ライフサイエンスコーパス: fluoride

1 s and aryl fluorosulfates (or alkyl sulfonyl fluorides).

2 rusion step through protonation of the naked fluoride.

3 tical route to anhydrous tetramethylammonium fluoride.

4 of alternate techniques for preparing [(18)F]fluoride.

5 ive azomethines in the presence of potassium fluoride.

6 in complex with GDP-bound RhoA and magnesium fluoride.

7 from silylamide (probase) through the use of fluoride.

8 s-electrophile coupling reaction of an alkyl fluoride.

9 related to dental caries, despite the use of fluoride.

10 ine protease inhibitor, phenylmethylsulfonyl fluoride.

11 ignal amplification and optical detection of fluoride.

12 to yield phase-pure sodium-rare earth metal fluorides.

13 c polyhedra, including nitrides, oxides, and fluorides.

14 five-, six-, and seven-membered cyclic vinyl fluorides.

15 ng substrates of low reactivity such as aryl fluorides.

16 ectronically and sterically diverse sulfonyl fluorides.

17 enesulfonyl fluorides and 1,3-dienylsulfonyl fluorides.

18 application of novel imaging techniques (6-[fluoride-18]fluoro-levodopa [(18)F-DOPA] PET-CT and gluc

19 ed polycondensation between bisalkylsulfonyl fluorides (AA monomers) and bisphenol bis(t-butyldimethy

20 ounds by a distinct mechanism proceeding via fluoride abstraction, migratory insertion, and C-F reduc

21 Aryl sulfonamides add to benzyne upon fluoride activation, and then undergo an aryl Truce-Smil

22 equivalents, generated via silylium-mediated fluoride activation, undergo insertion into sp(3) and sp

23 ced decomposition (CID) spectra of precursor fluoride adducts of the bifunctional steroid "reduced pr

24 The sensing is specific for fluoride among various other anions.

25 METHODS AND We performed (18)F-fluoride and (18)F-fluorodeoxyglucose PET/CT in 26 patie

26 chemoselective reaction between the sulfonyl fluoride and a conserved lysine in the ATP binding site.

27 al process for the formation of thiocarbonyl fluoride and also enables transition-metal-mediated trif

28 reliable Michael addition of ethenesulfonyl fluoride and amines/anilines while the BB monomers were

29 These complexes display minimal affinity for fluoride and can detect cyanide at concentrations less t

30 e the semimetallization in sapphire, calcium fluoride and quartz and to compare this phenomenon and s

31 the unprecedented 2-heteroarylethenesulfonyl fluorides and 1,3-dienylsulfonyl fluorides.

32 el-catalyzed reaction occurs with both alkyl fluorides and alkyl chlorides.

33 a range of compounds, such as amides, alkyl fluorides and bromides, alcohols, aldehydes, arenes, and

34 Metal fluorides and oxides can store multiple lithium ions thr

35 cid fluoride, fluoroformate, benzenesulfonyl fluoride, and aryl fluorosulfonate derivatives) are effe

36 ilar intrinsic affinities and capacities for fluoride, and did not leach harmful ions into product wa

37 ng/mL for fluoxymesterone-M) are obtained by fluoride anion attachment mass spectrometry, as compared

38 c and computational studies demonstrate that fluoride anion binding is assisted by the formation of a

39 n investigated computationally, augments the fluoride anion binding properties of 2, thus making it c

40 inding studies reveal that 2 readily binds a fluoride anion by formation of a unique B-FH-O-B hydroge

41 Fluoride anion complexation impacts a number of areas ra

42 is approach, which is rooted in the field of fluoride anion complexation/coordination chemistry, has

43 mily of boron, aluminium and gallium [(18)F]-fluoride anion complexing agents which can be conjugated

44 sent several observations that show that the fluoride anion does not act as a one-electron reducing a

45 ospecific decompositions after attachment of fluoride anion to a specific hydroxyl group of the stero

46 tems claimed to perform the oxidation of the fluoride anion.

47 d to the chemistry of these group 13 [(18)F]-fluorides anion complexing agents and their use in PET.

48 mensional MOF, enclosing a periodic array of fluoride anions in contracted square-shaped channels.

49 vealed, which suggested that small localized fluoride anions substituted the hydroxyl anions in hydro

50 ique electronic responses in the presence of fluoride anions.

51 When small amounts of fluoride are added during breakage of Al flocs, there ca

52 Transition metal fluorides are an appealing alternative to conventional i

53 The beta-arylethenesulfonyl fluorides are found to be selectively addressable bis-el

54 Noncentrosymmetric mixed-metal carbonate fluorides are promising materials for deep-ultraviolet (

55 r the preparation of sodium-rare earth metal fluorides are reported.

56 We report the discovery of a new fluoride-arsenide bulk diluted magnetic semiconductor (B

57 In contrast, fluoride as a counterion favors dual hydrogen bonding to

58 new autoinductive cascade employing benzoyl fluoride as a latent source of fluoride is reported for

59 uorination of aryl boron reagents with (18)F-fluoride as a model reaction.

60 Here we show, using polyvinylidene fluoride as a sample polymer, a new concept of membrane

61 intact glycoproteins by using alpha-fucosyl fluoride as a simple donor substrate.

62 le access to a wide range of biaryl sulfonyl fluorides as bioorthogonal "click" reagents.

63 rom the corresponding metal fluorides MF4 by fluoride-azide exchange reactions with Me3 SiN3 in the p

64 s concerns about the cost-effectiveness of a fluoride-based intervention delivered at the practice le

65 Proposals relying on fluoride-based molten salts have suffered from low produ

66 The data indicate that the used fluoride-based NPs are not biologically inert but rather

67 adsorption of ubiquitin on gadolinium-doped fluoride-based NPs produced residue-specific NMR line-br

68 Allylic fluorides bearing a variety of functional groups are tra

69 Sodium yttrium fluoride (beta-NaYF4 ) nanowires (NWs) with a hexagonal

70 is of aryl groups on the urea indicates that fluoride binding is dependent on sigmap and sigmam param

71 Some of the key fluoride-binding motifs covered in this review include t

72 defined urea-fluoride complexes are used as fluoride-binding reagents for the nucleophilic substitut

73 rnable high-k fluoropolymer, poly(vinylidene fluoride-bromotrifluoroethylene) P(VDF-BTFE), with a die

74 This approach for colorimetric sensing of fluoride by ring-opening of the otherwise photochromic b

75 Additionally, sulfonyl fluorides can be converted to aryl sulfonamides and sulf

76 Similarly, E-alkenyl fluorides can be synthesized from simpler compounds or m

77 The synthetic strategy involved sequential fluoride-catalyzed nucleophilic addition of PhSCF2SiMe3

78 renes bearing simple functionalities such as fluoride, chloride, ester, amide, ether, nitrile, and tr

79 f chemistries (oxides, carbonates, bromides, fluorides, chlorides and phosphates), multiple crystal s

80 hane) and the shell (wrinkled polyvinylidene fluoride-co-trifluoroethylene/carbon nanotube layer) dur

81 The discrete (phosphinoarenesulfonate)Pd fluoride complex (PO(Bp,OMe) )PdF(lutidine), where PO(Bp

82 esis that the reactive species is a 1:1 urea-fluoride complex of type [UF](-) (U = urea) resulting fr

83 on from a characterized first-row aryl metal fluoride complex.

84 tion from any other characterized aryl metal fluoride complex.

85 ination strength, and reactivity of the urea-fluoride complexes are tunable by modifying substituents

86 For the first time, defined urea-fluoride complexes are used as fluoride-binding reagents

87 udy examining the structure of 18 novel urea-fluoride complexes in the solid state, by X-ray and neut

88 n is slower in comparison with known alcohol-fluoride complexes, but SN2 is largely favored over E2,

89 pled spin and charge doping is achieved in a fluoride compound.

90 ism to generate highly enantioenriched alkyl fluoride compounds.

91 fluoride sensor that can detect and analyze fluoride concentration level in drinking water.

92 n developed which can detect and analyze the fluoride concentration level in water samples.

93 cyanide in water, but respond to changes in fluoride concentration.

94 n people drink groundwater contaminated with fluoride concentrations exceeding the World Health Organ

95 cy-doubling oxides, phosphates, borates, and fluoride-containing borates were found, no transition-me

96 er-sized particles of Bioglass 45S5 (BAG) or fluoride-containing phosphate-rich bioactive glass (BAG-

97 However, the fluoride-containing phosphate-rich bioactive glass incor

98 In conclusion, fluoride-containing phosphate-rich bioactive glass incor

99 as an inexpensive adsorbent for remediating fluoride-contaminated groundwater in resource-constraine

100 ed the deposition kinetics of polyvinylidene fluoride copolymerized with trifluoroethylene (P(VDF-TrF

101 only under certain circumstances, e.g., when fluoride displacement by a nucleophile is facilitated.

102 ostructure oxide counterpart of LaOZnSb, the fluoride DMS (Ba,K)F(Zn,Mn)As shows much improved semico

103 Fluoride does not give any visible coloration to water,

104 oupling with an isopropylidene-protected Kdo-fluoride donor to afford a protected tetrasaccharide int

105 tion between sucrosyl acceptors and glycosyl fluoride donors to yield the derived trisaccharides.

106 hemicals (theophylline, tetramethylrosamine, fluoride, dopamine, thyroxine, 2,4-dinitrotoluene) and a

107 t the side products derive from facile alpha-fluoride elimination at the 3-coordinate Pd(II) complex.

108 reaction is assumed to proceed through beta-fluoride elimination of a beta,beta,beta-trifluoroalkylr

109 species which is proposed to undergo a beta-fluoride elimination to afford the products.

110 delivers secondary, tertiary, or vinyl alkyl fluorides embedded within a vicinal fluoro amine functio

111 rocedure for the synthesis of ethenesulfonyl fluoride (ESF) is described.

112 o)aryl or alkenyl iodide with ethenesulfonyl fluoride (ESF).

113 he Van Deemter optimum), the plate count for fluoride exceeded 70000 plates/m under isocratic conditi

114 addressable bis-electrophiles for sulfur(VI) fluoride exchange (SuFEx) click chemistry, in which eith

115 Sulfur(VI) fluoride exchange (SuFEx) is a new family of click chemi

116 ns) as powerful catalysts for the sulfur(VI) fluoride exchange (SuFEx) reaction between aryl silyl et

117 een longitudinal, had individual measures of fluoride exposure, addressed the impact of prenatal expo

118 In this study, higher prenatal fluoride exposure, in the general range of exposures rep

119 also by increasing the exothermicity of the fluoride extrusion step through protonation of the naked

120 first correlate the voltage profile of iron fluoride (FeF3), a representative conversion electrode m

121 luorine-containing electrophiles (e.g., acid fluoride, fluoroformate, benzenesulfonyl fluoride, and a

122 of [(18) F]difluoromethylarenes from [(18) F]fluoride for radiopharmaceutical discovery is reported.

123 en the acetaldehyde enolate anion and methyl fluoride, for both O-methylation and C-methylation, in o

124 selectivity in fluorine functionalization is fluoride fragmentation from the radical anion of the mul

125 lary ligands can be utilized to elute [(18)F]fluoride from ion exchange cartridges.

126 s a highly utilized means for preparing aryl fluorides from anilines.

127 hat is compatible with the aromatic sulfonyl fluoride functional group.

128 a maximum 4-fold signal enhancement for each fluoride generated, as well as a self-propagating cycle

129 ch either the alkenyl moiety or the sulfonyl fluoride group can be the exclusive site of nucleophilic

130 Fluoride has been overlooked as a target in the developm

131 With Fe flocs, fluoride has no noticeable effect.

132 f these Mg(PF6)2-based electrolytes, with no fluoride (i.e., MgF2) formed on the Mg surface.

133 Ethenesulfonyl fluoride (i.e., vinylsulfonyl fluoride, or ESF) undergoe

134 the E-isomer sulfonyl analogues of cinnamoyl fluoride in 43-97 % yield.

135 18)F]7 from up to 285 GBq (7.7 Ci) of [(18)F]fluoride in 50 min (uncorrected radiochemical yield, spe

136 Mean (SD) values for urinary fluoride in all of the mothers (n=299) and children with

137 tive electrode technique was used to measure fluoride in archived urine samples taken from mothers du

138 rt upon treatment with tetra-n-butylammonium fluoride in dry DMSO.

139 Pollutants such as fluoride in groundwater may be present in much higher co

140 xposed to varying concentrations of hydrogen fluoride in humid air.

141 of fluorene, allows "naked-eye" detection of fluoride in subppm levels (<1.0 ppm) in THF as well as i

142 is the strain of box deformation that keeps fluoride in the middle of the box, and freezes what woul

143 ew structure is able to solubilize potassium fluoride in toluene solution much more efficiently than

144 has been developed generating aryl sulfonyl fluorides in good to excellent yields.

145 dynamically disfavored alkenyl chlorides and fluorides in high yield and with exceptional stereoselec

146 uorine transfer to provide the corresponding fluorides in high yield.

147 obtain many alkenyl chlorides, bromides and fluorides in up to 91 per cent yield and complete Z sele

148 s and in situ polycondensation with bis(aryl fluorides) in the presence of carbonate salts.

149 fferential effect of dasatinib between (18)F-fluoride incorporation in tumor and normal bone, (18)F-f

150 n Mg(2+)i was also present; and 4) beryllium fluoride induced maximal IH even in the absence of nucle

151 yloxy-substituted diarylpyrans subsequent to fluoride-induced ring opening are remarkably high (330-4

152 We report the encapsulation of hydrogen fluoride inside C60 using molecular surgery to give the

153 The reaction proceeds via a sulfonimidoyl fluoride intermediate.

154 Fluoride ion channels of the Fluc family combat toxicity

155 te-limiting step is the release of the first fluoride ion from the difluoromethylphenolate intermedia

156 renes (1a-1u) with cyclotron-produced [(18)F]fluoride ion rapidly affords no-carrier-added [(18)F]flu

157 available phosphonate smoothly reacts with a fluoride ion to liberate a difluorocarbene intermediate

158 uence through steric hindrance of transverse fluoride ion vibrations, which directly controls the the

159 e Halex reaction of pentachloropyridine with fluoride ion was studied experimentally and computationa

160 rth-abundant iron catalysts and nucleophilic fluoride ion.

161 Computed fluoride-ion affinities (FIAs) of the hydroalane adducts

162 Nevertheless, they allow the detection of fluoride ions at micromolar concentration by the naked e

163 enolate intermediate, slowing the release of fluoride ions.

164 Hydrogen bonding with fluoride is a key interaction encountered when analyzing

165 2-Chloroethanesulfonyl fluoride is made via a neat reaction with an aqueous, ne

166 oying benzoyl fluoride as a latent source of fluoride is reported for signal amplification and optica

167 , complex 9 containing the stronger pi-donor fluoride is stable.

168 on the structure and reactivity of complexed fluoride is therefore important for catalysis and numero

169 (2+) can be growth-inhibitory, and magnesium fluoride is toxic.

170 g diethyl bromodifluoromethylphosphonate and fluoride, is described.

171 to access compounds, beta-arylethenesulfonyl fluorides, is described.

172 bonyl compounds is described using potassium fluoride (KF) and hexafluoroisopropanol.

173 it from being able to hydrolyze DFP with its fluoride leaving group.

174 ercially available for in-field detection of fluoride level in drinking water.

175 w anion sensing platform for measurements of fluoride levels in drinking water samples.

176 Some evidence suggests that fluoride may be neurotoxic to children.

177 The fluoride-mediated desilylation reaction has been exploit

178 ochip that is dragged along a polyvinylidene fluoride membrane so that as proteins exit the chip they

179 ion sulfonyl fluoride poly(perfluorosulfonyl fluoride) membranes with the photoacid 8-hydroxypyrene-1

180 titative yields from the corresponding metal fluorides MF4 by fluoride-azide exchange reactions with

181 nzyme structures in the PDB containing metal fluorides (MFx ) as ligands that imitate either a phosph

182 ave previously reported that PET using (18)F-fluoride (NaF PET) for assessment of osseous metastatic

183 have previously reported that PET with (18)F-fluoride (NaF PET) for assessment of osseous metastatic

184 f degradation species: newly observed sodium fluoride (NaF) and the expected sodium carbonate (Na2CO3

185 Purpose [(18)F]Sodium fluoride (NaF) positron emission tomography (PET)/comput

186 Fluoride, nature's smallest anion, is capable of covalen

187 the ultratrace quantitation of a phosphoryl fluoride nerve agent surrogate.

188 ryl fluoride (SO2F2) and tetramethylammonium fluoride (NMe4F) via aryl fluorosulfonate (ArOFs) interm

189 we found that an increase in maternal urine fluoride of 0.5mg/L (approximately the IQR) predicted 3.

190 for the end-functionalization of vinylidene fluoride oligomers (OVDF) via a radical reaction between

191 transported ions, nucleotides, and beryllium fluoride) on IH and, for comparison, on transient curren

192 A highly selective fluoride optode using an Al(III) -porphyrin ionophore is

193 We sought to assess whether (18)F-fluoride or (18)F-fluorodeoxyglucose can identify culpri

194 Addition of fluoride or acetylide to the most stable cyclopropanone

195 A stack of rectangular polyvinylidene fluoride (or PVDF) membranes having 0.22 mum pores house

196 Ethenesulfonyl fluoride (i.e., vinylsulfonyl fluoride, or ESF) undergoes beta-arylation with stable a

197 The NaMnF3 fluoride-perovskite has been found, theoretically, to be

198 odide, phosphate, nitrate, nitrite, bromide, fluoride, persulphate, acetate, thiosulphate, arsenite,

199 Motion correction of hybrid (18)F-fluoride PET markedly improves SNR, resulting in improve

200 Optimized 18F-fluoride PET-CT allows reproducible localization of calc

201 n-rescan reproducibility of aortic valve 18F-fluoride PET-CT imaging.

202 with aortic stenosis underwent repeated 18F-fluoride PET-CT.

203 ted whether motion correction of gated (18)F-fluoride PET/CT and PET/MRI of the aortic valve could im

204 (18)F-Fluoride PET/CT highlights culprit and phenotypically hi

205 y barrier of 23.3 kcal mol(-1) for potassium fluoride plus ethyl bromide reaction model.

206 nes was achieved by reacting Nafion sulfonyl fluoride poly(perfluorosulfonyl fluoride) membranes with

207 om the life cycle of perfluorooctanesulfonyl fluoride (POSF)-based products in 1958-2030 is presented

208 18F-Fluoride positron emission tomography (PET) and computed

209 henolate dimers formed in situ with the aryl fluorides present.

210 ting the utility of lysine-targeted sulfonyl fluoride probes in demanding chemoproteomic applications

211 Here, we report the design of sulfonyl fluoride probes that covalently label a broad swath of t

212 Two single-molecule, self-immolative fluoride probes, namely tert-butyldimethylsilyl-protecte

213 ehydrochlorination of 2-chloroethanesulfonyl fluoride proceeds neatly with magnesium oxide as the bas

214 e-selective Wacker-type oxidation of allylic fluorides proceeds with a nitrite catalyst.

215 ased material throughput of valuable allylic fluoride products.

216 cally diverse and functional group-rich aryl fluoride products.

217 The fluoride-promoted vinylogous Mukaiyama-Michael reaction

218 der basic conditions with tetrabutylammonium fluoride provides the 1:1 adduct as the free alcohol.

219 In this study, polyvinylidene fluoride (PVDF) and nano-porous silica particle were use

220 hydrophobic polymers such as polyvinylidene fluoride (PVDF) have been widely used for membrane disti

221 s (GOQDs) onto amino modified polyvinylidene fluoride (PVDF) membrane has generated a new type of nan

222 the fabrication of omniphobic polyvinylidene fluoride (PVDF) membranes that repel both water and oil.

223 lic stencil onto a commercial polyvinylidene fluoride (PVDF) microfiltration (MF) membrane.

224 oreactor was retrofitted with polyvinylidene fluoride (PVDF) microfiltration membrane units, each of

225 s prepared by filtration on a polyvinylidene fluoride (PVDF) support.

226 olyimide (PI) in the shell of polyvinylidene fluoride (PVdF) was prepared using a facile one-pot elec

227 aO2 and the electrode binder, polyvinylidene fluoride (PVDF).

228 R) sensitive Er(3+) modified poly(vinylidene fluoride) (PVDF) (Er-PVDF) film is developed for convert

229 nowires within an insulating poly(vinylidene fluoride) (PVDF) matrix in solution.

230 ectric phase transition in a poly(vinylidene fluoride) (PVDF) thin film by leveraging its phototherma

231 ad zirconate titanate (PZT), poly(vinylidene fluoride) (PVDF), 2D materials, and composite materials

232 ene 955) and a fluoropolymer (polyvinylidene fluoride, PVDF) were analyzed in powder raw material for

233 agents (m-chloroperbenzoic acid and hydrogen fluoride pyridine) and a simple chiral aryl iodide catal

234 ol (n = 3) were achieved from starting (18)F-fluoride radioactivities of 40-44 GBq.

235 This feature, combined with the "fluoride-rebound" mechanism, was translated into a proto

236 generates three fluorophores for each single fluoride released.

237 Recent studies showed that the fluoride-releasing activity of conventional GICs is inad

238 We also showed that fluoride remediation with the best-performing Guinea bau

239 suggest that bauxite could be an affordable fluoride-remediation adsorbent with the potential to imp

240 nts in India bauxite, significantly hindered fluoride removal by increasing solution pH.

241 g technique could be useful for initiating a fluoride removal program undertaken by governmental and

242 To elucidate factors governing fluoride removal, bauxites were characterized using X-ra

243 nt), the iron responsive elements (29 nt), a fluoride riboswitch from Bacillus anthracis(48 nt), and

244 Fluoride's compactness works to its advantage in stabili

245 aches to the in situ generation of anhydrous fluoride salts for applications in nucleophilic aromatic

246 adium-catalyzed fluorination reactions using fluoride salts, controlling the regioselectivity present

247 Silver diamine fluoride (SDF) is found to promote remineralization and

248 Fluoride seeks its center.

249 istological and micro PET/CT analysis, (18)F-fluoride selectively highlighted microcalcification.

250 bust, and field portable smartphone platform fluoride sensor that can detect and analyze fluoride con

251 e deoxyfluorination of phenols with sulfuryl fluoride (SO2F2) and tetramethylammonium fluoride (NMe4F

252 lammonium 2,6-dimethylphenoxide and sulfuryl fluoride (SO2F2) serves as a particularly practical rout

253 ction specimens that were etched in ammonium fluoride solution.

254 The method utilizes a nucleophilic fluoride source and an oxidant in conjunction with an ar

255 plore the reactivity of these complexes as a fluoride source in SN2 chemistry.

256 thodology uses HF*pyridine as a nucleophilic fluoride source with a peracid stoichiometric oxidant, a

257 ol was devised employing CsF as a substitute fluoride source.

258 and suggest that exchanging the iodide for a fluoride strengthens the metal-metal bond.

259 glycolytic inhibitors iodoacetate and sodium fluoride synergistically cooperated with NDI, thus furth

260 Air-stable and soluble tetrabutylammonium fluoride (TBAF) is demonstrated as an efficient n-type d

261 rist, and head (secondary endpoints) lithium fluoride thermoluminescent dosimeter, and randomizing at

262 ic voltammetry, theoretical calculation, and fluoride titration experiments, providing detailed under

263 he oxide ions in [IrO6](8-) by isoelectronic fluorides to form the fluorido-iridate: [IrF6](2-).

264 ntake and DMFT was weaker in adults who used fluoride toothpaste daily than in those using it less of

265 Also, daily use of fluoride toothpaste reduced but did not eliminate the as

266 rnish, toothbrush, a 50-mL tube of 1,450 ppm fluoride toothpaste, and standardized prevention advice)

267 varnish, toothbrush, 50-mL tube of 1,450 ppm fluoride toothpaste, and standardized, evidence-based pr

268 gars intake and caries varies by exposure to fluoride toothpaste.

269 is paper we report the direct measurement of fluoride transport across lipid bilayers facilitated by

270 synthetic anion transporters despite natural fluoride transport channels being recently discovered.

271 ncorporation in tumor and normal bone, (18)F-fluoride transport in bone metastases, correlation with

272 Herein, we report a new and controllable fluoride treatment for the non-discriminate extraction o

273 surface screening charges on poly(vinylidene fluoride-trifluoroethylene) [P(VDF-TrFE)] thin films.

274 on and alignment of multiple poly(vinylidene fluoride-trifluoroethylene) piezoelectric fiber bundles

275 (18)F-Fluoride uptake correlated with high-risk plaque feature

276 Fluoride uptake on bauxite -primarily through ion-exchan

277 G-gated PET-CT permitted localization of 18F-fluoride uptake to individual valve leaflets.

278 Carotid (18)F-fluoride uptake was increased in clinically adjudicated

279 High-intensity aortic valve (18)F-fluoride uptake was observed in all patients.

280 d conversion of aryl iodide to aryl sulfonyl fluorides using DABSO and Selectfluor has been developed

281 d to a one-pot conversion of phenols to aryl fluorides using the combination of SO2F2 and NMe4F.

282 Fissure sealant (FS) and fluoride varnish (FV) are effective in preventing dental

283 ation was associated with the application of fluoride varnish (P < 0.001), ensuring a greater reducti

284 diode laser, respectively); G2, G4, and G6 (fluoride varnish application + 0.5 W, 0.7 W, and 1 W dio

285 or children and 4 for parents), along with 4 fluoride varnish applications delivered in Head Start du

286 events, >/=1 caregiver OHP events, and >/=3 fluoride varnish).

287 s recruited) to the intervention (22,600-ppm fluoride varnish, toothbrush, 50-mL tube of 1,450 ppm fl

288 lly randomized into intervention (22,600 ppm fluoride varnish, toothbrush, a 50-mL tube of 1,450 ppm

289 0-nm diode laser, with or without associated fluoride varnish.

290 higher energy densities and association with fluoride varnish.

291 inated monomers as exemplified by vinylidene fluoride (VDF) and for the synthesis of their block copo

292 }C6 H4 )(2-SO3 -5-MeC6 H3 )P, inserts vinyl fluoride (VF) to form (PO(Bp,OMe) )PdCH2 CHF2 (lutidine)

293 r radiofluorination of anilines with [(18) F]fluoride via N-arylsydnone intermediates is described.

294 s developed whereby cyclotron-produced (18)F-fluoride was trapped on a quaternary methyl ammonium ani

295 e non-hydrolyzable ATP analog, ADP-beryllium fluoride, we observe additional interactions between the

296 he non-hydrolyzable ATP analog ADP-beryllium fluoride, we studied the NtrC1-sigma(54) AID complex usi

297 The costs of applying topical fluoride were also estimated assuming the work was under

298 than that of the corresponding aryl sulfonyl fluorides, which are better characterized with regard to

299 This neutral derivative captures fluoride with an unprecedented affinity for a neutral, w

300 mate the association of prenatal exposure to fluoride with offspring neurocognitive development.

301 l as of properties of a stable metal nitride fluoride, Zn2NF.