caused by |
unknown recombination- or transposon-independent translocation mechanism |
|
| putative rice-diverged GTs |
may also be |
grass-diverged |
Oryza sativa |
| UN1 gene pair |
has Ks values of |
0.747±0.082 (Os 03–Os 07), 1.089±0.147 (Sb 01–Sb 02), 0.620±0.073 (Zm 01–Zm 07), 0.596±0.070 (Zm 02–Zm 05) |
Oryza sativa; Sorghum bicolor; Zea mays |
| DNA met gene pair |
has Ks values of |
0.595±0.031 (Os 03–Os 07), 0.456±0.026 (Sb 01–Sb 02) |
Oryza sativa; Sorghum bicolor |
| vacINVs from both Arabidopsis and tobacco |
comprise |
cluster dicot-D |
Arabidopsis thaliana; Nicotiana tabacum |
| S-RNases of the Prunoideae and Maloideae |
form |
two separate clades |
Prunoideae; Maloideae |
| additional intron in Prunus S-RNases |
is |
autapomorphy |
Prunus |
| rice chromosome 1 (PPO, TOPP2, AT5G59160) (Os01PPO) |
formed |
different major clade (group B) |
Oryza sativa |
| evolutionary divergence between different organisms |
causes |
inability to identify homologues in Arabidopsis |
|
| anther-specific invertases of monocotyledenous plants |
cluster within |
phylogenic group monocot-A |
|
| monocot-A and dicot-A clusters |
can be clearly distinguished from each other |
each other |
|
| bootstrap analysis with 100 trees |
was performed with |
Protdist with Dayhoff's PAM matrix |
|
| difference in resolution between cpDNA data and present phylogenetic reconstruction |
strongly indicates |
crucial effect of marker employed for phylogenetic analyses |
Nepenthes |
| (EFO1, RUP1, AT5G52250) (EFO2, RUP2, AT5G23730) (ATCOP1, COP1, DET340, EMB168, FUS1, AT2G32950) and SPA WD domains |
may have descended from |
common ancestor |
Arabidopsis thaliana; Chlamydomonas reinhardtii |
| OsCIN3 and TaIVR1 |
group in |
cluster monocot-A |
Oryza sativa; Triticum aestivum |
| (HCC1, AT3G08950) and (HCC2, AT4G39740) proteins |
may have resulted from |
earlier duplication followed by loss of (HCC2, AT4G39740) in mosses |
plants; Physcomitrella patens |
| previous molecular study based on chloroplast (TRNA LYS, TRNK, TRNK-UUU, ATCG00030) intron sequence data |
divided |
genus Nepenthes into three major evolutionary lineages |
Nepenthes |
| amino-acid residues in enzymes encoded by ppc-aL1b and nadpme-IV |
have indeed changed between |
common ancestor of Sartidia and Stipagrostis and extant species of Stipagrostis |
Sartidia; Stipagrostis |
| phylogenetic analysis |
revealed |
two main ppc lineages in flowering plants |
|
| SF06B lineage |
had |
six amino acid substitutions in the Dof domain |
Oryza sativa; Sorghum bicolor |
| incorporation of demographic processes into models of molecular evolution and association genetics approaches |
has improved |
statistical power to detect deviations from neutral-equilibrium expectations |
|
| collection of structures |
contains examples of |
natural selection at atomic resolution |
|
| centromeric sequences |
undergo rapid evolution |
centromeric sequence composition |
|
| epimutEvo clock substitution rate |
exceeds that of |
DNA or protein clock substitution rates |
|
| Utricularia |
shares with sister genus Genlisea |
anomalous molecular evolutionary features |
Utricularia |
| VvRopGAP |
had |
distinct origin |
Vitis vinifera |
| five phenol reaction-negative accessions (types I–V) |
occupied unique positions separated from |
three phenol reaction-positive accessions |
Hordeum vulgare |
| anthranilate synthase α-subunit (AMT1, ASA1, JDL1, TRP5, WEI2, AT5G05730) nucleotide sequences |
reveal |
high degree of sequence homology |
Oryza sativa; Arabidopsis thaliana; Ruta graveolens; Nicotiana tabacum |
| Bayesian consensus tree |
has topology corresponding to |
bootstrap 50% majority rule consensus tree |
Nepenthes ventricosa; Nepenthes mirabilis; Nepenthes thorelii; Nepenthes ampullaria; Nepenthes hybrid 'Mizuho'; Nepenthes gracilis; Nepenthes singalana; Nepenthes rafflesiana |
| average Ks values of maize |
is |
0.487 and 0.548 |
Zea mays |
| anther-specific invertases of dicotyledenous plants |
cluster within |
phylogenic group dicot-A |
|
| Ks values |
were calculated for |
Rice 3–Rice 7 (Os 03–Os 07) gene pair |
Oryza sativa |
| seven copies of KCH in Arabidopsis thaliana and Oryza sativa |
have presumably emerged through |
gene duplication during plant evolution |
Arabidopsis thaliana; Oryza sativa |
| AtTPR-like gene (RWD40, AT2G25420) |
could not establish clear relationship with |
SlTPL6 |
Arabidopsis thaliana; Solanum lycopersicum |
| adaptive changes |
are detectable in |
other protein-encoding sequences of Arabidopsis lyrata and Arabidopsis thaliana |
Arabidopsis lyrata; Arabidopsis thaliana |
| r60S gene pair |
has Ks values of |
0.357±0.036 (Os 03–Os 07), 0.469±0.047 (Sb 01–Sb 02), 0.466±0.047 (Zm 01–Zm 07), 0.580±0.056 (Zm 02–Zm 05) |
Oryza sativa; Sorghum bicolor; Zea mays |
| DgCCD8s |
are placed in a well-supported clade with |
petunia (ATCCD8, CCD8, MAX4, AT4G32810) proteins |
Dendranthema grandiflorum; Petunia hybrida |
| distantly related isoenzyme (ATSUC2, SUC2, SUT1, AT1G22710) of yeast (Saccharomyces cerevisiae) |
has low sequence homology with |
plant antisense invertase and plant invertase inhibitor |
|
| cluster dicot-A |
contains |
additional cwINVs with other expression profiles |
|
| Ks value of the IGL–TSA gene pair in Sb 01–Sb 02 |
was excluded from |
analysis |
Sorghum bicolor |
| O2 |
is |
an old gene |
|
| rice cwINVs |
form |
one main cluster |
Oryza sativa |
| OsCIN4(Ji)_pseudo, OsCIN3 and TaIVR1 |
group in |
cluster monocot-A |
Oryza sativa; Triticum aestivum |
| I677 and U004 |
are |
distantly related |
Hordeum vulgare |
| changing environmental conditions |
caused diversification of function of |
Fe |
|
| protein sequence alignment and phylogenetic analysis |
resulted in |
phylogenetic tree divided into group I, group II, group IIIA, group IIIB, group IV (floral/ancestral group) and XTH-precursor EG16 group |
Arabidopsis thaliana; Brachypodium distachyon; Oryza sativa; Populus trichocarpa; Triticum aestivum |
| bacterial Paenibacillus macerans licheninase (PmLicheninase) |
is |
closest to EG16 members in evolutionary distance |
Paenibacillus macerans |
| (AtXTH3, XTH3, AT3G25050) |
is |
member of ancestral clade |
Arabidopsis thaliana |
| knowledge of genes involved in specialized metabolite production |
enables investigation of |
evolution of genes among closely related and divergent plant lineages |
|
| UbiA prenyltransferase protein family |
has undergone convergent evolution during |
taxon-specific molecular evolution |
|
| OsKCH1 clustering into the most expanded branch |
is together with |
two other closely related rice KCH family members |
Oryza sativa |
| both monocotyledenous and dicotyledenous plants |
have |
FEH evolution from cwINVs |
|
| changes in donor substrate and/or the acceptor substrate |
gave |
remaining forms of fructosyltransferases |
|
| coding sequence of truncated invertase OsCIN4(Ji)_pseudo |
shows |
close relationship to OsCIN3 and TaIVR1 |
Oryza sativa |
| two sorghum PPOs (Sb06PPO1 and Sb06PPO2) |
are sister to |
barley and wheat clade |
Sorghum bicolor; Hordeum vulgare; Triticum aestivum |
| duplication and divergence of FT-like proteins |
reveals |
increased complexity of function in certain taxonomic groups |
|
| (HCC1, AT3G08950) and (HCC2, AT4G39740) proteins |
form |
separate clusters within plant lineage |
plants |
| agronomic-related genes |
have |
evolutionary history |
|
| different gene pairs |
differ greatly in |
divergence rates |
Oryza sativa; Sorghum bicolor; Zea mays |
| Phylogenic analysis of plant invertases (β-fructofuranosidases) and related genes |
was carried out in |
different species |
Arabidopsis thaliana; Nicotiana tabacum; Solanum lycopersicum; Solanum tuberosum; Daucus carota; Oryza sativa; Triticum aestivum |
| remaining cwINVs |
group in |
additional clusters dicot-B and -C |
|
| gene conversion |
may have played a role in determining |
allelic diversity of RNase-based incompatibility systems |
Rosaceae |
| alignment of eukaryotic SCO protein sequences |
was used to construct phylogenetic tree with |
PHYLIP group of programs |
|
| dS and dN values |
varied greatly between |
genes |
Solanum lycopersicum; Solanum pennellii |
| ADR1s (ACTIVATED DISEASE RESISTANCE 1) |
demonstrate |
remarkable conservation |
|
| ancient duplication event timing |
is slightly more than |
divergence of the rice and sorghum/maize lineages of 50 mya |
Oryza sativa; Sorghum bicolor; Zea mays |
| cytoplasmic invertases (cytINVs) cluster |
was designated |
cytINVs (monocot+dicot) |
|
| further evolution |
had changes in |
donor substrate and/or the acceptor substrate |
|
| Protdist analysis |
was followed by |
Neighbor |
|
| ggps(2) and (ATSDX1, VTE1, AT4G32770) |
displayed lower |
significance levels |
Arabidopsis thaliana; Solanum lycopersicum; Solanum pennellii |
| rates of amino acid substitution in the critical Dof domain region |
were over twofold higher during |
20-million-year period following the WGD |
Oryza sativa; Sorghum bicolor |
| same mechanism |
may be active in |
LRR exchange to evolve recognition of non-integrated domains |
Solanum chacoense; Solanum berthaultii; Solanum tarijense; Solanum tuberosum |
| candidate secreted effector proteins |
can be highly divergent even among |
related species |
|
| effectors |
potentially evolve |
new functions |
|
| subsequent positive selection and diversifying evolution |
allow |
relaxed selection of duplicated metabolic genes |
|
| (AtDRB1, DRB1, HYL1, AT1G09700) homologs in sponges and cnidarians |
introduce |
intriguing evolutionary connection between plants and cnidarians |
|
| Ks values |
were calculated for |
Zm 05–Zm 02 gene pair |
Zea mays |
| anther-specific invertases of different species |
were aligned with |
related genes coding for fructan-building enzymes (FBEs) |
|
| phylogenic analysis of anther-specific cwINV genes |
aims to provide insights into |
whether there is co-evolution in different plant species |
|
| cluster dicot-A |
contains no |
fructan exohydrolases (FEHs) |
|
| structure of VTE metabolic pathway |
could have influenced |
protein evolution rates |
Solanum lycopersicum; Solanum pennellii |
| divergence time between Cucumis metuliferus and Cucumis melo |
is |
17.8 million years ago |
Cucumis metuliferus; Cucumis melo |
| DOF family |
rapidly expanded in |
vascular plants |
|
| Pgl (ATPGIP1, PGIP1, AT5G06860) |
has |
phylogenetic position among known PGIPs |
Pennisetum glaucum |
| Pgl (ATPGIP1, PGIP1, AT5G06860) |
was placed among |
monocot PGIPs |
Pennisetum glaucum |
| phylogenetic analysis |
is consistent with |
genome alignment data of orthologous sequences |
|
| stem lineages leading to Pinguicula |
are quite comparable to |
stem lineages leading to Utricularia and Genlisea |
Pinguicula; Utricularia; Genlisea |
| phylogenic analysis of anther-specific cwINV genes |
aims to provide insights into |
whether cwINVs with anther-specific expression are closely related |
|
| Cell wall invertases with anther-specific expression in dicotyl species |
show |
a kind of co-evolution |
|
| (HEMG2, MEE61, PPO2, AT5G14220) gene |
showed |
ambiguous separation of phenol reaction-positive and reaction-negative accessions |
Hordeum vulgare |
| phylogenetic tree analysis |
illustrated that |
BnHO1 belongs to the (ATHO1, GUN2, HO1, HY1, HY6, TED4, AT2G26670) family |
Brassica napus |
| genes of MEP, post-chorismate SK, and tocopherol biosynthesis core pathways |
displayed values similar to or lower than |
average dN/dS |
Solanum lycopersicum; Solanum pennellii |
| this study |
will assist in furthering understanding of |
evolutionary history of small GTPases in legume species |
Medicago truncatula; Lotus japonicus |
| Ks values of all gene pairs |
differ between |
0.106 and 1.089 range |
|
| IGL-TSA gene pair |
has Ks values of |
0.613±0.069 (Os 03–Os 07) |
Oryza sativa |
| cytoplasmic invertases (cytINVs) of Arabidopsis and rice |
form |
common cluster |
Arabidopsis thaliana; Oryza sativa |
| cluster monocot-A |
can be clearly distinguished from |
cluster with the anther-specific cwINVs of dicotyl plants |
|
| RNase Phy3 and RNase Phy4 |
seem to be closer to |
RNases found in the Rosaceae |
Petunia hybrida; Rosaceae |
| BjCET3 and BjCET4 genes |
strongly indicates that they are |
functional and evolutionary orthologues with similar protein functions |
Brassica juncea |
| most proteins |
have functional difference often the result of |
positive selection at only a few sites |
|
| rare variants in Arabidopsis lyrata Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) |
will include |
deleterious nonsynonymous mutations |
Arabidopsis lyrata |
| G variant |
is |
ancestral state |
Brassicaceae |
| ggps(2) and (ATSDX1, VTE1, AT4G32770) |
showed a higher proportion of codons evolving under |
positive selection (~25%) than ggps(4) (0.8%) |
Arabidopsis thaliana; Solanum lycopersicum; Solanum pennellii |
| increased efficiency and accessibility of sequencing |
permits |
application of advances in molecular evolution theory to detect effects of artificial selection on genes and gene systems |
|
| effective number of codons (Nc) |
was calculated for |
each gene and species |
Solanum pennellii; Solanum lycopersicum |
| three TPS-e/f subfamily members residing at single locus on chromosome 8 |
may represent |
orthologous loci |
Solanum lycopersicum; Solanum pennellii; Solanum habrochaites |
| CCD family |
is |
ancient |
|
| (HPD, HPPD, PDS1, AT1G06570) pair |
a significant Nc bias was observed (ANOVA, P <0.01) |
codon usage bias |
Solanum lycopersicum; Solanum pennellii |
| protein sequences from eukaryotic host |
are |
monophyletic |
|
| (GEX3, AT5G16020) |
KA/KS ratio is lower than 1, especially at N-terminus, suggesting evolved under |
purifying selection |
Arabidopsis thaliana; Arabidopsis lyrata; Cardamine hirsuta; Capsella rubella |
| z1 gene pair |
has Ks values of |
0.218±0.035 (Os 03–Os 07) |
Oryza sativa |
| enzymes from Cichorium intybus and Triticum aestivum |
group in |
clusters dicot-D and monocot-D respectively |
Cichorium intybus; Triticum aestivum |
| neighbor-joining tree |
included proteins belonging to |
three RNase T2 classes |
|
| ppc sequences from algal species Chlamydomonas fragilis |
are sister to |
ppc sequences from gymnosperms and angiosperms |
Chlamydomonas fragilis |
| (ATIPT9, IPT9, AT5G20040) |
to which PpIPT1 is |
orthologue |
Arabidopsis thaliana; Physcomitrella patens |
| second branch |
is absent in |
Arabidopsis |
Arabidopsis thaliana |
| Dsi-1 VOC gene family |
probably evolved from |
ancestral eubacteria |
|
| QrSUT1 |
forms group with |
JrSUT1 from Juglans regia (Juglandaceae) |
Quercus robur; Juglans regia |
| SlTPL6 homologues |
form |
distinct clade |
Solanum lycopersicon; Solanum tuberosum; Nicotiana benthamiana; Mimulus guttatus |
| protein sequences from cyanobiont |
are |
monophyletic |
|
| absence of orthologue in parasitic nematodes |
suggests that |
C. elegans genes might not be conserved or may be rapidly evolving |
parasitic nematodes; Caenorhabditis elegans |
| second branch |
contained |
SlTPL2, rice (AGD7, ASP1, AT2G37550) protein, and moss or lycophyte TPL-like proteins |
Solanum lycopersicon; Oryza sativa; Physcomitrella patens; Selaginella moellendorffii |
| (AtcathB1, AT1G02300) |
has orthologous genes in |
Brassicaceae species |
Arabidopsis thaliana; Arabidopsis lyrata; Capsella rubella; Arabis alpina; Eutrema salsugineum; Brassica rapa |
| M1a model |
proposes that |
a proportion of codons is under purifying selection while the remainder have neutral evolution |
|
| two complementary repeat classes in tRNA Leu (UAA) intron |
have |
unknown evolutionary origin |
|
| genetic material for nodulation |
was recruited following |
gene duplication |
|
| rice-diverged GTs |
hypothesized to have |
significantly different primary sequences compared to dicots |
Oryza sativa; Arabidopsis thaliana; Populus trichocarpa |
| anther-specific invertases of different species |
were aligned with |
fructan exohydrolases (FEHs) |
|
| cwINVs and fructan exohydrolases (FEHs) |
evolved from each other rather than from |
different ancestors |
|
| OsCIN4 |
in the present broader phylogenic analysis groups in |
cluster monocot-C |
Oryza sativa |
| N. ampullaria, N. gracilis, N. mirabilis, N. rafflesiana, and N. thorelii |
were found to be members of |
same lineage in cpDNA phylogeny |
Nepenthes ampullaria; Nepenthes gracilis; Nepenthes mirabilis; Nepenthes rafflesiana; Nepenthes thorelii |
| dN/dS values for different ggps, (TAT, TAT3, AT2G24850) tyra, (APG1, E37, IEP37, VTE3, AT3G63410) and (HPD, HPPD, PDS1, AT1G06570) paralogues |
varied by |
3.5, 2.1, 7.6, 3.4, and 1.9 times respectively |
Solanum lycopersicum; Solanum pennellii |
| candidate genes of related pathways: apt, chl, and lycb |
displayed higher |
dN/dS values than the mean |
Solanum lycopersicum; Solanum pennellii |
| OVULE PECTIN MODIFIER 1 (OPM1) |
is |
restricted to the Triticeae tribe |
Hordeum vulgare |
| Ka/Ks substitution rate of CsMATE1 |
is much higher than |
Ka/Ks of CmMATE1 and ClMATE1 |
Cucumis sativus; Cucumis melo; Citrullus lanatus |
| barley and Brachypodium genomes |
show similar synonymous substitution rates on coding genes compared with |
rice genome |
Hordeum vulgare; Brachypodium distachyon; Oryza sativa |
| Candida parapsilosis |
acquired PhzF homologs from bacteria via |
horizontal gene transfer (HGT) |
Candida parapsilosis |
| OVULE PECTIN MODIFIER 2 (OPM2) |
is |
relatively conserved in cereal crops |
Hordeum vulgare |
| non-demographic processes |
potentially contribute to |
compositional change |
|
| AtTPR3 and (AtTPR2, TPR2, AT1G04130) |
are closely related to |
SlTPL3 |
Arabidopsis thaliana; Solanum lycopersicum |
| phylogenetic analysis |
suggested that |
cotton MATEs were grouped into the same group with other species, including Arabidopsis TT12- and TT12-like MATE transporters |
Gossypium hirsutum; Arabidopsis thaliana |
| metazoan sequences |
are significantly more divergent |
plant and protozoan FU sequences |
|
| clade E |
includes accessions from |
groups I, III, and IV |
Solanum habrochaites |
| evolutionary pattern among candidate genes and their paralogues |
was investigated by estimating |
pairwise synonymous (dS), non-synonymous (dN), and dN/dS divergence |
Solanum lycopersicum; Solanum pennellii |
| coding and non-coding sequences in plants |
evolve |
faster |
|
| variation in compositional heterogeneity |
highlights the need to investigate |
signal of biological processes |
|
| stc1 gene |
is evolving particularly fast |
evolutionary rate |
Zea mays; Zea teosintes mays ssp. mexicana; Zea luxurians; Zea diploperennis; Tripsacum dactyloides; Coix lacryma-jobi; Sorghum propinquum |
| sub-functionalization of SHP genes |
occurred after |
divergence of the asterids and the rosids |
|
| plants and fungi |
have evolved different |
transcription factors and cis-regulatory elements for proteasome control |
|
| nucleotide sequence of MADS domain of CiFL1 |
is most similar to |
Asteraceae ESTs |
Cichorium intybus var. sativum |
| older genes |
have been under |
stronger purifying selection |
|
| average levels of sequence divergence between the two species among different categories of (ATNACK2, NACK2, TES, AT3G43210) |
were analyzed using |
shared TE set |
Brassica rapa; Brassica oleracea |
| group II RNAs |
are |
evolutionary precursors to spliceosomal introns |
|
| CAM-specific PEPC isoforms |
evolved from |
ancestral non-photosynthetic PEPC isoforms |
|
| most abundantly transcribed isoform for C3 species |
clustered with |
most abundantly transcribed isoforms for weak- and strong-CAM species |
|
| Peace protein |
clustered with |
anthocyanin regulators of monocotyledonous plants ZmC1, ZmPl, and OsC1 |
Prunus persica |
| numbers of substitutions in Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) |
are |
large |
Arabidopsis lyrata; Arabidopsis thaliana |
| shift between 1,2 and 1,6 specificities |
may have occurred more than once during |
plant evolution |
|
| group II intron splicing in plant mitochondria |
is expected to shed light into |
functions and mechanisms of spliceosomal descendants within the nucleus |
Arabidopsis thaliana |
| equal rates of dN and dS substitutions (ω=1) |
suggest |
neutral evolution |
|
| bacterial genes encoded by symbiosis or pathogenicity islands |
have deviating |
evolutionary rates |
|
| SlTPL6 homologue |
was found in |
all Asterids |
Solanum tuberosum; Nicotiana benthamiana; Mimulus guttatus |
| (AtcathB2, AT1G02305) |
has orthologous genes in |
Brassicaceae species |
Arabidopsis thaliana; Arabidopsis lyrata; Capsella rubella; Arabis alpina; Eutrema salsugineum; Brassica rapa |
| residue 733 (maize numbering) |
has posterior probability >0.99 of positive selection |
positive selection |
Suaedoideae |
| branch lengths of six additional IPTs |
indicating |
changes in the rate of evolution |
Physcomitrella patens |
| (TPL, WSIP1, AT1G15750) from Physcomitrella patens and Selaginella moellendorffii |
clustered in |
same branch |
Physcomitrella patens; Selaginella moellendorffii |
| evolution of amino acid biosynthesis pathways |
seems to have expanded by |
horizontal gene transfer from various cyanobacterial, eukaryotic, and prokaryotic sources |
|
| low synonymous divergence in first 500 bp of Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) |
largely causes |
Ka > Ks in first 500 bp |
Arabidopsis thaliana; Arabidopsis lyrata |
| ARGONAUTE 1 (AGO1, AtAGO1, ICU9, AT1G48410) |
belongs to same clade as |
ARGONAUTE 5 (AGO5, AtAGO5, AT2G27880) and ARGONAUTE 10 (AGO10, PNH, ZLL, AT5G43810) |
Arabidopsis thaliana |
| PEPC genes |
have approximately 10% (or approximately 100 residues) invariant across |
all PEPC genes |
|
| Phylogenetic analysis of Pgl (ATPGIP1, PGIP1, AT5G06860) and other monocot and dicot PGIP sequences |
showed |
monocot and dicot PGIPs forming separate clusters |
|
| ω (omega) for Arabidopsis thaliana Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) lineage |
is |
0.568 ± 0.181 |
Arabidopsis thaliana |
| well-defined branches in dendrogram |
lack |
plum sequences |
Prunus spp. |
| available data, especially the topology and branch lengths of the PpIPT subtree |
based on |
alternative (ii) seems to be the most probable evolutionary scenario |
Physcomitrella patens |
| low dN values in motif regions compared with flanking regions |
suggest |
motifs are ancient sequences conserved over long periods |
|
| TEF gene phylogenetic tree |
includes species from |
monocots, eudicots, and Saccharomyces cerevisiae |
Saccharomyces cerevisiae |
| monocot Orchidaceae ppc sequences |
are embedded within |
eudicots ppc1-E1 lineage |
|
| AMP-IPT clade |
is formed entirely by proteins from |
slime moulds; cyanobacterial and proteobacterial plant symbionts or pathogens |
|
| no significant difference between lineages in ratio of replacement to synonymous substitutions |
is observed |
Arabidopsis lyrata and Arabidopsis thaliana Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) |
Arabidopsis lyrata; Arabidopsis thaliana |
| UDP-glucose 4-epimerase 4 (REB1, RHD1, UGE4, AT1G64440) |
shares high sequence similarity with |
UDP-glucose 4-epimerase 2 (ATUGE2, UGE2, AT4G23920) |
Arabidopsis thaliana |
| clade D |
displays |
highest level of sequence conservation |
Solanum habrochaites |
| ppc-1 consensus tree |
reveals |
two main lineages in flowering plants |
|
| three characterized PEPC genes in Alternthera (Amaranthaceae) |
were phylogenetically sister to |
Flaveria PEPC genes |
Alternthera |
| Peace protein |
clustered with |
(ATMYB123, ATTT2, MYB123, TT2, AT5G35550) |
Prunus persica |
| averaging of the degrees of synonymous divergence over a number of genes |
should reduce |
inaccuracies in estimating the evolutionary molecular clock |
|
| phylogenetic analysis |
clearly shows that |
CrDL7H and SLS genes grouped separately from other CYP72 family members |
Catharanthus roseus; Vinca minor; Rauwolfia serpentina; Tabernaemontana elegans; Amsonia hubrichtii; Cinchona ledgeriana; Lonicera japonica |
| maturases |
have ancient relationships to |
host introns |
|
| direct repeats in Vat |
can mediate |
evolution |
|
| tandem repeats in C-terminal region of (PLDrp1, AT5G39570) |
points to |
recent evolutionary events |
plant kingdom |
| clade D |
consists of accessions from |
group I |
Solanum habrochaites |
| sequence divergence within the Solanum habrochaites TPS-e/f family |
raises questions about |
evolutionary origins of this diversity |
Solanum habrochaites |
| NF5 genes |
have significantly higher Ka/Ks ratio than |
NF1 genes |
Chlamydomonas reinhardtii; Volvox carteri; Physcomitrella patens; Selaginella moellendorffii; Brachypodium distachyon; Oryza sativa; Sorghum bicolor; Zea mays; Arabidopsis thaliana; Carica papaya; Glycine max; Populus trichocarpa; Solanum tuberosum; Vitis vinifera |
| (NTRC, AT2G41680) gene |
shows |
evolutionary success among photosynthetic eukaryotes |
|
| gene duplication |
arises from |
unequal crossing-over events |
Arabidopsis thaliana |
| sequence identities and percentage of Prunus persica sequence length aligned with homologues |
suggest |
high degree of conservation of gene products in plants |
Prunus persica; Arabidopsis thaliana; Oryza sativa |
| Ms10 35, StbHLH, AtDYT1, and OsUDT1 |
are within the same clade |
phylogenetic tree |
Solanum lycopersicum; Solanum tuberosum; Arabidopsis thaliana; Oryza sativa |
| ppc lineage composed of Pyrrosia and Isoetes |
is basal to |
angiosperm and gymnosperm ppc lineages |
Pyrrosia; Isoetes |
| cumulative distinctive features |
support |
idea that SlTPL6 has partially lost its ancestral function and may have gained new functionality |
Solanum lycopersicum |
| most abundantly transcribed isoform of all Oncidiinae species |
grouped within |
ppc1-M1 lineage |
|
| seven Physcomitrella IPTs |
cluster within |
clade of class I tRNA-IPTs |
Physcomitrella patens |
| SlTPL6 |
has already diverged from other family members by |
low expression level, high amino acid substitution rate and different subcellular localization |
Solanum lycopersicum |
| group of MATE transporters related to proanthocyanidin accumulation |
is clearly distinct from |
known anthocyanin MATE transporters, anthoMATE1 (AM1), AM3 from V. vinifera, and MTP77 from Zea mays, as well as a nicotine MATE from tobacco |
Vitis vinifera; Zea mays; Nicotiana |
| cystatins in plants |
cluster in |
phylogenetic branch distinct from other cystatin families |
|
| PPCKA isoform |
branching reflects |
photosynthetic type of the species |
Flaveria pringlei; Flaveria robusta; Flaveria ramosissima; Flaveria trinervia; Flaveria bidentis; Flaveria chloraefolia; Flaveria pubescens; Flaveria anomala; Flaveria brownii |
| (REM11, VAL, AT5G60140) |
has been introduced in |
the further evolved C3-C4 intermediates and the C4 species in two independent evolutionary paths |
Flaveria trinervia; Flaveria bidentis; Flaveria brownii; Flaveria pubescens; Flaveria anomala |
| 691 genes in Brassica rapa |
showed significantly lower level of Ka than |
in Brassica oleracea |
Brassica rapa; Brassica oleracea |
| rates of nucleotide substitution of genic sequences |
shows asymmetry based on |
different chromatin environments |
Oryza sativa; Arabidopsis thaliana; Glycine max |
| tandem repeats in (AT3G29075) and (PLDrp1, AT5G39570) |
might have originated through |
gene duplication |
Arabidopsis thaliana |
| incongruence among Triticeae gene-trees |
may reflect |
introgressive hybridization or incomplete lineage sorting, or the mixing of paralogues with orthologues |
Triticeae |
| ω (omega) for Arabidopsis lyrata Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) lineage |
is slightly higher than |
ω for Arabidopsis thaliana Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) lineage |
Arabidopsis lyrata; Arabidopsis thaliana |
| high divergence in Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) 5′ region found across multiple populations |
is more consistent with |
balancing selection |
Arabidopsis lyrata |
| two clades of (PGAP1, AT3G27325) homologs |
divergence can be traced back to |
ancient whole genome duplication event |
|
| molecular clock suggested by Gaut (1998) |
is based on |
mean of nine nuclear genes |
|
| late role of PLE-like genes in controlling dehiscence |
may pre-date |
divergence of rosids and asterids |
|
| cluster S |
is subdivided into |
clades D and E |
Solanum habrochaites |
| ppc1-M1 |
was composed of |
ppc sequences from closely related Oncidiinae species |
|
| two paralogous eudicot PEPC genes |
are identified by |
recent phylogenetic analysis |
|
| equal rates of dN and dS substitutions (ω=1) |
suggest |
low selective pressure for a specific amino acid at that residue |
|
| SlTPL6 |
is contained in |
the last clade |
Solanum lycopersicum |
| correlation between gene expression level and amino acid substitution rate |
has already been observed in |
genome-wide comparisons of expression patterns and protein evolution in Arabidopsis-related plants and in the Poaceae family |
Arabidopsis thaliana; Poaceae |
| genes in land, vascular, and seed plant clades |
tend to shift in the same direction across |
gene regions |
|
| rate shifts |
are distributed throughout |
Ericales |
|
| (AtUVR8, UVR8, AT5G63860) protein sequence |
is strongly conserved in |
plant lineage |
|
| amino acid sequences of CTPSs |
are highly conserved among |
divergent organisms |
|
| Intron 2 in (CLPP1, PCLPP, ATCG00670) |
was identified in |
M. endlicherianum |
Mesotaenium endlicherianum |
| some slow species (Cucumis sativus, Solanum lycopersicum and Vitis vinifera) |
have |
dN/dS ratios more characteristic of accelerated species |
Cucumis sativus; Solanum lycopersicum; Vitis vinifera |
| Vacuolar Protein Sorting 26C (VPS26C, AT1G48550) |
is absent from |
grasses |
|
| beginning of the handle domain of (CLPP1, PCLPP, ATCG00670) |
appeared to be |
hot spot for structural variants |
|
| (CLPP1, PCLPP, ATCG00670) and the other core plastid Clp subunits |
had a significant rate correlation |
plastid- and nuclear-encoded Clp subunits are subject to shared variation in selection pressures |
|
| expression patterns of CTEGs |
are more affected by |
speciation |
|
| estimated date of maize–Tripsacum divergence |
does not differ much whether using |
molecular clock based on Ks values for bz, tac7077 and uce2 from Brachypodium and rice |
Zea mays; Tripsacum; Brachypodium; Oryza |
| 24 of the 38 (RLK, AT5G67280) subfamilies (63%) |
show |
association between sequence evolution and expression divergence |
Arabidopsis thaliana |
| Trx h class |
shows monocot species clustering separately in |
phylogenetic analysis |
|
| second main group of MSRBs |
includes |
all 1-Cys MSRBs |
photosynthetic organisms |
| ages depicted in Figure 5 |
are |
relative |
Arabidopsis thaliana |
| (AtsesterTPS1, AtTPS18, TPS18, AT3G14520) |
forms the out group for |
all sequences |
Solanum lycopersicum; Solanum habrochaites |
| 631 predicted (PGAP1, AT3G27325) protein homologs from >300 eukaryotic species |
identified |
two major phylogenetic clades for plants |
|
| FeSUT1 |
shows high sequence similarities to |
AmSUT1 and AbSUT1 from Alonsoa meridionalis and Asarina barclaiana |
Fraxinus excelsior; Alonsoa meridionalis; Asarina barclaiana |
| low number of dN substitutions relative to dS substitutions (ω<1) |
indicates |
purifying selection pressure against changes to the amino acid present |
|
| DOF family |
rapidly expanded in |
ferns |
|
| (AtcathB1, AT1G02300) and (AtcathB2, AT1G02305) |
are paralogous to |
AlCathB1 and AlCathB2 |
Arabidopsis thaliana; Arabidopsis lyrata |
| lncRNAs |
may represent |
conserved genes in eukaryotes undergoing rapid sequence evolution |
|
| documented occurrence of gene conversion at SRK gene |
suggests that |
nonselective process might similarly drive accumulation of polymorphisms in eSRK |
Arabidopsis thaliana; Arabidopsis lyrata; Brassica species; Capsella grandiflora |
| clade E |
predominantly from |
group II |
Solanum habrochaites |
| non-synonymous substitution (Ka) in triplicates retained in Brassica rapa genome |
was significantly lower than |
in Brassica oleracea |
Brassica rapa; Brassica oleracea |
| NTRCs from different sources |
produced |
phylogenetic tree with major groups of photosynthetic organisms |
|
| balancing selection in Medea (EMB173, FIS1, MEA, SDG5, AT1G02580) 5′ promoter region |
is suggested by |
high diversity in 5′ promoter region |
Arabidopsis lyrata |
| Brassica rapa |
has significantly higher Ks than |
Brassica oleracea |
Brassica rapa; Brassica oleracea |
| sequence conservation of CysPc–C2L domains in land plant (ATDEK1, DEK1, EMB1275, EMB80, AT1G55350) sub-clade |
reflects |
functional conservation |
|
| fourth clade |
includes |
rose RAG04722 |
Rosa chinensis; Prunus persica |
| diverse and previously unexplored lineages of flowering plants |
facilitate |
exploration of emergence of EG16s vis-à-vis XTH gene products |
|
| Bathycoccus prasinos |
has |
lost (CLPP1, PCLPP, ATCG00670) |
Bathycoccus prasinos |
| widespread (CLPP1, PCLPP, ATCG00670) pseudogenization and/or gene replacement |
was not found evidence for |
accelerated lineages |
|
| analysis of (CLPP1, PCLPP, ATCG00670) acceleration |
has characterized |
remarkable extent and repeatability of (CLPP1, PCLPP, ATCG00670) acceleration |
|
| TALE homeobox heterodimers |
are found in |
animals and unicellular relatives such as choanoflagellates |
|
| average sequence divergence between common outcrossing species |
is |
less than half of divergence between these species and A. thaliana |
Arabidopsis thaliana; Arabidopsis halleri; Arabidopsis lyrata; Arabidopsis arenosa |
| Brassica rapa |
has lower ω than |
Brassica oleracea |
Brassica rapa; Brassica oleracea |
| additional taxa |
would considerably enhance |
sensitivity of method to identify positively selected genes |
|
| tandem repeats in (PLDrp1, AT5G39570) |
occur exclusively in |
members of the Brassicaceae family |
Brassicaceae |
| class-1 and class-2 non-symbiotic hemoglobins (Hbs) |
arose through |
gene duplication event |
|
| AtMRI and MpMRI genes |
evolved independently for approximately |
450–470 million years |
Arabidopsis thaliana; Marchantia polymorpha |
| AtPGAP1 (PGAP1, AT3G27325) |
is classified into |
different clade from (AT5G17670) |
Arabidopsis thaliana |
| GALS homologous proteins |
were divided into |
four clades: dicot-I and -II, monocot, and a loose subgroup of other land plants |
|
| dN substitution analysis results |
indicated |
motif regions less frequently subject to substitution than flanking regions |
|
| reduced contribution of the euAG ortholog to the C-function |
may be restricted to |
FARINELLI (AmFAR) in the Antirrhinum lineage |
Antirrhinum majus |
| long generation time |
is accompanied by |
slow molecular clock rate |
|
| Vacuolar Protein Sorting 26C (VPS26C, AT1G48550) large retromer subunit |
shows deep conservation of cellular function across |
plant and animal kingdoms |
|
| Intron 1 in (CLPP1, PCLPP, ATCG00670) |
is present in |
Chara vulgaris |
Chara vulgaris |
| (CLPP1, PCLPP, ATCG00670) in some lineages |
contains |
internal stop codon |
|