ライフサイエンスコーパス: ratiometric

1 ic analysis of microtubule pull-downs, using ratiometric (14)N/(15)N labeling, revealed 605 proteins

2 We describe such nontoxic, targeted, and ratiometric 30 nm oxygen nanosensors made of polyacrylam

3 Therefore, we have developed a ratiometric 3D microscopy scheme that not only reduces t

4 delta-FlincG permitted ratiometric (480/410 nm) measurements, with a cGMP-speci

5 tion in vivo can be imaged in real time with ratiometric activatable cell penetrating peptides (RACPP

6 We report a family of novel ratiometric activatable cell-penetrating peptides, which

7 A ratiometric algorithm revealed that conditions that caus

8 Ratiometric analyses of FCM results indicated that both

9 for the first time adapted the techniques of ratiometric analyses to the field of E-sensors.

10 In many cases ratiometric analysis can help to circumvent these proble

11 Dual ratiometric analysis of imaging data allowed accurate, s

12 dentify the regimes in which the widely used ratiometric analysis of signals is substantially subopti

13 thrombin as a model protease, we show that a ratiometric analysis of the emission from the QD, Cy3, a

14 sed nanosensor which allows the non-invasive ratiometric analysis of the GB in living cells.

15 These capabilities were derived from a ratiometric analysis of the two FRET pathways in the rel

16 Based on ratiometric analysis of these diffraction images acquire

17 We describe a generic design for ratiometric analysis suitable for determination of copy

18 UV lamp was used as an excitation source and ratiometric analysis using an iPad camera was possible b

19 ended to overcome this technical limitation: ratiometric analysis using monochromatic, evanescent dar

20 Ratiometric and allometric indexing for age, sex, and bo

21 The studies showed that 4-MB exhibits a dual ratiometric and calorimetric response toward peroxynitri

22 nt logarithmically linear sensing, addition, ratiometric and power-law computations.

23 RoGFP2 expressing RBCs demonstrate ratiometric and reversible shifts in fluorescence on exp

24 fluorescence lifetime spectroscopy with the ratiometric approach and investigate potential non-FRET

25 Here we demonstrate this ratiometric approach by simultaneously imaging a HER2/ne

26 We develop and implement a ratiometric approach for detecting gene associations (ab

27 acid hybridization assays that make use of a ratiometric approach for detection and analysis.

28 potential, monitored by the dual wavelength ratiometric approach utilizing the probe di-8-ANEPPS.

29 , which were not detectable using a standard ratiometric approach.

30 here, incorporated a machine-learning-based ratiometric approach.

31 in bioluminescent imaging, combined with the ratiometric aspect of LOTUS-V design.

32 mutant to increase the ECV pH in the in vivo ratiometric assay suggests that ammonia produced by the

33 Combining these two allows for a ratiometric assay that identifies a few large lanthanide

34 ave developed a new RNA imaging probe called ratiometric bimolecular beacon (RBMB), which combines fu

35 we developed an oligonucleotide-based probe, ratiometric bimolecular beacon (RBMB), which generates a

36 uitin assays, they were recovered in vivo by ratiometric bimolecular fluorescence complementation, an

37 The combination of sensitive ratiometric bioluminescent detection and the intrinsic m

38 ured by X-rhod-1 or mitochondrially-targeted ratiometric biosensor 4mtD3cpv, or ADP-ATP exchange rate

39 cence resonance energy transfer (FRET)-based ratiometric biosensor array.

40 The dye was used to generate a ratiometric biosensor of Cdc42 (CRIB199) without the nee

41 In this study, we present a ratiometric biosensor that allows monitoring IL-1beta pr

42 xibility in the design of a wide spectrum of ratiometric biosensors and expanded in vivo applications

43 truct both intermolecular and intramolecular ratiometric biosensors for qualitative imaging of caspas

44 a genetically encoded Ca(++) sensor that is ratiometric by virtue of bioluminescence resonance energ

45 selectively express the genetically encoded ratiometric Ca(2)(+) biosensor TN-XL.

46 ponse of a low-affinity, genetically encoded ratiometric Ca(2)(+) indicator (D4cpv) calibrated agains

47 Ratiometric Ca(2+) imaging and time-lapse confocal micro

48 a cell-based fluorometric Ca(2+) assay and a ratiometric Ca(2+) imaging technique.

49 his was observed in real-time by single-cell ratiometric Ca(2+) imaging.

50 sence of [Ca2+]i elevations was confirmed by ratiometric [Ca2+]i imaging experiments.

51 We report here that ratiometric calcium imaging reveals that Der p1 activate

52 transcription polymerase chain reaction and ratiometric calcium imaging with Fura-2.

53 Using ratiometric calcium imaging, we found that increased D1R

54 r calcium mobilization was measured by using ratiometric calcium imaging.

55 single-emission biosensors into a series of ratiometric calcium sensors (MatryoshCaMP6s) and ammoniu

56 nt concentration, researchers have developed ratiometric CEST imaging, which investigates contrast ag

57 However, conventional ratiometric CEST MRI imposes stringent requirements on t

58 is highly selective for Zn(2+) displaying a ratiometric change in emission.

59 The derivative L1 detects Zn(2+) by bringing ratiometric change in the fluorescence signals at 390 an

60 GTP binding to these sensors results in a ratiometric change in their fluorescence, thereby provid

61 On cells, the sensor displays a ratiometric change of 1.56.

62 The ratiometric change of the sensor on living cells is 1.8.

63 ctured fluorophores as they show significant ratiometric changes in emission upon metal complexation;

64 s(II) and Ag(I) complexes exhibit remarkable ratiometric changes of intensity for phosphorescence ver

65 plex is reported for imaging pH by MRI using ratiometric chemical exchange saturation transfer (CEST)

66 Ratiometric chemical probes and genetically encoded sens

67 While this work offers a new design of ratiometric chemosensors, in which sequential analyte-in

68 Here, using ratiometric Cl(-) imaging, we have investigated intracel

69 ct quantity versus the donor, we utilize the ratiometric comparison of the two to obtain the stoichio

70 otein phosphorylation with high precision by ratiometric comparisons using heavy and light thiocholin

71 ostic product ions during SRM transitions by ratiometric comparisons with stable isotope internal sta

72 individual protomers in complexes where the ratiometric composition of LHR(B-) to LHR(S-) modulated

73 report the synthesis of a new water-soluble ratiometric Cu(II) dye with a moderate affinity (10(9) M

74 was successfully constructed via fluorescent ratiometric detection and fluorescence lifetime imaging;

75 ng capability in a single vector with robust ratiometric detection by exploiting a network of FRET pa

76 igned for specific recognition and sensitive ratiometric detection of diniconazole (DNZ).

77 o near-infrared (NIR) Pdot nanoprobe for the ratiometric detection of hypochlorous acid (HOCl).

78 he application of our sensing system for the ratiometric detection of Mg(2+) in target organelles in

79 rescent probes that have been applied to the ratiometric detection of various analytes, including cat

80 in the presence of L-cysteine is slow, but a ratiometric detection process in the therapeutic window

81 Using this AgNC, we demonstrate ratiometric detection with a detection limit of 4 nM Hg(

82 Using this novel nanosystem with ratiometric detection, it was possible to recognize cGMP

83 e fragmentation strategy that allows for the ratiometric determination of relative H2S and cysteine (

84 ic media via simple color changes or through ratiometric differences in fluorescence intensity.

85 By using a ratiometric, dual-emission dye, SNARF-1, we observed the

86 ility, and preliminary data of a "Signal-On" ratiometric E-sensor are also provided.

87 e, we have specifically designed a family of ratiometric endosomal pH probes for use in live-cell STE

88 ncy, and discriminate collagen and myosin by ratiometric epi-generated SHG images at 920 nm and 860 n

89 By performing a ratiometric evaluation of extracellular zinc levels in t

90 Thus a ratiometric evaluation of the red and green forms of mEo

91 odulate the intensity of such phenomena in a ratiometric fashion, in direct proportion with analyte c

92 ndicating that the UPR senses ER stress in a ratiometric fashion.

93 Here we report an unprecedented ratiometric fluorescence amplification phenomenon in the

94 mine fluorescence intensities functions as a ratiometric fluorescence chemodosimeter for mercury.

95 IP-1), a reactivity-based probe that enables ratiometric fluorescence imaging of labile iron pools in

96 This probe exhibited a significant ratiometric fluorescence intensity enhancement as solven

97 es colorimetric read-out and self-referenced ratiometric fluorescence intensity measurements.

98 H of individual lysosomes using quantitative ratiometric fluorescence microscopy and report an unappr

99 Exposure to cyclic ketones results in a ratiometric fluorescence response.

100 al sensing methods currently being explored, ratiometric fluorescence sensing has received particular

101 The o-amino GFPSCs can serve as wavelength-ratiometric fluorescence sensors that selectively recogn

102 r detection of hydroxyl radical based on the ratiometric fluorescence signal between 7-hydroxy coumar

103 es in an electrospray plume was measured via ratiometric fluorescence.

104 a convenient strategy to design an efficient ratiometric fluorescent bioimaging probe for metal ions.

105 pH indicator (fluorescein) to a broad-range ratiometric fluorescent chemosensor is described.

106 studies, it can be used to develop thin-film ratiometric fluorescent chemosensors with improved optic

107 e proof of concept that the colorimetric and ratiometric fluorescent cyanide-selective chemodosimeter

108 esence of oxidant-sensing beads based on the ratiometric fluorescent dye BODIPY 581/591.

109 and dynamics of LH using genetically encoded ratiometric fluorescent heme sensors in the unicellular

110 This feature was utilized for the real-time ratiometric fluorescent imaging of MsrA activity in E. c

111 H probes for use in live-cell STED nanoscopy.Ratiometric fluorescent pH probes are useful tools to mo

112 monoamine transporter (VMAT) substrates and ratiometric fluorescent pH sensors.

113 Receptor 4 behaves as a ratiometric fluorescent probe for HP(2)O(7)(3-) with a g

114 cedure and labeling of mitochondria with the ratiometric fluorescent probe JC-9.

115 signed and synthesized as a colorimetric and ratiometric fluorescent probe that can be utilized to ra

116 e report the design and application of a new ratiometric fluorescent probe, which contains different-

117 er, and then polarized, labeled with JC-1 (a ratiometric fluorescent probe, which indicates changes i

118 ard the design strategy of a new category of ratiometric fluorescent probes facilitating precise and

119 ETHODS AND We used a novel, redox-sensitive, ratiometric fluorescent protein sensor (RoGFP) to assess

120 Keima is a pH-sensitive, dual-excitation ratiometric fluorescent protein that also exhibits resis

121 We report a platform for the ratiometric fluorescent sensing of endogenously generate

122 We have created a platform for the ratiometric fluorescent sensing of targeted proteins by

123 Herein, we describe the first ratiometric fluorescent sensor for GABA, dubbed GABA-Sni

124 Using this design principle, we generate a ratiometric fluorescent sensor protein for methotrexate

125 acid technology permits the semisynthesis of ratiometric fluorescent sensor proteins with unprecedent

126 non offers a superior platform for designing ratiometric fluorescent sensors.

127 id zinc chelator as well as an extracellular ratiometric fluorescent zinc sensor.

128 vely termed as DC-SIGN/R) using a sensitive, ratiometric Forster resonance energy transfer (FRET) ass

129 as donor showed the highest dynamic range in ratiometric FRET imaging experiments with the G-protein

130 e and have the highest Forster radius of any ratiometric FRET pair yet described.

131 >/= 7 were acquired, and a 90% change in the ratiometric FRET signal was measured.

132 opened distal nephrons as demonstrated using ratiometric Fura-2-based microscopy.

133 mouse, Arl13b-mCherry-GECO1.2, expressing a ratiometric genetically encoded calcium indicator in all

134 Utilizing a novel ratiometric genetically encoded cytosolic Ca(2+) indicat

135 Using a ratiometric H(2)O(2) sensor targeted to different subcel

136 Here, we stably expressed the ratiometric H2O2 redox sensor roGFP2-Orp1 in the cytosol

137 features make it particularly favorable for ratiometric Hg(2+) sensing and bioimaging applications.

138 turn-on and single-excitation dual-emission ratiometric Hg(II) detection in aqueous solution.

139 The resulting reporter, Amt1-FRET, is ratiometric, highly sensitive (K(d) = 2.5 x 10(-18) M),

140 It has been preliminarily used for a ratiometric image of Hg(2+) in living cells and practica

141 To address these problems, a ratiometric, image-based quantification method has been

142 To address these problems, a ratiometric, image-based quantification method has been

143 ral confocal microscopy approach to generate ratiometric images of the plasma membrane surface of Bri

144 large dynamic range of the construct enabled ratiometric imaging (with Rox excitation) of caspase act

145 Ratiometric imaging at 2 wavelengths showed significant

146 In vivo ratiometric imaging demonstrated a lowered ECV pH, which

147 ative study of biological samples, including ratiometric imaging in 1D, 2D and 3D.

148 t insensitive to Cl(-) and pH), we show that ratiometric imaging is strongly affected by the optical

149 shifted TagRFP/mPlum FRET pair with spectral ratiometric imaging of an ECFP/Venus pair we were thus a

150 We show the use of these BRET systems for ratiometric imaging of both cells in culture and deep-ti

151 Transgenic expression of Salsa6f enables ratiometric imaging of Ca(2+) signals in complex tissue

152 , a new water-soluble fluorescent sensor for ratiometric imaging of copper in living cells.

153 The combination of spectral ratiometric imaging of ECFP/Venus and high-speed FLIM-FR

154 Previous methods based on spectral ratiometric imaging of the two FRET sensors have been li

155 Fluorescence lifetime and one-photon ratiometric imaging of TMRM suggested that the spontaneo

156 It has been preliminarily used for ratiometric imaging of Zn(2+) in living cells with satis

157 Ratiometric imaging revealed decreased lysosomal pH in T

158 Ratiometric imaging reveals that F-actin bundles/filopod

159 o correlate microtubule and ER behavior, and ratiometric imaging was used to assess intracellular Ca(

160 d in Arabidopsis (Arabidopsis thaliana), and ratiometric imaging was used to monitor cytosolic Pi dyn

161 In contrast to spectral ratiometric imaging, fluorescence lifetime imaging (FLIM

162 que combination of features: dual-excitation ratiometric imaging, high dynamic range, good signal-to-

163 of labile Cu(+) pools within living cells by ratiometric imaging, including expansion of endogenous s

164 Using ratiometric imaging, we conclude that lysosomes retain a

165 peaks at 440 and 585 nm that can be used for ratiometric imaging.

166 ignal transducers to facilitate quantitative ratiometric imaging.

167 at would enable precise quantitation through ratiometric imaging.

168 This ratiometric increase provides an accelerated and quantif

169 tically in recent years, but high-performing ratiometric indicators are still rare.

170 RACT: The calcium-modulated photoactivatable ratiometric integrator (CaMPARI) is a genetically encode

171 The calcium-modulated photoactivatable ratiometric integrator (CaMPARI) is a genetically encode

172 ference for fluorescent indicators to enable ratiometric intensity or dually lifetime referenced meas

173 ere employed as temperature indicators using ratiometric intensity-based fluorescence techniques.

174 ally encoded tag for electron microscopy and ratiometric light microscopy, we go on to show that bulk

175 lipid identification was carried out using a ratiometric lipid standard on a TSQ Quantum Access Max m

176 g, pulse-chase analysis, and high-resolution ratiometric live-cell studies demonstrate that mDia2 and

177 We report here the preparation of ratiometric luminescent probes that contain two well-sep

178 We use a ratiometric mass spectrometry probe, MitoB ((3-hydroxybe

179 ells, and channel activity was determined by ratiometric measurement of [Ca (2+)] i in response to cy

180 Ratiometric measurement of the intracellular Ca(2+) conc

181 Ratiometric measurements of vacuolar pH confirm that los

182 ator performance such as Kd, wavelength, and ratiometric measurements, the use of NP sensors can achi

183 emission acts as inert reference signal for ratiometric measurements.

184 We show that our ratiometric method identifies biologically significant r

185 A multiplexed, ratiometric method is described that can confidently dis

186 as off-target binding or uneven delivery, a ratiometric method is employed to quantify the specific

187 Not only is this ratiometric method robust and accurate but it is also ve

188 Inspired by dual-wavelength fluorescence ratiometric method which could reduce the influence from

189 robust sensor for pH determination using the ratiometric methodology where excitation at a single wav

190 ple targets as well as for implementation of ratiometric methods that can improve accuracy and precis

191 t jejunal villous epithelium was measured by ratiometric microfluoroscopy.

192 By using a ratiometric microRNA sensor, we found, unexpectedly, tha

193 Using ratiometric microRNA sensors, we determined that miR-132

194 Using adenoviral infection, a ratiometric mitochondrially targeted Forster resonance e

195 gel transitions, simple changes in color, or ratiometric monitoring of the differences in the fluores

196 field that can enable simultaneous, accurate ratiometric monitoring.

197 new pathway to design ultrasmall fluorescent ratiometric nanoindicators with tunable wavelengths and

198 Novel luminescent ratiometric nanosensors (QD-NAPTHs) were prepared based

199 cantly increased signal change compared with ratiometric NES-YC3.6 in response to several stimuli.

200 Using ratiometric optical mapping and video microscopy, we dis

201 The result is a ratiometric optical method that does not require expensi

202 gnition), halogenated hydroxy-coumarin core (ratiometric optical pH sensing in the desired pH range),

203 tease activation and inhibition with a large ratiometric optical signal change.

204 support of multiplexing and error correcting ratiometric or differential measurement approaches.

205 trate that REX-GECO1 can be used as either a ratiometric or intensiometric Ca(2+) indicator in organo

206 The dual reporters allow a robust ratiometric output that is independent of cell number or

207 pH (pHm) and DeltaPsim were monitored using ratiometric pericam and tetramethylrhodamine ethyl ester

208 tegy toward the development of MR probes for ratiometric pH imaging.

209 e to NMDA was further confirmed by using the ratiometric pH indicator carboxy-SNARF-1.

210 luorogenic donor functions as a cell surface ratiometric pH indicator, which upon internalization ser

211 In this study, a novel ratiometric pH MRI method based on the analysis of CEST

212 w possibilities for the design of ultrasmall ratiometric pH nanoindicators.

213 rster resonance energy transfer (FRET)-based ratiometric pH nanoprobes.

214 hyrin-dendrimers can operate as upconverting ratiometric pH nanosensors.

215 NP by fine-tuning of the surface coverage; a ratiometric pH response was then observed owing to stron

216 We present a novel ratiometric pH sensor design using water-soluble, dual-e

217 to demonstrate a concentration-independent, ratiometric pH sensor.

218 Here the authors develop a family of ratiometric pH sensors for use in STED super-resolution

219 In contrast to more commonly used ratiometric pH sensors that rely on the coupling of two

220 ystem lumen, we targeted genetically encoded ratiometric pH sensors to the cytosol, the endoplasmic r

221 l-emission properties, indicating promise in ratiometric pH-sensing applications.

222 dings, efficient fluorescence, and excellent ratiometric pH-sensing properties.

223 se in vacuolar and cytosolic pH homeostasis, ratiometric pH-sensitive fluorophores specific for the v

224 We develop and characterize ratiometric, pH-resistant, genetically encoded fluoresce

225 998, genetically encoded pH-sensitive sensor ratiometric pHluorin proved to be a valuable tool for ce

226 , we designed APC-1 and APC-2 explicitly for ratiometric photoacoustic imaging by using an aza-BODIPY

227 These findings not only provide a ratiometric photoacoustic molecular imaging probe for th

228 g the development of the first near-infrared ratiometric photoacoustic probe for in vivo real-time im

229 The ratiometric photoacoustic signal (PA860/PA690) is notice

230 As proofs of concept, we describe a ratiometric probe for esterase activity and a polarity-r

231 With respect to single-emission probes, this ratiometric probe has demonstrated to feature excellent

232 The novel colorimetric and ratiometric probe is structurally simple and offers dete

233 is demonstrated utilizing four known optical ratiometric probes and sensors, together with a discussi

234 escribe a general platform for the design of ratiometric probes based on a heterometallic Tb(3+)/Eu(3

235 trategy has been widely applied in designing ratiometric probes for bioimaging applications.

236 It seems to be more favorable for designing ratiometric probes for bioimaging applications.

237 rovides a new concept for the development of ratiometric probes.

238 entified subpopulations of DCIS lesions with ratiometric properties resembling either benign fibroade

239 es on photodissociation of cut s10 from GFP, ratiometric protease sensors were designed from the cons

240 Herein, we develop ratiometric pulse-chase amidination mass spectrometry (r

241 Lipids were identified and subjected to ratiometric quantification using a TSQ quantum Access Ma

242 gnetic resonance (MR) probe that enables the ratiometric quantitation and imaging of pH through chemi

243 A novel ratiometric Raman spectroscopic (RMRS) method has been d

244 Given their ratiometric readout, their brightness, large dynamic ran

245 We have developed a set of ratiometric "relative signaling" (RS) rules that quantit

246 ication ratio control system' (ARCS) permits ratiometric representation of amplicons relative to the

247 Demonstrated herein is a UV-vis Ratiometric Resonance Synchronous Spectroscopic (R2S2, p

248 ts in combination with the recently reported ratiometric resonance synchronous spectroscopic (R2S2, p

249 The resulting ratiometric response can be correlated quantitatively to

250 achieves this with a 2.4% change/ degrees C ratiometric response over physiological temperatures in

251 er tested with different biogenic amines and ratiometric response was obtained for tyramine.

252 w, excellent photostability, self-referenced ratiometric response, fast response, and high selectivit

253 orm (low concentration range), it displays a ratiometric response, while a "turn-off" sensing is obse

254 face leads to a very significant fluorescent ratiometric response.

255 rogen peroxide produced in living cells by a ratiometric response.

256 Higher ratiometric responses correlated with greater expression

257 vised sensor film can be used for referenced ratiometric sensing and 2D imaging of pH using a color c

258 uses only a single emitter, which simplifies ratiometric sensing and broadens the applications of the

259 ual-potential electrochemiluminescence (ECL) ratiometric sensing approach.

260 BSA-AuNCs offered a sensitive and reversible ratiometric sensing of a 0.1-pH unit change in the pH ra

261 It allows fluorescent, ratiometric sensing of chloride ions across the entire p

262 of a dual emission probe for the fluorescent ratiometric sensing of hydrogen peroxide (H2O2), enzyme

263 sion properties could serve as the basis for ratiometric sensing of the cellular receptor's local che

264 A wide variety of ratiometric sensing probes using small fluorescent molec

265 e technique, the so called lifetime assisted ratiometric sensing to discriminate the two fluorescence

266 ecific repertoire of computations, including ratiometric sensing, balance detection, and imbalance de

267 nsitive phosphorescence or dual emission for ratiometric sensing, often by blending two dyes in a mat

268 een 550 and 700 nm that can be exploited for ratiometric sensing.

269 Using a mitochondrially targeted ratiometric sensor (Ro-GFP) in cells lacking mitochondri

270 sion enables the development of the CD-based ratiometric sensor for Fe(III) ions and pyrophosphate ba

271 esterase activity and a polarity-responsive ratiometric sensor.

272 s alone, validating the effectiveness of the ratiometric sensor.

273 Although ratiometric sensors are widely used in many applications

274 them ideal candidates for the preparation of ratiometric sensors based on absorption-based indicators

275 Ratiometric sensors generally couple binding events or c

276 Ratiometric sensors hold the additional promise of meani

277 We provide a strategy to design ratiometric sensors that display dramatic spectral shift

278 ce properties in order to generate improved, ratiometric sensors.

279 ports investigation of the dependence of the ratiometric signal on the type of linkage used to conjug

280 lls the sensors showed consistent changes in ratiometric signal upon depletion or restoration of GTP

281 howed large red shifts (68 nm) and selective ratiometric signal upon Zn(2+) binding.

282 encapsulation of multiple dyes to generate a ratiometric signal with varying spectra.

283 nanosized optical pH probes need to provide ratiometric signals in the optically transparent biologi

284 yield light-up signals of up to 40-fold, or ratiometric signals with ratio changes of 82-fold, on en

285 This sensor, named pHRed, is the first ratiometric, single-protein red fluorescent sensor of pH

286 GP) and eCGP123 using directed evolution and ratiometric sorting.

287 e combine APEX technology with a SILAC-based ratiometric tagging strategy to substantially reduce unw

288 mportantly, the Pdot-RhB nanoparticle showed ratiometric temperature sensing under a single wavelengt

289 on describes ultrabright single-nanoparticle ratiometric temperature sensors based on semiconducting

290 4] is an unprecedented case of a luminescent ratiometric thermometer based on a very stable silicate

291 of open cellular regions, we instead use a 'ratiometric' three-state SILAC protocol for high spatial

292 f QD-FRET methods with digital imaging for a ratiometric transduction of nucleic acid hybridization o

293 palette of a digital camera for quantitative ratiometric transduction of nucleic acid hybridization o

294 nce and phosphorescence intensities serve as ratiometric tumour hypoxia imaging agents.

295 The normalized ratiometric turn-on responses for APC-1 and APC-2 were 8

296 A mitochondria-targeted ratiometric two-photon fluorescent probe (Mito-MPVQ) for

297 stablish NC-Os(II)PP conjugates as competent ratiometric, two-photon oxygen sensors for application i

298 A procedure for the synthesis of a ratiometric viscosity fluorescent sensor is described in

299 This unique system can be utilized as a ratiometric water sensor.

300 that can fluorescently report local pH in a ratiometric way.