1 on accompanied by spontaneous elimination of
hydrogen fluoride.
2 2',3'-dideoxy nucleosides, by elimination of
hydrogen fluoride.
3 spar, bypassing the necessity to manufacture
hydrogen fluoride.
4 a procedure that generates highly dangerous
hydrogen fluoride(
1-5).
5 Femtomolar concentrations of
hydrogen fluoride,
a decomposition component of nerve ag
6 ucer of fluorspar (CaF(2)), the precursor to
hydrogen fluoride and fluorine, has embarked on an indus
7 to cesium hexafluosilicate by dissolution in
hydrogen fluoride and the addition of cesium chloride.
8 rgeted PFAS and suspect screening as well as
hydrogen fluoride and total fluorine.
9 donor and proton acceptor of hydrogen-bonded
hydrogen fluoride binary complexes is investigated.
10 reement with NMR data, suggest a cyclic poly(
hydrogen fluoride)
bridged structure for DMEPHF.
11 ted using liquid as well as solid onium poly(
hydrogen fluoride)
catalysts.
12 ntitative basis for numerical simulations of
hydrogen fluoride chemical lasers.
13 Polymeric solid amine:poly(
hydrogen fluoride)
complexes are excellent solid HF equi
14 al calculations of stable dialkyl ether/poly(
hydrogen fluoride)
complexes are reported.
15 The liquid poly(
hydrogen fluoride)
complexes of amines are typical ionic
16 y chemically synthesized (AO)7 and anhydrous
hydrogen fluoride-
deglycosylated d(AO)51.
17 Dimethyl ether/poly(
hydrogen fluoride) (
DMEPHF), are stable complexes of par
18 was released from the cell wall with aqueous
hydrogen fluoride (
HF) and purified by gel filtration ch
19 Hydrogen fluoride (
HF) and selected nonbasic and weakly
20 grade fluorspar (AGF) into highly hazardous
hydrogen fluoride (
HF) followed by neutralization with a
21 Hydrogen fluoride (
HF) is a versatile reagent for materi
22 In this process, anhydrous
hydrogen fluoride (
HF) is used to remove the side chain
23 gel treatment of the separated proteins with
hydrogen fluoride (
HF).
24 s anthracis vegetative cell walls by aqueous
hydrogen fluoride (
HF).
25 ical fluorinating reagents-are prepared from
hydrogen fluoride (
HF).
26 MCs and exposed to varying concentrations of
hydrogen fluoride in humid air.
27 We report the encapsulation of
hydrogen fluoride inside C60 using molecular surgery to
28 show increased availability of antigen after
hydrogen fluoride or cellulase treatment and decreased a
29 ilable reagents (m-chloroperbenzoic acid and
hydrogen fluoride pyridine) and a simple chiral aryl iod
30 cent stain and chemical dephosphorylation by
hydrogen fluoride-
pyridine enabled us to identify differ
31 Homologous dialkyl ether/poly(
hydrogen fluoride) (
R(2)O/[HF](n,), R = Et, nPr) systems
32 The dangerous chemical
hydrogen fluoride sits at the apex of the fluorochemical
33 Treatment with potassium
hydrogen fluoride smoothly converted these to the corres
34 Application of other strong acids, including
hydrogen fluoride,
thioacetic acid, trifluoromethanesulf
35 Hydrogen fluoride treatment of 89I LOS to remove phospha
36 with that of the LOS after O-deacylation and
hydrogen fluoride treatment.
37 captoethyl auxiliary was stable to anhydrous
hydrogen fluoride used to cleave and deprotect peptides
38 The approach is applied to model
hydrogen fluoride,
which in experiments exhibits unusual
39 and effectively suppresses the generation of
hydrogen fluoride,
which will markedly facilitate the ba
40 ormed amide bond by treatment with anhydrous
hydrogen fluoride,
yielding a full-length unmodified pol
41 The high efficiency of the
hydrogen fluoride zipping makes our approach attractive