ライフサイエンスコーパス: exciting

1 cers, as well as other diseases, is palpably exciting.

2 h to routine clinical practice represents an exciting advance in respiratory medicine.

3 Numerous exciting advancements are being proposed and developed e

4 modeling associated toxicities, and several exciting advances and creative solutions for overcoming

5 Exciting advances have been made over the past several y

6 is strategy to open new doors and facilitate exciting advances in angiogenesis-mediated treatment of

7 Exciting advances in the application of nanotechnology a

8 Here, we discuss recent exciting advances in this field, integrate them into our

9 rtheless, recent years have seen a number of exciting advances involving frameworks based on a wide r

10 g undertaken in pursuit of this goal and the exciting advances made by the influenza community.

11 These exciting advances, coupled with increasingly sophisticat

12 ect RNA-seq) using nanopore arrays offers an exciting alternative whereby individual polyadenylated R

13 tional landscape of a molecule is sampled by exciting an initial gas-phase molecular conformer into d

14 vements resembling macroscopic objects is an exciting and challenging endeavor.

15 biology research for their views on the most exciting and essential methodological challenges that th

16 iatric disorders have become one of the most exciting and fast-moving areas in human genetics.

17 bled into chiral architectures, represent an exciting and growing class of nanomaterials.

18 of enabling applications highlights the most exciting and promising outputs from the nanomechanics fi

19 ndogenous cardiomyocytes to self-renew is an exciting and promising therapeutic strategy to treat car

20 ectives on areas of future research for this exciting and rapidly advancing field.

21 genomics with a particular focus on the most exciting and significant research to be published within

22 n functions of mitochondria contact sites in exciting and unexpected ways.

23 Our study points to an exciting and unexplored connection between epigenetic an

24 etical expectations clarifies its important, exciting, and generative role in scientific progress.

25 The future of social robotics is undeniably exciting, and insights from human neuroscience research

26 Many exciting "anomalies" affecting long-time and low-frequen

27 stigated how this drug might work with these exciting antibodies that are very potent in blocking HIV

28 s in this fascinating organism, now enabling exciting applications - from speeding up our everyday la

29 We also summarize the broad and exciting applications of SPRM to the analysis of single

30 l properties that lend themselves to new and exciting applications.

31 ivity within its native environment poses an exciting approach to account for and illuminate the effe

32 ed electron transfer (PCET) reactions are an exciting area for development in catalysis, where a key

33 This observation is particularly exciting as it provides mechanistic insight into OA susc

34 ositions makes iridium corroles particularly exciting as PDT drug candidates.

35 maximum was observed at 448 nm for GO while exciting at 335 nm.

36 ids to these discrete pathogenic events, and exciting attempts to develop therapeutics to reduce cera

37 However, a more exciting avenue is the detection of certain biomarkers a

38 ct that we have so many materials opens many exciting avenues but also create new challenges.

39 ection between these processes also provides exciting avenues for future research.

40 cation pathway in P. falciparum and opens up exciting avenues for gene regulation research and the de

41 quo and will lay the foundation for new and exciting avenues in liver membrane transporter research.

42 As such, these results open up exciting avenues toward the assembly of previously unant

43 across time and length scales to conjure up exciting behaviors for new materials that are both robus

44 While many exciting behaviors of unary TMDCs have been demonstrated

45 at the intracellular destination site is an exciting but also challenging proposition.

46 er treatment to pediatric brain tumors is an exciting but challenging prospect.

47 Our results establish NiTe(2) as an exciting candidate for next-generation spintronics devic

48 atching could occur between predisposing and exciting causes in individuals who had "special suscepti

49 d that it was easier to prevent exposures to exciting causes than to reverse predispositions.

50 Ratings of predisposing and exciting causes were mandated in the United Kingdom from

51 Psychological traumas were key exciting causes, but so were somatic diseases, pregnancy

52 , and perverse manner of life," which became exciting causes.

53 Janus crystals represent an exciting class of 2D materials with different atomic spe

54 ing and semiconducting polymers represent an exciting class of materials for bioelectronic devices, t

55 e beauty of the underlying chemistry of this exciting class of materials.

56 rotein signaling (RGS) proteins represent an exciting class of novel drug targets.

57 ributes of two-dimensional perovskites as an exciting class of optoelectronic materials.

58 age immunometabolism in atherosclerosis, new exciting concepts and potential targets for intervention

59 An exciting crop of recent studies reveals that inducing en

60 is highlights the emerging opportunities for exciting "crossover" reactivity offered by these derivat

61 Satellite surveys represent an exciting development for high-resolution image-based cet

62 In the future, this new and exciting development should see broad application to a r

63 these chiral Eu(III) complexes, promoting an exciting development to the field of magneto-optics.

64 gy, microfluidics and nanotechnologies, many exciting developments have been made in the design of B-

65 biology, microfluidics and lithography, many exciting developments have been made in the design of ce

66 Exciting developments have been made in the integration

67 These exciting developments have fueled efforts to develop nov

68 Recent exciting developments in the area of mononuclear photoac

69 the field is still maturing, with many more exciting developments on the horizon.

70 e angular control is achieved by selectively exciting different tips on single nanostars via laser fr

71 ics, but also enables exploration of new and exciting dimensionality-driven magnetic phenomena.

72 By exciting Dirac-like cones in photonic honeycomb (pseudos

73 torage in a layered electrode and open up an exciting direction for improving aqueous batteries.

74 nt with unprecedented detail and have led to exciting discoveries regarding dynein motor function and

75 diseases has transformed over two decades of exciting discoveries regarding pathogenesis and innovati

76 ases, suggesting that there are many new and exciting discoveries yet to explore.

77 , multivalency and size tunability make them exciting drug carriers.

78 As a result, many exciting effects of solute-solvent interactions in moder

79 These exciting efforts pave the path for the implementation of

80 By optically exciting electron-hole pairs in a crystalline silicon me

81 ievements, the reader is guided through this exciting, emerging field, with special emphasis on cell-

82 over a decade ago marked the beginning of an exciting era in human tumor virology.

83 e efforts laid the foundation for the recent exciting era of cancer immunotherapy, which includes imm

84 eloping technologies have recently fueled an exciting era of discovery in the field of chromosome str

85 In this Review, we discuss emerging and exciting evidence of intricate and crucial connections b

86 A recent paper by Cong et al. provides exciting evidence that neurons contain proteins that pro

87 Perhaps the most exciting examples are multiple instances where Tn7-like

88 ed models of human tissues have made them an exciting experimental platform for studying development

89 An exciting feature of this synthetic protocol is that the

90 ojecting the reader at the forefront of this exciting field of physical chemistry, we believe that th

91 al "new keys for old locks" which open up an exciting field of research for well-known, but challengi

92 death remains a fascinating question and an exciting field of research.

93 ology trends and unsolved challenges in this exciting field of research.

94 Here, we review this emerging but exciting field, and propose a framework for its systemat

95 study and discuss future directions in this exciting field.

96 l realization of the huge potential for this exciting field.

97 techniques to guide future research in this exciting field.

98 To bridge this gap and illustrate exciting findings emerging from studies of the dark prot

99 These exciting findings have redefined BA signaling in health

100 These exciting findings help to lay a foundation that will ult

101 ed discipline, has recently sparked numerous exciting findings on microglia, the resident macrophages

102 Here, we review these new and exciting findings.

103 l dressing of electronic bands in a metal by exciting four-photon photoemission from the Cu(111) surf

104 Tissues are an exciting frontier for bioanalytical chemistry, one in wh

105 resentation and transmission while revealing exciting frontiers for future research.

106 d adaptive immune responses, with mention of exciting future directions for the field.

107 ency acousto-optic modulation is realized by exciting high-overtone bulk acoustic wave resonances (HB

108 Exciting high-resolution structural details of these cha

109 meric antigen receptor T cells are a new and exciting immunotherapeutic approach to managing cancer,

110 nces the diffusion of enzymes have generated exciting implications about nanoscale energy flow, molec

111 is targeting chimeras (PROTACs) represent an exciting inhibitory modality with many advantages, inclu

112 These are promoting exciting innovations in laboratory, patient-oriented, an

113 We will briefly outline some of the most exciting, innovative and translational scientific advanc

114 was used to synthesize optimal stimuli-most exciting inputs (MEIs).

115 Emerging studies have begun to generate exciting insights about some fundamental roles played by

116 Recent studies have provided exciting insights about the unique characteristics of sk

117 work in nonmodel systems promises to provide exciting insights in the years to come.

118 Recently, exciting insights into the biology and pathobiology of t

119 generation and storage devices, and address exciting instances that profile the multifunctionality o

120 etal-O(2) batteries has been one of the most exciting interdisciplinary fields of electrochemistry, e

121 sent an elegant and rigorous addition to the exciting investigation of the roles played by ribosome c

122 Equally exciting is the discovery and characterization of conser

123 It has been an exciting journey so far, with many surprises along the w

124 emeritus period since 2003 was particularly exciting, leading to the discovery of autonomously repli

125 erently weak spontaneous Raman scattering by exciting localized surface plasmon resonance (LSPR) on m

126 e genomes, while our new annotations present exciting loci for further experimental characterization.

127 ional salience of pleasant images increased (exciting<affiliative<erotica).

128 s data will position chiral fullerenes as an exciting material class for the growing field of chiral

129 nt limitations and future directions of this exciting material.

130 ed the scope for wider applications of these exciting materials.

131 ational modifications (PTMs) have emerged as exciting mechanisms of biological regulation, impacting

132 ion of experiment and modeling to provide an exciting mechanistic insight into the relationship betwe

133 Coalitional game theory (CGT) is an exciting method that can consider the combinatorial effe

134 s, the Drosophila spermathecal lineage is an exciting model for probing the molecular mechanisms that

135 tic (PA) and fluorescence in vivo imaging by exciting NETs at 800 nm and 650 nm, respectively.

136 In an exciting new advance, Gilman et al. resolve the structur

137 Review surveys the current progress of this exciting new area.

138 o develop synthetic counterparts, leading to exciting new behaviors in man-made structures.

139 LGR5)-positive adult stem cells represent an exciting new cell source for liver regeneration; however

140 mportantly, their unperturbed nature elicits exciting new chemistry, spanning the vista from classica

141 movement ecology can be extended to use this exciting new data type.

142 Such exciting new developments and advances have significantl

143 Exciting new discoveries have transformed the view of th

144 Brachyury is emerging as an exciting new drug target for the rare bone cancer chordo

145 s review moves through pioneering studies to exciting new findings.

146 y of practical applications and is providing exciting new insight into the biology of CRISPR-Cas syst

147 Moreover, exciting new insights have come from recent studies usin

148 Here, we focus on exciting new insights into effectors that target abiotic

149 the DG during memory tasks and have provided exciting new insights into the mechanisms of DG computat

150 le, we discuss recent work that has revealed exciting new insights into the molecular mechanisms that

151 With exciting new NASA plans for a sustainable return to the

152 Our approach opens up exciting new opportunities for direct time-lapse imaging

153 Exciting new opportunities have arisen to solve the prot

154 ular intervention for AF management presents exciting new opportunities, along with substantial chall

155 This finding offers an exciting new opportunity for small-molecule targeted cov

156 development of immunotherapies have offered exciting new options for the treatment of malignant dise

157 harge/discharge conditions, demonstrating an exciting new path for the development of electrode mater

158 on membrane-embedded Bax-oligomers opens an exciting new path towards structure determination of mem

159 CHAT presents an exciting new peptide for the delivery of nucleic acid th

160 (electro)materials science and will open up exciting new possibilities through the use of aprotic so

161 action in biological environments to produce exciting new prospects for biomedicine.

162 inciples that have emerged, and a few of the exciting new questions that can now be addressed.

163 signalling in immune cells and conclude with exciting new research demonstrating an immutable role fo

164 The EGFR-sfGFP fly is an exciting new resource for studying cellular localization

165 orted proline-based STAT3 inhibitors into an exciting new series of (R)-azetidine-2-carboxamide analo

166 As we enter an exciting new stage in maize genomics, this retrospective

167 echanism that underpins our data provides an exciting new strategy for the control of target gene exp

168 An exciting new study describes how drought-induced flower

169 he glymphatic system therefore represents an exciting new target for Alzheimer's disease.

170 tems are repurposed and provides potentially exciting new tools for genome modification and genomics.

171 Our approach represents an exciting new way to pinpoint factors driving adaptation,

172 en-shell, pai-conjugated molecules represent exciting next-generation materials due to their unique o

173 d long range delivery of electrical power by exciting non-radiative waves over metal surfaces to mult

174 provide an overview of these surprising, yet exciting, noncanonical, noncatalytic roles, and highligh

175 associated secretory phenotype, favoring the exciting notion that thus far unknown mechanisms must be

176 ted local control of the micropillars offers exciting novel applications, as demonstrated here in enc

177 ides greater seizure inhibition than broadly exciting nuclear neurons without cell-type specificity.

178 data at a rapidly increasing rate, providing exciting opportunities and formidable challenges to exis

179 This work opens exciting opportunities for a new class of ROMP monomers

180 alization, the family of gel materials opens exciting opportunities for advanced energy technologies.

181 plications, polyvinyl alcohol (PVA) presents exciting opportunities for biocompatible, wearable TENGs

182 Micro- and nanoscale metallic glasses offer exciting opportunities for both fundamental research and

183 Phase-transition materials provide exciting opportunities for controlling optical propertie

184 electric nanostructures have recently opened exciting opportunities for functional nanophotonics, owi

185 inement, our highly scalable approach offers exciting opportunities for low-field, fast-switching opt

186 and tailored vibrational tags, have created exciting opportunities for noninvasive imaging of small

187 the level of myeloid progenitors, which adds exciting opportunities for novel treatment strategies.

188 described O-glycoprotease OpeRATOR presents exciting opportunities for O-glycoproteomics.

189 SPECT imaging for dosimetry, have opened up exciting opportunities for radiotheranostics, ushering i

190 osphate (75Na(2)S.25P(2)S(5)) present highly exciting opportunities for SMBs that avoid the dangers o

191 of sub-nanometer bimetallic clusters offers exciting opportunities for tailoring their catalytic per

192 of major challenges in the field along with exciting opportunities for the future of macrophage-base

193 ) H(9) )(60) ions (33.7 kDa), which opens up exciting opportunities for the structural characterizati

194 n of these older drugs might in turn provide exciting opportunities for the understanding of disease

195 rate the ways in which photoswitches present exciting opportunities for their use in optofluidics app

196 Our work opens exciting opportunities in applications where free-space

197 hat fluoresce in the shortwave infrared open exciting opportunities in deep-penetration bioimaging, c

198 rent interest in account of the many new and exciting opportunities it offers for, for example, quant

199 vations in offline and online MRI-guided RT, exciting opportunities they offer for advancing research

200 multisensory processing, while also opening exciting opportunities to facilitate early learning thro

201 Finally, the challenges in the field and exciting opportunities to further improve the PIEZOcatal

202 d human disease, we also examine some of the exciting opportunities to leverage these advances to add

203 These advances provide exciting opportunities to profoundly transform synthetic

204 /CT in other areas such as orthopedics offer exciting opportunities.

205 taining potent anticancer activity, offering exciting opportunity for their use as there are no examp

206 Supramolecular chemistry offers an exciting opportunity to assemble materials with molecula

207 tein 90 (Hsp90) in breast cancer provides an exciting opportunity to develop rapid diagnostic tests a

208 This unique molecular defect renders PWS an exciting opportunity to explore epigenetic therapy.

209 at perception offers cognitive scientists an exciting opportunity to explore how cognition and action

210 very large sample sizes, biobanks provide an exciting opportunity to identify genetic components of c

211 or a large number of participants provide an exciting opportunity to perform genome-wide association

212 method of cell therapy delivery provides an exciting opportunity to recondition organs prior to tran

213 These advances provide an exciting opportunity to understand the organization of n

214 h genetically modified T cells has generated exciting outcomes in hematologic malignancies, but its a

215 search, which led to the observation of many exciting phenomena such as quantized vortices, second so

216 This study reveals an exciting phenomenon that light is an ideal external stim

217 ural phase space, which has led to novel and exciting physical properties.

218 lectrolyte-filled subnanometre pores exhibit exciting physics and play an increasingly important role

219 tice 3d transition metals are emerging as an exciting platform to explore the frustrated lattice geom

220 Quantum spin liquids are an exciting playground for exotic physical phenomena and em

221 ging quantum technologies while providing an exciting playground for investigating fundamental physic

222 While magnetic nanoparticles offer exciting possibilities for stem cell imaging or tissue b

223 These results generate exciting possibilities for treatment of RP patients with

224 r electronic and photonic materials opens up exciting possibilities for unprecedented properties and

225 The union of these two processes would offer exciting possibilities in organic synthesis but remains

226 decision-making to provide new insights and exciting possibilities in studying this classical system

227 These results may offer exciting possibilities in various fields, including elec

228 An exciting possibility is that the known, DM-mediated coup

229 This finding presents an exciting possibility of designing other 14-3-3 compounds

230 This finding opens the exciting possibility that Fur may join numerous well-stu

231 healthy lymphatic homeostasis and raises the exciting possibility that restoring HIF-2alpha pathways

232 ven predict human brain activity-raising the exciting possibility that such systems represent the wor

233 This suggests the exciting possibility that undesirable opioid side effect

234 these studies, the CANTOS trial, raises the exciting possibility that, in the foreseeable future, we

235 There is an exciting possibility to decentralize ammonia synthesis f

236 n closely coupled multi-mechanophores and an exciting potential for effective energy transduction in

237 raphene can be easily manipulated, rendering exciting potential for graphene nanosystems.

238 is still in its infancy, these efforts offer exciting potential for the development of biologically b

239 have attracted increasing interest for their exciting potential in diverse optoelectronic devices.

240 The focus then turns to their exciting potential in energy storage and conversion.

241 Our findings open the exciting potential of 2D perovskites for next-generation

242 Our goal is to convey the exciting potential of analytical chemistry to contribute

243 met need and crucial challenge hampering the exciting potential of RNAi therapeutics in ophthalmology

244 In this review, the development and exciting preliminary clinical data relating to various f

245 osophila, and C. elegans, have revealed many exciting principles of thermosensation.

246 e highlight some of the emerging science and exciting programming that was featured at the 2019 BCVS

247 Recent studies have made exciting progress in identifying the characteristics of

248 ons and localized plasmons and summarize the exciting progress it has opened by the ultrafast imaging

249 Recently, the exciting progress of materials design has promoted the d

250 remained a topic of many studies describing exciting progress.

251 une checkpoint receptor blockade has brought exciting promises for the treatment of head and neck squ

252 These data provide an exciting proof-of-concept that aminoglycosides or other

253 the periodic table have already demonstrated exciting properties such as near-room-temperature topolo

254 These results therefore hold exciting prospects for novel, compact and high-speed neu

255 uman trophoblast stem cells, open up new and exciting prospects in basic and clinical settings that w

256 ay (MNA)-based electrochemical sensors offer exciting prospects in this respect, as they can sample d

257 Finally, the challenges with, and exciting prospects of, CRISPR based biosensing developme

258 ) s(-1)), darkness, and light preferentially exciting PSI (730 nm) reversed these changes.

259 )) behaved similarly to light preferentially exciting PSII (660 nm), causing a reduction in grana dia

260 e systems under study, and take advantage of exciting recent advances in modeling the relations betwe

261 Exciting recent data have provided novel insights into h

262 Here, we review the most exciting recent developments and discuss, in our view, t

263 Exciting recent discoveries indicate the close involveme

264 molecular photon upconversion (TTA-UC) is an exciting research area for a broad range of photonic app

265 mation has been lacking, and it will open an exciting research direction on how drug distribution aff

266 ial intelligence can be used to advance this exciting research field in all its aspects.

267 This work offers feasible and exciting research opportunities with both theoretical an

268 This concept not only opens exciting research possibilities but also encourages clin

269 New and exciting results are discovered through such functional

270 context of psychiatric disorders is yielding exciting results.

271 Early experiments have yielded exciting results; however, there are limited options to

272 that a similar mechanism is responsible for exciting Saturn's hexagonal flow pattern.

273 Complex but exciting scenarios emerge that shed new light on how bas

274 Some of these probes represent exciting starting points with the potential to illuminat

275 New and exciting strategies for vector engineering, delivery, an

276 eg, cardiac hypertrophy or failure) forms an exciting target for further research.

277 Consequently, mPTPB represents an exciting target for tuberculosis treatment.

278 This Perspective highlights exciting targets within synthetic lethality, (PARP, ATR,

279 field, and discuss future prospects for this exciting technology, which has the potential to change t

280 onversion photoluminescence (PL) by directly exciting the gap states with continuous-wave (CW) infrar

281 continuously regulate interface adhesion by exciting the mechanical micro-vibration in the adhesive

282 om the output of the lantern by individually exciting the single-mode MCF cores, and that these patte

283 bles into a non-covalent oligomeric complex, exciting their GFP moiety with polarized fluorescent lig

284 Trogocytosis is part of an emerging, exciting theme of cell-cell interactions both within and

285 ry of DNA and RNA base editors are revealing exciting therapeutic opportunities for these technologie

286 ting, or deleting specific memories-suggests exciting therapeutic possibilities but also raises consi

287 In this Perspective, we argue that, at this exciting time for genomics and artificial intelligence,

288 We believe it is an extremely exciting time to be a neuroscientist, as we have an oppo

289 Structural biology is entering an exciting time where many new high-resolution structures

290 As microbiologists we live in exciting times.

291 ain homeostatic rules even as they flip from exciting to inhibiting pyramidal cells.

292 microdialysis (MD) thus providing a new and exciting tool in neuroscience and drug discovery.

293 ts disease with up to 90% accuracy and is an exciting tool in our research armory that could allow se

294 These tools provide an exciting translational avenue to merge omics-based drug

295 Exciting under tight focusing at the low frequency side

296 Collectively, these new findings offer exciting, unexplored opportunities to target mitochondri

297 this challenge, discuss in depth the recent exciting work and highlight the outstanding questions an

298 Ultimately, the exciting work in this rapidly emerging area may lead to

299 Overall, our goal is to highlight the exciting work that can be done within our field to suppo

300 is critical to engaging the next generation, exciting young minds to pursue careers in science and me