ライフサイエンスコーパス: exciting

1 ecent experimental data while simultaneously exciting a polariton mode exhibiting both reduced group

2 erate extreme localized deformation rates by exciting a target particle via pulsed-laser ablation.

3 NG, also known as MITA, MPYS, or ERIS) is an exciting adjuvant target due to its role in cyclic dinuc

4 Exciting advancements have been made in the field of fle

5 ltiple genomic loci has prompted a flurry of exciting advances in multicolor CRISPR imaging, although

6 The last years have also seen exciting advances in the chemical and physical character

7 These exciting advances reveal the complexity of the pathogeni

8 archaeal life and illustrate the unique and exciting advantages that single-cell genomics offers ove

9 d, these functional polyester NPs provide an exciting alternative approach for selective drug deliver

10 cal issues in order to make the most of this exciting and evolving technology.

11 necessary prelude to any rational design of exciting and innovative bionanotechnology, in this revie

12 ory of the field, discusses some of the most exciting and inspiring recent achievements, with special

13 sensory conflict, a means for independently exciting and modeling separate sensory pathways within a

14 Protein tyrosine phosphatases (PTP) are exciting and novel targets for cancer drug discovery tha

15 nvestigations in other fields have uncovered exciting and often unpredicted roles for PI3K catalytic

16 expected within the coming years, this is an exciting and rapidly developing field.

17 iological ionic cargo is both scientifically exciting and technologically relevant to sensing or drug

18 oy unfamiliar or novel technology, it's both exciting and very worthwhile to form collaborations.

19 New strategies are evaluated and novel, exciting applications are shown.

20 Exciting applications can emerge at the intersection of

21 aration of a set of appropriate analogs with exciting applications in the area of host-guest organic

22 This can generate exciting applications in the fields of water treatment,

23 One of the exciting applications of molecular technology is the dir

24 derstanding also enables a myriad of new and exciting applications, which motivate this review.

25 ner azadipyrromethene that opens the door to exciting applications.

26 One exciting approach for this is to use a bacterial endosym

27 to new coronary endothelium raises a new and exciting approach to promoting endogenous revascularizat

28 Particularly exciting are "smart" gels that undergo reversible physic

29 The extracellular space is an exciting area for research that will be propelled by eme

30 enome editing via engineered nucleases is an exciting area of biomedical research and holds potential

31 ions to address unresolved questions in this exciting area of research.

32 ed, and expected future developments in this exciting area.

33 Thematic Minireview Series, JBC presents six exciting articles discussing a range of approaches for i

34 atic minireview series, the JBC presents six exciting articles on low complexity or intrinsically dis

35 This shift is exciting, as we and many others hope it not only will su

36 d transcriptional activity, thus opening new exciting avenues for research.

37 article-based drug delivery, opening several exciting avenues for selective and prolonged cardiac the

38 cells for cell replacement therapies promise exciting avenues for treating degenerative age-related d

39 y lifestyle, and further probing will answer exciting basic microbiological and clinically relevant q

40 This is exciting because it has the potential to be a contributi

41 These data are exciting because we demonstrate that an astrocyte-derive

42 , recording emission between 290 and 450 nm, exciting between 240 and 290 nm, for the analysis of epi

43 molecules on the nanoscale, leading to many exciting biological discoveries.

44 By exciting both a fluorogenic reaction at the nanoscale el

45 These findings are exciting but enigmatic since nitrate per se has little b

46 ical samples and animal models have produced exciting but sometimes conflicting findings.

47 t certain results with another that produced exciting but uncertain results, opinion favored the form

48 avior represents one of the biggest and most exciting challenges of systems neuroscience.

49 Modern biochemistry now faces new and exciting challenges.

50 ls are currently being realized that possess exciting chemical, photophysical and thermal properties

51 organic frameworks (MOFs) have emerged as an exciting class of porous materials that can be structura

52 Chemical clocks are often used as exciting classroom experiments, where an induction time

53 human pluripotent stem cells (hPSCs) offers exciting clinical opportunities for transfusion medicine

54 s also provided, along with some of the most exciting clinical trials that are currently being planne

55 ne their biology to enable symbiosis, and an exciting coalescence of genome mining, lipid profiling,

56 Here, we discuss the most important and exciting computational methods and tools currently avail

57 as, the chemistry of polyhydrides offers new exciting conceptual challenges and at the same time the

58 , no such empirical report will license such exciting conclusions.

59 In summary, the treatment of CRS is at an exciting crossroad.

60 In this Perspective, we highlight the most exciting current and future applications of chemical sit

61 ral (E)- and (Z)-enolates, which provides an exciting development for this type of transformation.

62 Smartphone-based analysis is another exciting development with potential for wide disseminati

63 generation in crystalline solids1-6 marks an exciting development, with potential applications in hig

64 Here, we review these exciting developments and highlight key remaining challe

65 Here, we review some of the most exciting developments in the field of algal biotic inter

66 Despite the exciting developments of the past two decades, the deman

67 mparison with other approaches and highlight exciting directions and opportunities in this area.

68 There are some new and exciting discoveries in the genetics of platelet reactiv

69 These exciting discoveries stem from the finding of the CRISPR

70 Finally, recent exciting discoveries within the field of in vivo manipul

71 Despite the exciting discoveries, almost all knowledge about CRISPRs

72 o whom neuroscientists typically communicate exciting discoveries-that is, those who can provide more

73 al organometallic systems with potential for exciting electronic and magnetic properties.

74 re important nanostructures because of their exciting electronic, optical, thermal, chemical and mech

75 In this exciting era of "next-gen cytogenetics," integrating gen

76 An exciting era of microbe discovery, now under way, holds

77 We are entering an exciting era where the ancient wisdom distilled into the

78 arkinson's disease are moving into a new and exciting era, with several groups pursuing clinical tria

79 led coffee stain effect can be suppressed by exciting evaporating complex fluids throughout the dryin

80 es based on LaNiO3 have inspired a wealth of exciting experimental and theoretical results.

81 mmentaries meet these claims with a range of exciting extensions and applications, as well as critiqu

82 nd directions for future development in this exciting field are provided.

83 nadequately validated antibodies can lead an exciting field astray.

84 organic molecules is a rapidly evolving and exciting field in synthesis, which still poses huge chal

85 ar chemistry on solid surfaces represents an exciting field of research that continues to develop in

86 This Review covers these exciting fields of study along with providing computatio

87 These exciting findings not only fill the critical gaps in our

88 the tumor microenvironment, has provided an exciting framework to reawaken the immune system to atta

89 ale fully controllable quantum systems is an exciting frontier in modern physical science.

90 stand plant-microbiome interactions showcase exciting future directions for translational plant biolo

91 ellent results obtained allow envisioning an exciting future for the development of novel application

92 Last, some challenges and exciting future opportunities are discussed.

93 e using helminth-derived products is also an exciting future prospect.

94 tion attributed to 5-HT2 receptor activation exciting GABAergic interneurons.

95 izing monoclonal antibodies (nmAbs) has made exciting gains: (i) identification of the HIV envelope V

96 nd made whole-cell recordings in vitro while exciting glycinergic fibers with light.

97 This is achieved in two key steps: first, by exciting graphene plasmons within an aperiodic lattice l

98 ced that TiCl3 and VCl3 sheets could display exciting half-metallicity without involving any external

99 The work has exciting implications for mental representation and show

100 m APOLT safely has also opened up a range of exciting indications in the setting of NCMLD.

101 tural/anthropogenic-influenced system-offers exciting insight into studies of humic/nonhumic interact

102 lectrons precipitating in the polar regions, exciting intense aurorae, observed simultaneously by the

103 Particularly exciting is the discovery that this bacterium forms larg

104 as reversed by inhibiting and exacerbated by exciting iSPNs, indicating that they not only participat

105 training prepares scientists for an array of exciting job opportunities, one of which is as a faculty

106 olling nanoscale chirality promises to be an exciting journey, revealing insight into biological mech

107 At this exciting juncture, it is timely to review these new meth

108 srupting the hDAT-Tat binding may provide an exciting knowledge basis for development of novel concep

109 These data converge with exciting literature on the brain's hedonic network and h

110 ealed the structures of many challenging yet exciting macromolecular assemblies at near-atomic resolu

111 ganic frameworks (MOFs) are some of the most exciting materials in current science.

112 By exciting metallic K3C60 with mid-infrared optical pulses

113 This review highlights how these exciting methods and findings have opened new doors to i

114 k power is a double-edged sword with new and exciting methods being developed but at the same time we

115 periments that allow low power sweeps of the exciting microwave frequencies to constructively integra

116 Collectively, these results establish an exciting model of tendon regeneration and uncover a nove

117 cale engineering of nucleic acids has led to exciting molecular technologies for high-end biological

118 ion, reassembly (ADOR) method represents one exciting new approach to obtain solids with targeted str

119 mechanosensitive, these findings open up an exciting new avenue of research into the fundamental mec

120 Taken together, the data open exciting new avenues for structure-based drug design.

121 esses, closing a feedback loop that promises exciting new avenues of scientific exploration at the fr

122 eration of TSCs from fibroblasts, opening up exciting new avenues that may allow the isolation of thi

123 ersatile E. coli system to be employed as an exciting new carbon capture technology or as a cell fact

124 pathogens has a high probability of yielding exciting new cellular mechanisms and insights into novel

125 articularly successful in this context is an exciting new development that may provide a general solu

126 The cultural intelligence hypothesis is an exciting new development.

127 The exciting new developments in this rapidly expanding fiel

128 ing to create active structures has added an exciting new dimension to 3D printing technology.

129 The latter are exciting new directions for the field that will likely i

130 tion studies of ubiquitin ligases as well as exciting new discoveries of novel classes of E3s and div

131 cause the future promises to be replete with exciting new discoveries that can be translated to impro

132 An exciting new era has dawned for the prevention and manag

133 Exciting new evidence indicates that a plant's genotype

134 pplication of advanced approaches highlights exciting new facets.

135 Exciting new findings from Gascon et al. (2016) single o

136 his Meeting Review, we highlight some of the exciting new findings that were presented, and discuss e

137 cal electrically excitable cells could yield exciting new findings.

138 Exciting new insights into the fundamental underpinnings

139 h also serves as a roadmap into the vast and exciting new landscape of questions about the computatio

140 and oligonucleotide approaches are yielding exciting new medicines for rare diseases of unmet need.

141 Our results provide exciting new momentum for developing mGluR1-based pharma

142 Our results reveal an exciting new noncoding RNA signaling network that regula

143 oscopy to approximately 10 nm, thus creating exciting new opportunities and challenges for correlativ

144 , and force-mapping techniques are providing exciting new opportunities for future research into bran

145 flavin dynamics in this enzyme class offers exciting new opportunities for inhibitor design.

146 ncing tissue regeneration could represent an exciting new phase in medicine.

147 associated large datasets should lead to an exciting new phase of discovery across many areas of bio

148 Some of the exciting new possibilities offered by 2D crystals are di

149 field will continue to evolve and grow, with exciting new possibilities stemming from advancements in

150 The 2D monolayer-capping approach opens up exciting new possibilities to enhance the thermal stabil

151 tional perspective, organoid systems provide exciting new prospects for drug discovery, offering the

152 ventional superconductivity in SLG offers an exciting new route for the development of p-wave superco

153 ology and cellular reprogramming has enabled exciting new strategies for cardiac regeneration.

154 ranscatheter mitral therapy as a potentially exciting new strategy to improve the lives of patients w

155 Together, these advances provide a host of exciting new targets to identify and treat FGIDs and new

156 Exciting new technologies are often self-limiting in the

157 ug carriers at the 'nano'-scale is providing exciting new therapeutic strategies in clinical manageme

158 Gene therapy is providing exciting new treatment options for patients with PIDs, a

159 Exciting new work on autophagy-modulating proteins that

160 This material provides an exciting, new platform to study the properties of Weyl f

161 hromatin remodeling mechanisms and highlight exciting open questions that would continue to benefit f

162 d other advances over the past 5 years offer exciting opportunities and daunting challenges for the d

163 metal chalcogenide nanocrystals (NCs) offer exciting opportunities as novel materials to be explored

164 Our discovery creates exciting opportunities for comparative research on multi

165 ding two bits of data per clock period opens exciting opportunities for data-carrying capacity enhanc

166 on in human biofluids, which may open up new exciting opportunities for future use in various biomedi

167 ides both new insights into inflammation and exciting opportunities for managing acute and chronic in

168 Mechanochemistry offers exciting opportunities for molecular-level engineering o

169 atomically precise nanoparticles, as well as exciting opportunities for nanochemists to understand ve

170 genomic properties of human tumors, provides exciting opportunities for non-invasive diagnostics and

171 n the nanosecond time scale, which points to exciting opportunities for ultrafast and novel skyrmioni

172 Metasurfaces offer exciting opportunities that enable precise control of li

173 These rich datasets offer unprecedented and exciting opportunities to address long standing question

174 from a machine learning perspective provides exciting opportunities to improve diagnostic precision a

175 sights into the elusive M factor and suggest exciting opportunities to reduce mosquito populations an

176 d of big data analytics promise to create an exciting opportunity to operationalize precision medicin

177 Ultimately, the K-channel provides an exciting opportunity to perform many useful droplet oper

178 The EHDA printing technique provides an exciting opportunity to tailor dosage forms in a single-

179 omega-TAms have emerged as an exciting option for their synthesis, offering a potentia

180 An exciting paradigm emerging in cancer biology is that onc

181 oposed competitive ligand model, and suggest exciting parallels between plant and animal channels.

182 and present unique opportunities to explore exciting phenomena such as the topological Hall effect.

183 molecular design possibilities have enabled exciting photophysical attributes including narrower emi

184 but also immensely inviting and above all an exciting place to be.".

185 The information reported herein provides exciting possibilities for industrial/biotechnological a

186 ortant family of acyltransferases, providing exciting possibilities for inhibitor design.

187 new single-cell profiling technologies offer exciting possibilities for mapping the dynamic molecular

188 ght into backbone dynamics in IDPs and opens exciting possibilities for the design of disordered ense

189 These data reveal exciting possibilities for the development of novel trea

190 erlying molecular mechanisms, and highlights exciting possibilities to exploit gene and genome transf

191 sts with iminium catalysis is opening up new exciting possibilities to increase enantioselectivity in

192 Our findings open up the exciting possibility of digital data processing utilizin

193 This finding offers the exciting possibility of estimating conditions of formati

194 s of single specificity and point toward the exciting possibility of prognostic and protective strate

195 Our results also raise the exciting possibility that cell adhesivity might be a gen

196 This raises the exciting possibility that fungi use differential regulat

197 These findings open the exciting possibility that PMPs actively regulate the imm

198 h to demonstrate PROPhet's ability to create exciting post-processing analysis tools and to open the

199 Carbon nanotubes (CNTs) have numerous exciting potential applications and some that have reach

200 This interaction has exciting potential as a therapeutic avenue for treatment

201 Despite their exciting potential for affecting high-throughput membran

202 atterns, and metabolite concentrations, with exciting potential for neurorehabilitation.

203 atterns, and metabolite concentrations, with exciting potential for neurorehabilitation.

204 a in the regulation of tolerance to food has exciting potential for new interventions to treat dietar

205 in the pathogenesis of infection and provide exciting potential for the development of novel diagnost

206 Ultimately, this type of memory has exciting potential in biomedical sciences as data storag

207 Thus, Wolbachia represents an exciting potential new form of biocontrol for arboviral

208 yield breakthrough results, and envision the exciting potential of high-performance nanomaterials tha

209 We showed an exciting potential of PA as a meaningful endpoint for cl

210 Our research demonstrates the exciting potential of this novel photocatalyst for the d

211 CTCs are an exciting potential strategy for understanding the biolog

212 genomic methods are being developed with the exciting potential to transform our knowledge of gene re

213 With a dozen antifibrotic agents possessing exciting preclinical potential in the armory, it seems c

214 Recently exciting progress has been made on this problem, but the

215 Although exciting progress has been made to solve parts of the ab

216 Exciting progress in the field of cancer immunotherapy h

217 We summarize here the exciting progress in understanding this pathway, includi

218 Recent CASP experiments have witnessed exciting progress on folding large-size non-humongous pr

219 Despite the exciting progress, how the MCM translocates on DNA remai

220 and Juergen Knoblich begin by discussing the exciting promise of organoid technology and give concret

221 rged as unique platforms for exploring their exciting properties of superconductivity and the charge

222 s of the compounds and describing their most exciting properties.

223 These advances have revived the exciting prospect of integrating exotic electromagnetic

224 ears poised for breakthroughs, including the exciting prospect of resolving the conformations and ene

225 cule techniques are being developed with the exciting prospect of revolutionizing the healthcare indu

226 optimization for VEEV antivirals, and is an exciting prospect to identify inhibitors for the many ot

227 ficial metabolic effects, make HNG and SHLP2 exciting prospects as T2DM therapeutics.

228 These advances highlight the exciting prospects for future tools based on the continu

229 even from subpatent infections, will open up exciting prospects for research on malaria parasites.

230 autocatalysts and material precursors offer exciting prospects for self-synthesizing materials.

231 and withdrawal of the fluorogen, opening new exciting prospects for the development of multiplexing i

232 al cells via stem cell-based therapies is an exciting, rapidly advancing area of translational resear

233 er arrangement of the two alkynes unique and exciting reactivity patterns like 1,3-carbonyl transposi

234 ent state-of-play with a particular focus on exciting recent advances in the identification of potent

235 Perhaps the most exciting recent development in mammalian monoallelic exp

236 However, exciting recent developments have demonstrated that even

237 Exciting recent discoveries link heart failure to induct

238 Exciting recent studies highlight the discovery of at le

239 iseases (ID) has always been challenging and exciting, recognition of the value that ID physicians pr

240 ology is needed to capture the full range of exciting research directions of the field, as current st

241 veling optical speckle might burgeon into an exciting research field investigating disordered quantum

242 ies, and future directions in this emerging, exciting research field.

243 We highlight the exciting research that has contributed to our understand

244 ss in a light-induced fashion in a number of exciting responses, such as the (re-)setting of circadia

245 As an exciting result, it is the first example of a self-organ

246 pments in sulfur and silicon electrodes show exciting results in half cell formats, neither electrode

247 These exciting results open new horizons for point-of-care Alz

248 In this Perspective we highlight recent exciting results that demonstrate their enormous potenti

249 This Perspective describes exciting results that have emerged from the investment a

250 or-1,2,3,4-didehydroretinal (MMAR), produced exciting results.

251 Our work opens an exciting route for the exploration of topological physic

252 Achieving a malaria-free world presents exciting scientific challenges as well as overwhelming h

253 history of organocerium(iv) compounds is an exciting story of ups and downs.

254 of photothermal ablation, which presents an exciting strategy for complete removal of CRLM by integr

255 ssociated with a sigmoid gradient ramp is an exciting strategy to study drugs as a whole, i.e., the a

256 irulence rather than survival seems to be an exciting strategy, since the modulation of virulence fac

257 rpreted in near-atomic detail and provide an exciting structural framework for past and future functi

258 Many exciting studies have begun to elucidate the genetics of

259 New and exciting studies of the Hippo pathway are anticipated th

260 is a central chemical tenet underpinning an exciting suite of small-molecule toolsets that have allo

261 what adults would consider funny, delicious, exciting, sympathetic, and adorable stimuli (Experiment

262 cles, based on non-carbon backbones, present exciting synthetic challenges in the systematic assembly

263 however, making heavy enzyme studies a very exciting technique for exploring the dynamics link to ca

264 The exciting technological potential, along with the rich ph

265 highlight how further improvements to these exciting technologies, based on the development of quant

266 th the potential and the limitations of this exciting technology as well as the necessity to identify

267 One finding has been particularly exciting: that the molecular circadian clock resides in

268 s by about 0.3 eV for exciting the donor and exciting the acceptor.

269 ton energy loss, differs by about 0.3 eV for exciting the donor and exciting the acceptor.

270 s theory may explain the dichotomous role of exciting the donor or the acceptor on charge generation

271 ly alter the surrounding electric potential, exciting the electroluminescence of phosphor along the m

272 Here, we show that exciting the fast opsin Chronos with amplified laser 2P-

273 By exciting the host semiconductor with light that resonate

274 hotoacoustic tomography breaks this limit by exciting the targets with diffused photons and detecting

275 There is exciting theoretical potential for converting biopharmac

276 Thus, Malat1 represents an exciting therapeutic target, and Malat1 ASOs represent a

277 By exciting these modes using a grating-coupling technique,

278 This is an exciting time for immunology because the future promises

279 At this unique and exciting time for psychiatry, novel therapies for indivi

280 This is an exciting time for the field of bio-nano science: enormou

281 This is an exciting time in mitochondrial research.

282 I propose that at this exciting time of revolution in genetics and device techn

283 We are currently in an exciting time when our understanding of genetic underpin

284 These are exciting times and the pace of discovery is remarkable.

285 ranscription factors (TFs) is a powerful and exciting tool for tissue engineering, disease modeling,

286 One emerging and exciting topic in robotics research is the design of mic

287 sing new ideas for future research into this exciting topic.

288 make fast changes in the Hamiltonian without exciting transitions.

289 hanisms and target biology, which facilitate exciting translation of this research to many areas of d

290 treat cancer and represents one of the most exciting treatments for the disease.

291 ese areas and identify what we believe is an exciting trend that promises to revolutionize biotechnol

292 1999;149(10):887-897) outlined an exciting vision for epidemiology as the field that that

293 Overall, our results provide a novel, exciting way to investigate those biophysical properties

294 g are being applied to astrocytes in new and exciting ways but without fully considering their unique

295 This Review focuses on some of the latest exciting ways in which sulfur and sulfur-based reactions

296 oach demonstrated in this Article opens new, exciting ways to examine proteins on the "human" time sc

297 lization, which lifts the scaling ceiling in exciting ways.

298 w developments in phenotyping techniques are exciting, we are limited by the tools to analyze fully t

299 Live-cell imaging has opened an exciting window into the role cellular heterogeneity pla

300 Long thought to be a low-order brain region, exciting work in the past years is overturning this noti