ライフサイエンスコーパス: life form

1 site aridity, taxonomic identity and species life form.

2 m primary productivity, independent of plant life form.

3 s are the most abundant and the most diverse life form.

4 offer a comprehensive view of a fundamental life form.

5 tly, cooperating to form a new, more complex life form.

6 ubule, --fundamental nano-tube in a cellular life form.

7 gested that this was also important in early life forms.

8 ment copper is indispensable for all aerobic life forms.

9 n noise is a universal phenomenon across all life forms.

10 sh elements is widely encountered across all life forms.

11 or homobaric leaves and herbaceous or woody life forms.

12 plants is essential for the survival of most life forms.

13 make osmotrophy prohibitive for macroscopic life forms.

14 important role in the thermal adaptation of life forms.

15 insertion into membranes is essential to all life forms.

16 ong the oldest known macroscopic and complex life forms.

17 al 2D gels was strongly conserved across all life forms.

18 ransition from single cells to multicellular life forms.

19 last universal common ancestor of all extant life forms.

20 into membranes is a process essential to all life forms.

21 ine prior to the last common ancestor of all life forms.

22 (P) is a vital micronutrient element for all life forms.

23 rane channels found in cell membranes of all life forms.

24 sion of all other known viruses and cellular life forms.

25 othermally active planets may harbor similar life forms.

26 amental unity of biological processes in all life forms.

27 aquaglyceroporins) has been found in diverse life forms.

28 and behavioural processes in a wide range of life forms.

29 ts the principal characteristics of cellular life forms.

30 Iron-sulfur proteins are found in all life forms.

31 structure essential for copper export in all life forms.

32 sembling, self-replicating models of minimal life forms.

33 egetation) were the most intensively studied life forms.

34 of species richness for a variety of marine life forms.

35 chemical diversity of nucleobases across all life forms.

36 Copper(I) is an essential metal for all life forms.

37 f any, effect on the evolution of eukaryotic life forms.

38 them with a competitive advantage over other life forms.

39 acids is an essential activity in all known life forms.

40 eplication stress and instability across all life forms.

41 ant to initiate Darwinian evolution of early life forms.

42 en fundamental to the development of complex life forms.

43 Phosphorylcholine (ChoP) can be found in all life forms.

44 umerous cellular functions across nearly all life forms.

45 umulating heavy metal pollutant toxic to all life forms.

46 gy conversion that is a signature of aerobic life forms.

47 ironment that generate continuous novelty of life forms.

48 esults are discussed in the context of early life forms.

49 for the ecology and evolution of eukaryotic life forms.

50 ctional specificity of LCDs across all known life forms.

51 of genomic information into proteins in all life forms.

52 chloroplasts are important for virtually all life forms.

53 support the existence of all higher trophic life forms.

54 e expression in the parasite's intravascular life forms.

55 lucose anabolism could have emerged in early life forms.

56 es, underscoring their importance across all life forms.

57 tems and the composition of Earth's earliest life forms.

58 de (SGC) is virtually universal among extant life forms.

59 rane integrity compared to lipids from other life forms.

60 ponents are the mainstay of conflicts across life forms.

61 rfectly suitable as a growth media for early life forms.

62 hat contributed to the development of higher life forms.

63 sing and utilisation are fundamental for all life forms.

64 tial biological molecules in the majority of life forms.

65 they show little obvious relation to extant life forms.

66 Cytochrome P450 enzymes are found in all life forms.

67 ons underlie energy generation in nearly all life forms.

68 ient enzyme cofactors found in virtually all life forms.

69 DNA replication is essential for all life forms.

70 oups of viruses to the exclusion of cellular life forms.

71 important cellular functions in contemporary life forms.

72 no acids (BCAAs) are building blocks for all life-forms.

73 lecules in mirror-life forms and present-day life-forms.

74 in conditions that are lethal to most other life-forms.

75 in various receptor proteins from all major life-forms.

76 ideration of safety of putative mirror-image life-forms.

77 an clocks control rhythmic behaviors of most life-forms.

78 greenhouse periods in the history of complex life-forms.

79 l in efforts to create more robust synthetic life-forms.

80 a safe level for the most sensitive aquatic life-forms.

81 e data to constrain the environment in which life formed.

82 st represent the vast array of natural yeast life-forms?

83 lements of well-being in young adults' daily life form a dynamic network?

84 (3) Is either leaf phenology or life form a predictor of rooting depth?

85 MYCN-NA neuroblastoma in the second year of life form a transitional group between infants and older

86 with each other as basic building blocks of life, forming a complicated network.

87 ecovery of the largest synthetic replicating life form, a 29.7-kb bat severe acute respiratory syndro

88 'universal' genetic code is widespread among life-forms, a number of diverse lineages have evolved un

89 more likely a reflection of the frequency of life forms across latitudes rather than the strength of

90 undant organisms on Earth and also the major life form affected by mercury (Hg) poisoning in aquatic

91 Site, climate, life form and family together explained 70% of trait var

92 sh elements are associated with all cellular life forms and are the most abundant biological entities

93 sm is likely to have been present in ancient life forms and conserved in a variety of living organism

94 of genetic information is essential for all life forms and depends on cellular pathways that enable

95 e about features that make each of us unique life forms and directions for future characterization of

96 to examine the correlated evolution of plant life forms and environmental niches.

97 tides (AMPs) are essential components in all life forms and exhibit antimicrobial activity.

98 variation in part by selection for different life forms and families.

99 l goal of synthetic biology is to create new life forms and functions, and the most general route to

100 cell communication (CCC) is essential to how life forms and functions.

101 serve as a platform for the creation of new life forms and functions.

102 nsitions across their evolutionarily diverse life forms and habitats.

103 ing identified across biological systems and life forms and have been shown to control hemostasis, th

104 is first described, as well as how primitive life forms and humans manage the metal.

105 rvation is universal across the diversity of life forms and implies a biphasic evolutionary regime wh

106 Nitrogen is fundamental to all life forms and is also one of the most limiting of nutri

107 of proteins by phosphorylation occurs in all life forms and is catalyzed by a large superfamily of en

108 the results were consistent across different life forms and life stages.

109 mall molecule polyamines are abundant in all life forms and participate in diverse aspects of cell gr

110 e interaction between biomolecules in mirror-life forms and present-day life-forms.

111 eins from cellular organisms to non-cellular life forms and provide evidence to support the hypothesi

112 e California Floristic Province of different life forms and range sizes under recent and future clima

113 segregation is a fundamental process in all life forms and requires coordination with genome organiz

114 RNA polymerases (RNAPs) are essential to all life forms and therefore deserve our special attention.

115 ior to the last common ancestor of all known life forms and those apparently originating as consequen

116 rstanding of innate immune mechanisms across life forms and underscoring the evolutionary significanc

117 The arms race between cellular life forms and viruses is a major driving force of evolu

118 te and overlapping effects of site, climate, life-form and family membership.

119 ion, pigmentation and redox activity to most life forms, and inspire synthetic materials with desirab

120 element molybdenum (Mo) is utilized in many life forms, and it is a key component of several enzymes

121 Bacteriophages represent a majority of all life forms, and the vast, dynamic population with early

122 However, savannas support diverse plant life-forms, and human-induced changes in large-herbivore

123 Nitric oxide (NO*) is a toxin, and various life forms appear to have evolved strategies for its det

124 rassland, I determined that life history and life form are stronger predictors of underlying processe

125 All cellular life forms are afflicted by diverse genetic parasites, i

126 Given that all life forms are associated with viruses and/or other mobi

127 clear that all the changes and the original life forms are dependent upon energy as well as material

128 irions, likely ancestors encoded by cellular life forms are identifiable.

129 All life forms are miraculous, but some are more inexplicabl

130 , but the geographical ranges of species and life-forms are difficult to track individually.

131 nces in adaptations of seed dormancy between life-forms are poorly understood.

132 mation is a remarkable feature of biological life forms associated with evolutionary advantages and o

133 protein-based life was preceded by a simpler life form based primarily on RNA.

134 tential pathways to the design of artificial life forms based on non-natural nucleic acids.

135 more commonly, establish resistant encysted life forms before the emergence of protective immune res

136 new light on the proliferation of primitive life-forms billions of years ago.

137 nome sequences are the blueprints of diverse life forms but they reveal little information about how

138 t, such as a heat source or a bioluminescent life form, but we know little about how the human visual

139 could not only destroy the existing ancient life forms, but could also contribute to the creation of

140 ent Earth's oldest known complex macroscopic life forms, but their morphological history is poorly un

141 and Mn are essential micronutrients for all life forms, but when present in excess, these same metal

142 e influence on the dormancy pattern for both life-forms, but precipitation and temperature were impor

143 The tremendous diversity in eukaryotic life forms can ultimately be traced back to evolutionary

144 Lectins are produced in almost all life forms, can interact with targets (glycans) in a cro

145 The common ancestor of all life forms could encode a prototype Toprim enzyme that m

146 All life forms defend their genome against DNA invasion.

147 All life forms depend on the conversion of energy into bioma

148 o LUCA, whereas others reconstruct a simpler life form dependent on geochemistry.

149 lenium is an essential trace element in many life forms due to its occurrence as a selenocysteine (Se

150 insects, and chitinases are induced in lower life forms during infections with these agents.

151 have been crucial to the radiation of higher life forms during the Phanerozoic.

152 ve shown to differ significantly among plant life forms (e.g., among grasses, shrubs, and trees) in h

153 ts across trophic levels for different plant life forms, ecosystems and climatic zones.

154 Independent life-form effects were small.

155 lected eukaryotic organisms showed that most life forms encode three major TFIIB subfamilies that inc

156 ng 3250 species, which we analyzed alongside life form, endemism, and climatic zone variables using a

157 ize varies across three selected covariates: life form, endemism, and climatic zone.

158 em et al. demonstrate that different Candida life forms engage selected skin dendritic cell subsets i

159 ntee to thrive so long as nucleic acid-based life forms exist.

160 species traits (seed mass, seed dormancy and life form) for 2350 species of angiosperms.

161 Aerobic life forms generate ATP through the oxidation of organic

162 observations of >1,000 species along biotic (life form, genus) and abiotic (precipitation, soil, drai

163 tures species abundance distributions of all life forms, habitats and abundance scales.

164 Our data spanning terrestrial plant orders, life forms, habitats, and sizes conform closely to WPM p

165 the last universal common ancestor of modern life forms had an ancestral DNA-pumping ATPase that gave

166 nd the last common ancestor of multicellular life forms harbored approximately 3.4 introns/kilobase,

167 The evolution of ever increasing complex life forms has required innovations at the molecular lev

168 irst completed genome sequence of a cellular life form, has been recently reported.

169 Diverse life forms have evolved internal clocks enabling them to

170 In this context, terrestrial life forms have evolved mechanisms that directly harness

171 Copper (Cu) is essential for all life forms; however, in excess, it becomes toxic.

172 However, our understanding of this tiniest life form in complex ecosystems remains limited.

173 servations of survival of microbes and other life forms in deep subsurface environments it is necessa

174 e discussed, as is the possible relevance to life forms in liquid ammonia.

175 plant lineage with a high diversity of plant life forms in the Neotropics, and employ ecological nich

176 damental liability inherent to multicellular life forms in which an individual cell is capable of ren

177 ortunities for the rise of new heterotrophic life forms, including humankind.

178 Recent efforts are now being expanded to all life forms, including protists, plants and animals, and

179 (self-induced) is intrinsic to all cellular life forms, including unicellular organisms.

180 The evolution of genomes in all life forms involves two distinct, dynamic types of genom

181 The prime objective for every life form is to deliver its genetic material, intact and

182 morphologically distinct haploid and diploid life forms is a defining feature of most plant and algal

183 The evolutionary history of all life forms is usually represented as a vertical tree-lik

184 e in this radical transition towards complex life forms is, however, sometimes questioned.

185 th the smallest known genome of any cellular life form, lacks virtually all known regulatory genes, a

186 This result was consistent across different life forms, life cycles, provenances, and phylogenetic s

187 We hypothesise that for a given life form like trees, greater harshness leads to a small

188 porters are crucial to the viability of many life forms, little is known about their structure and qu

189 last universal common ancestor of the extant life forms (LUCA).

190 Current life forms maintain a low error rate in replication, usi

191 The complexity of even the simplest known life forms makes efforts to synthesize living cells from

192 Hydrothermal vent ecosystems support diverse life forms, many of which rely on symbiotic associations

193 In almost all biological life forms, molybdenum and tungsten are coordinated by m

194 t that habit shifts from herbaceous to woody life forms observed in many angiosperm lineages could ha

195 and reliable system for producing short half-life forms of proteins expressed in mammalian cells.

196 expression was equal in the cyst and trophic life forms of the organisms.

197 equencing initiatives across a wide range of life forms offer significant potential to enhance our un

198 es the rules of translation for nearly every life form on Earth.

199 essential basis for the evolution of complex life forms on a habitable Earth.

200 To understand how humans and other life forms on Earth (including those we are yet to disco

201 Most life forms on Earth are supported by solar energy harnes

202 nogens are considered as one of the earliest life forms on Earth, and together with anaerobic methane

203 n rhythmicity, one of the key adaptations of life forms on Earth, may contribute to frailty later in

204 g representatives of one of the most ancient life forms on Earth.

205 tore inherited traits and is favored by most life forms on Earth.

206 Insects are one of the most important animal life forms on earth.

207 ptional record of the earliest multicellular life forms on Earth.

208 ro-organisms constitutes the majority of all life forms on Earth.

209 ygenic photosynthesis supports virtually all life forms on earth.

210 ell as being considered proxies for possible life forms on ice-covered extraterrestrial bodies.

211 Viruses represent the most abundant life forms on the planet.

212 Corals are a major habitat-building life-form on tropical reefs that support a quarter of al

213 e, primordial metal fundamental for earliest life forms, on which CSCs have an epigenetically program

214 bles but this variation was not explained by life form or phylogeny.

215 y resource use developed between 2 evergreen life forms (overstory tree and palm), probably because o

216 Amino acids are among the building blocks of life, forming peptides and proteins, and have been caref

217 estingly, DTD, which is conserved across all life forms, performs "chiral proofreading," as it remove

218 scale sequencing efforts across four diverse life forms (placental mammals, pomace flies, birds, and

219 common ancestor (LCA) of all modern cellular life forms possessed DNA but did not replicate it the wa

220 can perform specific functions, making such life forms possible.

221 e elements, which are ubiquitous in cellular life forms, provide the only known, naturally evolved to

222 oduction of common goods is found in diverse life forms ranging from viruses to social animals.

223 deltaDn-alkane values among different plant life forms remain poorly understood.

224 ly revealed that viruses, like multicellular life, form reproductively isolated biological species.

225 All extant life forms require trace transition metals (e.g., Fe(2/3

226 Synthesis of RNA in early life forms required chemically activated nucleotides, pe

227 naute (AGO) proteins in all three domains of life form ribonucleoprotein or deoxyribonucleoprotein co

228 All life forms sense and respond to mechanical stimuli.

229 sity of structures and functions impacts all life forms since primordia.

230 ce availability and disturbance frequency on life form strategy evolution has received limited attent

231 Surprisingly, even complex life forms such as mammals can be grown to near-complete

232 Organisms across the tree of life form symbiotic partnerships with microbes for metab

233 y that leads to a more complex multicellular life form that can only replicate as a whole.

234 scoideum belongs to a group of multicellular life forms that can also exist for long periods as singl

235 rse engineering of muscular organs or simple life forms that pump to survive.

236 ecedented changes to soil ecosystems and the life forms that reside there, including viruses.

237 e only known rocky planet to support complex life forms that use oxygen and to have a strong intrinsi

238 Coral is the life-form that underpins the habitat of most tropical re

239 and higher plants represent the most complex life-forms that ever diversified on Earth, and their oxy

240 For multicellular life-forms that persist in settings with variable oxygen

241 In most contemporary life forms, the confinement of cell membranes provides l

242 The human cell is a symbiosis of two life forms, the nucleus-cytosol and the mitochondrion.

243 is indeed the smallest among known cellular life forms, there is no evidence that it is the minimal

244 We go through life forming these different associations with the smell

245 deep sea hydrothermal vents and the unusual life forms they host.

246 the fundamental units of life, and like all life forms, they change over time.

247 immunity apparently conserved from primitive life forms through to humans is the ability of the host

248 well-being of all organisms from unicellular life forms to humans.

249 tems chemistry seeks to mimic the ability of life forms to use conserved sets of building blocks and

250 with geophysical time, which enables diverse life-forms to anticipate daily environmental cycles.

251 crofossils, some of Earth's earliest complex life forms, to establish their biogenicity and to ascert

252 and the energetics of birds and other volant life-forms, to improve our own methods of flying through

253 The diploid-to-haploid life form transition is governed by the loss of H3K9me2

254 sibility and epigenetic modifications during life form transitions in Arabidopsis.

255 Shifts in competitive relationships among 3 life forms--trees, palms, and perennial herbs--occurred

256 ent bioenergetic macromolecular motor in all life forms, utilizing the proton gradient across the cel

257 ast, the metabolism of the earliest cellular life forms was likely much simpler with only a few enzym

258 Despite their extraordinary life form, we know little about their biology.

259 iron is an important nutrient for nearly all life forms, we restrict our discussion to energy-yieldin

260 As the first life forms were most likely to have been simple replicat

261 cularly increased oxygen levels, and ancient life forms were obliged to develop additional antioxidat

262 s of life limited to membrane-bound cellular life forms which feed, grow, metabolise and replicate (i

263 Little is known about how the trophic life forms, which do not have a fungal cell wall, intera

264 leiber's law, and predict the possibility of life forms with geometries intermediate between trees an

265 Heme is a vital molecule for all life forms with heme being capable of assisting in catal

266 e of the gene pool within populations of all life forms with implications for their subsequent surviv