ライフサイエンスコーパス: revolutionize our understanding

1 esearch to clinical diagnostics, potentially revolutionizing our understanding and management of dise

2 lar control of brain synchronization and are revolutionizing our understanding and treatment of the d

3 y with high frequency and in real time would revolutionize our understanding of biology and our capac

4 ent state of proteomics and its potential to revolutionize our understanding of biology and transform

5 and the central nervous system (CNS) further revolutionize our understanding of brain structures and

6 cribe the shape of chromosomes have begun to revolutionize our understanding of genome organization a

7 own effects of cognition on perception would revolutionize our understanding of how the mind is organ

8 tanding of this disease but may also help to revolutionize our understanding of human genetics.

9 avenues for extension and expansion that can revolutionize our understanding of infectious disease pr

10 al databases and creating the opportunity to revolutionize our understanding of life and disease.

11 These have the potential to revolutionize our understanding of many neurological dis

12 m's returned lunar samples, will potentially revolutionize our understanding of Mars and help inform

13 is possible in PNI and has the potential to revolutionize our understanding of mind-body medicine.

14 induced pluripotent stem cells is likely to revolutionize our understanding of neuropsychiatric diso

15 ssive metabolite spaces, and we expect it to revolutionize our understanding of plant chemoevolutiona

16 ipulate neural function, which have begun to revolutionize our understanding of relatively simple beh

17 range of weak protein-SLiM interactions, and revolutionize our understanding of signaling networks.

18 ncestral lemur condition, an idea that could revolutionize our understanding of the ancient socioecol

19 profiling to adult motor neurons, which will revolutionize our understanding of the healthy and degen

20 oited the use of human and mouse genetics to revolutionize our understanding of the molecular and cel

21 approaches in nonhuman primates promises to revolutionize our understanding of the neural circuitry

22 n of small molecules in complex samples will revolutionize our understanding of the role of metabolit

23 oupled with high-throughput sequencing could revolutionize our understanding of the role of RNA struc

24 in biological and environmental samples will revolutionize our understanding of the role these chemic

25 with ultra-deep coverage, thus promising to revolutionize our understanding of the underlying divers

26 ng these techniques in deep time promises to revolutionize our understanding of the ways in which env

27 elopments in proteomics tools now promise to revolutionize our understanding of this fundamental post

28 obal transcript levels, RNA-seq is poised to revolutionize our understanding of transcription and pos

29 NA in any cell type and has the potential to revolutionize our understanding of transcriptomes and th

30 lly manipulating influenza virus promises to revolutionize our understanding of viral replication and

31 Whereas the Th1-Th2 paradigm revolutionized our understanding of adaptive immunity by

32 Omics have revolutionized our understanding of allergic diseases, w

33 ications in the study of transcriptomes have revolutionized our understanding of alternative splicing

34 f important palaeobotanical discoveries have revolutionized our understanding of angiosperm diversifi

35 iew, we describe how improved microscopy has revolutionized our understanding of axonal development.

36 tracking of fluorescent fusion proteins has revolutionized our understanding of basic concepts in ce

37 It has revolutionized our understanding of biological processes

38 Ultra-multiplexed fluorescence imaging has revolutionized our understanding of biological systems,

39 rface-based single-molecule experiments have revolutionized our understanding of biology and biomolec

40 gle-molecule imaging at the tissue scale has revolutionized our understanding of biology by providing

41 n interactions through two-hybrid assays has revolutionized our understanding of biology.

42 Electronic tracking tags have revolutionized our understanding of broad-scale movement

43 naling pathway was a major breakthrough that revolutionized our understanding of cell growth and diff

44 Single-cell RNA sequencing has revolutionized our understanding of cellular diversity b

45 Single-cell RNA sequencing (scRNA-seq) has revolutionized our understanding of cellular heterogenei

46 Single-cell RNA sequencing has revolutionized our understanding of cellular heterogenei

47 Single-cell sequencing has revolutionized our understanding of cellular heterogenei

48 f single-cell RNA sequencing (scRNA-seq) has revolutionized our understanding of cellular heterogenei

49 The biopsychosocial model has revolutionized our understanding of chronic pain and pav

50 lysis) instrument aboard the Rosetta mission revolutionized our understanding of cometary material co

51 Genomic technologies have revolutionized our understanding of complex Mendelian di

52 Discoveries in human genetic studies have revolutionized our understanding of complex rheumatic an

53 Live-cell imaging has revolutionized our understanding of dynamic cellular pro

54 nantiornithines) during the past decade have revolutionized our understanding of early avian evolutio

55 Genomic and evolutionary studies have revolutionized our understanding of early oxygenic photo

56 The discovery of this biota revolutionized our understanding of Earth's early animal

57 discovery of topological photonic states has revolutionized our understanding of electromagnetic prop

58 election in the wild, long-term studies have revolutionized our understanding of evolution.

59 Phylogenomic analyses have revolutionized our understanding of evolutionary relatio

60 of energy balance and insulin signaling have revolutionized our understanding of fat and sugar metabo

61 Historical ecology has revolutionized our understanding of fisheries and cultur

62 CRISPR/Cas9 technologies have revolutionized our understanding of gene function in com

63 ence and related RNA silencing pathways have revolutionized our understanding of gene regulation.

64 ssively Parallel Reporter Assays (MPRAs) has revolutionized our understanding of genotype-to-phenotyp

65 Optical dating has revolutionized our understanding of Global climate chang

66 These and other findings that followed have revolutionized our understanding of how biomolecules are

67 ul bioengineering and molecular tools - have revolutionized our understanding of how cells respond to

68 stem and activate innate immune pathways has revolutionized our understanding of how crystals cause i

69 ughs in NLR biochemistry and biophysics have revolutionized our understanding of how NLR proteins fun

70 vidual genes from a variety of organisms has revolutionized our understanding of how single genes evo

71 Emerging spatial profiling technologies have revolutionized our understanding of how tissue architect

72 al genetics and cultural evolution have both revolutionized our understanding of human behavior - lar

73 Ancient DNA has revolutionized our understanding of human evolutionary h

74 nd ancient genomes from around the world has revolutionized our understanding of human history and ev

75 Discoveries during the past decade have revolutionized our understanding of idiopathic thromboti

76 16S rRNA-based genomic analyses have revolutionized our understanding of infectious diseases.

77 Recent technological advances have revolutionized our understanding of interorgan signaling

78 iron-regulatory hormone hepcidin in 2001 has revolutionized our understanding of iron disorders, and

79 Topological photonics has revolutionized our understanding of light propagation, p

80 ell receptor (TCR) transgenic (Tg) mice have revolutionized our understanding of many aspects of T-ce

81 red and modeled biogeographic patterns, have revolutionized our understanding of marine N(2) fixation

82 Industrial ecology has revolutionized our understanding of material stocks and

83 Metagenomics has revolutionized our understanding of microbial communitie

84 ort DNA barcode regions (metabarcoding) have revolutionized our understanding of microbial communitie

85 Although this insight has revolutionized our understanding of microbial life, resu

86 Scattering experiments have revolutionized our understanding of nature.

87 pe-first approach in genetic diagnostics has revolutionized our understanding of neurodevelopmental d

88 eir recognition in the geological record has revolutionized our understanding of palaeoclimate dynami

89 The discovery of resistosomes has revolutionized our understanding of plant immunity by el

90 drogen in the Antarctic ice core record have revolutionized our understanding of Pleistocene climate

91 encing for monitoring ribosome activity, has revolutionized our understanding of protein translation

92 ally disordered, while being functional, has revolutionized our understanding of proteins and raised

93 ransplantation into immunodeficient mice has revolutionized our understanding of regeneration, stem c

94 The discovery of small non-coding RNAs has revolutionized our understanding of regulatory networks

95 The past decade has revolutionized our understanding of regulatory noncoding

96 uctures published in the past two years have revolutionized our understanding of ribonucleoprotein st

97 Genome sequencing has revolutionized our understanding of somatic mutation in

98 cellular metabolism and immune function, has revolutionized our understanding of T cell biology.

99 ies of the central nervous system (CNS) have revolutionized our understanding of the biology of these

100 Omics-based technologies have revolutionized our understanding of the coding potential

101 tigraphy to diagnose cardiac amyloidosis has revolutionized our understanding of the disease, leading

102 sequencing analysis of large ALL cohorts has revolutionized our understanding of the genetic basis of

103 vailable for both rice and Arabidopsis, have revolutionized our understanding of the genetic make-up

104 Genome-wide association studies have revolutionized our understanding of the genetic underpin

105 Recent insights have revolutionized our understanding of the importance of ch

106 nt of single-cell profiling technologies has revolutionized our understanding of the intricate and he

107 encing of bacterial and archaeal genomes has revolutionized our understanding of the many roles playe

108 Tom revolutionized our understanding of the mechanisms throu

109 ional science and genetic model systems have revolutionized our understanding of the mechanisms under

110 Optical tweezers have revolutionized our understanding of the microscopic worl

111 Mouse genetic engineering has revolutionized our understanding of the molecular and ge

112 ules exemplified by Src Homology domains has revolutionized our understanding of the molecular events

113 an control cell excitability with light have revolutionized our understanding of the nervous system.

114 on communities using "omics" techniques have revolutionized our understanding of the ocean.

115 Transcriptomics has revolutionized our understanding of the pathobiologic he

116 ew archaeological and genetic techniques has revolutionized our understanding of the pattern and proc

117 Studies have revolutionized our understanding of the post-transcripti

118 cal stimulation and recording, and they have revolutionized our understanding of the spatiotemporal d

119 The human genome project has revolutionized our understanding of the underlying mecha

120 f the James Webb Space Telescope (JWST) have revolutionized our understanding of the Universe by iden

121 Genetic studies of human traits have revolutionized our understanding of the variation betwee

122 covery of the default mode network (DMN) has revolutionized our understanding of the workings of the

123 nnels and secondary active transporters, has revolutionized our understanding of their function.

124 While recent breakthroughs have revolutionized our understanding of these relationships,

125 Spatial transcriptomics (ST) has revolutionized our understanding of tissue architecture,

126 endothelial-derived growth factor (VEGF) has revolutionized our understanding of vasculogenesis and a

127 High-resolution genetic markers have revolutionized our understanding of vertebrate mating sy

128 sequencing and computational approaches are revolutionizing our understanding of Archaea.

129 These insights are revolutionizing our understanding of endocytosis and the

130 Measurements of single-cell methylation are revolutionizing our understanding of epigenetic control

131 uch as the 1000 Genomes Project, are already revolutionizing our understanding of genetic variation a

132 -biology tools, and functional genomics, are revolutionizing our understanding of inter-organellar co

133 l principles and biomechanical nanotools are revolutionizing our understanding of nano-bio interactio

134 The study of ancient DNA is revolutionizing our understanding of paleo-ecology and t

135 omal subunits and the intact 70S ribosome is revolutionizing our understanding of protein synthesis.

136 specific signaling proteins and their use is revolutionizing our understanding of signal transduction

137 lysis after the host-pathogen interaction is revolutionizing our understanding of the host response t

138 The NIH BRAIN Initiative is aimed at revolutionizing our understanding of the human brain.

139 igh-throughput omics technologies have begun revolutionizing our understanding of the molecular mecha

140 creases, promising to lay the groundwork for revolutionizing our understanding of the relationship be

141 this Review, we discuss recent work that is revolutionizing our understanding of the roles of poly(A

142 or living organisms and cell lines have been revolutionizing our understanding of the spatial and tem

143 the molecular genetics of uveal melanoma are revolutionizing our understanding of this cancer and the