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1  charged ligands (e.g., oleate and octadecyl phosphonate).
2  and benzyl bromide to produce diethylbenzyl phosphonate.
3 otent inhibitor in the series, L-rhamnose 1C-phosphonate.
4 (alkylamino) ester, or an (alkylamino)methyl phosphonate.
5 oxymethyl) (E)-4-hydroxy-3-methyl-but-2-enyl phosphonate.
6 oxymethyl) (E)-4-hydroxy-3-methyl-but-2-enyl phosphonate.
7  are more potent inhibitors than monoanionic phosphonates.
8 hesis of other types of 3'-fluoro nucleoside phosphonates.
9 of alpha,beta-unsaturated aldehydes and acyl phosphonates.
10 ich is required for the biosynthesis of most phosphonates.
11 n of phosphazenes and fluorinated acetylenic phosphonates.
12 chieved in high yield from the corresponding phosphonates.
13 ines to produce aromatic phosphonium ions or phosphonates.
14 ford tetrasubstituted alpha-amino-beta-nitro-phosphonates.
15 ed in the clinic, representative spirocyclic phosphonate 18a(-) features improved selectivity for the
16 nomethyl phosphonate [AMP](2-), 1-aminoethyl phosphonate [1AEP](2-), 2-aminoethyl phosphonate [2AEP](
17 2,3-triazolyl or substituted 1,2,3-triazolyl phosphonate-2'-deoxyribonucleotide internucleotide linka
18 noethyl phosphonate [1AEP](2-), 2-aminoethyl phosphonate [2AEP](2-), aminopropyl phosphonate [APP](2-
19  hydrogenation of (S)-alpha-amino-beta-nitro-phosphonate 2d gives enantiopure (S)-alpha,beta-diaminop
20 openta[b]-pyrrole-2-phosphine oxides 4a and -phosphonates 4b,c are generated by the addition of cycli
21 ented C-P bond cleavage reaction of ribose-1-phosphonate-5-phosphate to methane and ribose-1,2-cyclic
22                     An epimeric mixture of H-phosphonates 5R and 5S has been synthesized in three ste
23 is to characterize the effects of FTY720 (S)-phosphonate, a novel analog of FTY720-phosphate, on vari
24 propyl phosphonate [APP](2-), and aminobutyl phosphonate [ABP](2-).
25 osphonate scaffold, alpha-carboxy nucleoside phosphonate (alpha-CNP), was designed that is recognized
26                      Alpha-carboxynucleoside phosphonates (alpha-CNPs) are novel viral DNA polymerase
27 se (RT) inhibitors, alpha-carboxy nucleoside phosphonates (alpha-CNPs).
28 report for the first time the development of phosphonate amidines and sulfonate amidines as isosteres
29                    This includes aminomethyl phosphonate [AMP](2-), 1-aminoethyl phosphonate [1AEP](2
30 bited by alternative substrates (aminomethyl phosphonate [AMPA] and N-methyl glyphosate [NMG]), which
31 taAla(P) would be generated from Ser(P), the phosphonate analog of Ser, by phosphorylation and subseq
32  radiation-induced gene dysregulation by the phosphonate analog, fTyS (0.1 and 1 mg/kg i.p., 2x/wk) a
33 iastereomeric cis- and trans-monocyclic enol-phosphonate analogs to Cyclophostin and Cyclipostins wer
34                          An acetyl-protected phosphonate analogue of UDP-D-apiose was synthesized and
35 he first series of a new class of nucleoside phosphonate analogues is described.
36 the alpha position of carbocyclic nucleoside phosphonate analogues leads to a novel class of potent H
37 own sugar nucleotide substrates and selected phosphonate analogues.
38                                           5'-Phosphonate and 5'-phosphate analogues of AMP containing
39        By introducing POC groups on both the phosphonate and alpha-carboxylate, we synthesized Tris-P
40 hesis of a 3'-fluoro-3'-deoxytetrose adenine phosphonate and can be expanded toward the synthesis of
41 e, which results in surface stabilization of phosphonate and carboxylate derivatives of Ru(II)-polypy
42                      Finally, the iminosugar phosphonate and its elongated phosphate analogue were ac
43  perfluoroalkyl ionomer materials containing phosphonate and phosphinate moieties substituted for the
44  the biosynthesis of MPn from 2-hydroxyethyl phosphonate and the bacterial C-P lyase complex is known
45 esents the most porous crystalline zirconium phosphonate and the only porous MOF material reported to
46      However, 1 is highly polar containing a phosphonate and two carboxylates, severely limiting its
47 heteroatom (N or O) in alpha-position to the phosphonate and using the resultant OH and NH(2) groups
48                                       Both H-phosphonates and diaryl phosphine oxides are suitable co
49       We report the synthesis of a series of phosphonates and ketosephosphonates possessing an L-rham
50  coupling and iodocyclization to give cyclic phosphonates and other cyclization reactions to give pi-
51 el methodology proceeds with a wide range of phosphonates and phosphoramidates under mild conditions
52 ng alkenyl halides, sulfides, triflates, and phosphonates and provides a mild and practical alternati
53                   The hydroxyl groups of the phosphonates and pyrrole -NH protons are further engaged
54 he largest void volume recorded in zirconium phosphonates and SZ-3 represents the most porous crystal
55 yridin-4-yl)ethoxy)amino)-2,2-dimethylpropyl)phosphonate) and its N(+)-O(-) oxide activated version 3
56 o form surface bound n-alkylammonium oleate, phosphonate, and carbamate ion pairs that bind with grea
57           Molecules bearing phosphonamidate, phosphonate, and phosphinate moieties were synthesized.
58  with diverse substituents on the amine, the phosphonate, and the allene moieties.
59 re particularly useful in the preparation of phosphonate- and phosphinoxide-functionalized molecules.
60                           Acyclic nucleoside phosphonates (ANPs) are inhibitors of HG(X)PRT and arres
61   Here, newly synthesized acyclic nucleoside phosphonates (ANPs) have been shown to be competitive in
62                           Acyclic nucleoside phosphonates (ANPs) that contain a 6-oxopurine base are
63 tigates the adsorption and desorption of the phosphonate antiscalant nitrilotris(methylenephosphonic
64 inoethyl phosphonate [2AEP](2-), aminopropyl phosphonate [APP](2-), and aminobutyl phosphonate [ABP](
65 ls, whereas the alcohol of HMBPP and alkenyl phosphonates are directly recognized.
66                                    These BZN-phosphonates are highly adsorbed onto alum, which signif
67                    Substantial quantities of phosphonates are produced worldwide for industrial proce
68                           The beta-borylated phosphonates are readily converted to chiral beta- and g
69               The detection of xylose cyclic phosphonate as the turnover product reveals significant
70 negative bacteria have the capability to use phosphonates as a nutritional source of phosphorus under
71 d to allow bacteria to utilize environmental phosphonates as a source of carbon and phosphorus.
72 sed nucleosides, nucleotides, and nucleoside phosphonates as potential antiviral or anticancer agents
73     In light of the importance of amides and phosphonates as synthetic intermediates, we envision tha
74 e end of follow-up, 17.5%) followed by alkyl phosphonate-associated pol-gene (7.4%), immune-associate
75                   The aza-acyclic nucleoside phosphonates (aza-ANPs) are good inhibitors of Plasmodiu
76                                  The pendant phosphonate base mediates O-O bond formation via intramo
77 e mechanism of proton diffusion within a new phosphonate-based metal-organic framework (MOF) material
78 e chains were introduced via stereoselective phosphonate-based olefinations.
79 oxyphosphonates and aminophosphonates and to phosphonates bearing a quaternary carbon stereocenter.
80         Collectively, our analyses show that phosphonate biosynthesis is both diverse and relatively
81          Based on the presence of this gene, phosphonate biosynthesis is common in microbes, with ~5%
82 arby genes, suggesting that the diversity of phosphonate biosynthetic pathways can be predicted by ex
83  used this approach to estimate the range of phosphonate biosynthetic pathways in nature, revealing d
84 pM), is shared by the vast majority of known phosphonate biosynthetic pathways.
85 , PCMOF10 is water stable owing to strong Mg phosphonate bonding.
86 structural basis for understanding microbial phosphonate breakdown.
87 ifluoroacetate, diethyl (bromodifluoromethyl)phosphonate, [(bromodifluoromethyl)sulfonyl]benzene, and
88  X and Y into 9-mer oligonucleotides using H-phosphonates building blocks 5R and 5S, respectively.
89 e, through dienamine formation, and the acyl phosphonate by hydrogen-bonding.
90 e rhodium-catalyzed hydroboration of allylic phosphonates by pinacolborane affords chiral tertiary bo
91 n the P horizontal lineO groups in the tetra-phosphonate calix[4]pyrrole cavitands are conformational
92 y constants than the previously reported bis-phosphonate calix[4]pyrrole counterparts in the complexa
93                                    The tetra-phosphonate calix[4]pyrroles exhibited larger affinity c
94  of the different classes of solids based on phosphonates, carboxylates and other linkers.
95 e, combining the features of single-site bis-phosphonate catalysts and fast bimolecular bis-carboxyla
96 ndings are relevant for the potential use of phosphonate cavitands as synthetic receptors for the det
97 tional assignment of three diasteromeric bis-phosphonate cavitands based on an aryl extended calix[4]
98 vers (MCs) functionalized by a film of tetra-phosphonate cavitands were employed to screen as guests
99 uced oxidation state P compounds include the phosphonates, characterized by C-P bonds, which bear up
100    Furthermore, a zero-dimensional zirconium phosphonate cluster acting as secondary building unit ha
101 ilt by previously unknown isolated zirconium phosphonate clusters and exhibit combined high porosity
102 , SnS nanocrystals are capped with a cadmium-phosphonate complex.
103 ix families of cobalt-lanthanide mixed-metal phosphonate complexes are reported in this Article.
104  stabilized by adsorbed metal carboxylate or phosphonate complexes or by ion pairs.
105 ationic calcium surface sites to form Ca(2+)-phosphonate complexes.
106  potential active sites that probably couple phosphonate compounds to ATP and subsequently hydrolyse
107                                  Among these phosphonate compounds, the dehydration derivative 7a tha
108 imited supply, some bacteria are able to use phosphonate compounds, which require specialized enzymat
109 s (H1N1, H3N2, H5N1, and H7N9), although the phosphonate congener 6a is unexpectedly less active than
110                                              Phosphonates constitute a class of natural products that
111  ion bridging group, which can bind a second phosphonate containing species from solution to establis
112  of new somatostatin analogues modified with phosphonate-containing cross-bridged chelators for evalu
113 h strains were subsequently shown to produce phosphonate-containing exopolysaccharides (EPS), also kn
114       In this study, we immobilized a unique phosphonate-containing ligand onto mesoporous silica par
115 new paradigm for the in vivo construction of phosphonate-containing natural products that can be expl
116  were compared to those obtained for the bis-phosphonate counterparts.
117 9-deazapurines, leading to new deazapurine-8-phosphonate derivatives, which can be further modified a
118  can be exploited for the preparation of new phosphonate derivatives.
119 n measurements, the MLCT excited state(s) of phosphonate derivatized [Ru(bpy)2((4,4'-(OH)2PO)2bpy)](2
120       In this procedure, solution deposited, phosphonate derivatized metal complexes on metal oxide s
121                                              Phosphonate-derivatized catalysts and molecular assembli
122 n this Communication, covalently anchoring a phosphonate-derivatized complex, Fe(tebppmcn)Cl2 (1), to
123 hesis has been applied to the preparation of phosphonate-derivatized oligoproline assemblies containi
124 n nanocrystalline TiO2 functionalized with a phosphonate-derivatized Ru(II) polypyridyl chromophore.
125 port enhanced surface binding stability of a phosphonate-derivatized water oxidation catalyst over a
126           Wittig-Horner reaction of a chiral phosphonate derived from (S)-lactic acid and ring-closin
127    Previous studies on ligands equipped with phosphonate diester and ether H-bond acceptors were inco
128 e absolute value of EM for an intramolecular phosphonate diester H-bond is about 4 times lower than t
129 1 for the ether ligands, and KEM > 1 for the phosphonate diester ligands.
130                            Acceleration of H-phosphonate diester oxidation with iodine accompanied by
131 ries but similar H-bond strengths (amide and phosphonate diester), there is little correlation betwee
132 c activity was inhibited by an electrophilic phosphonate diester, consistent with a nucleophilic cata
133 ether-phenol interactions were compared with phosphonate diester-phenol interactions in a closely rel
134 uated several alkoxyalkyl acyclic nucleoside phosphonate diesters and identified octadecyloxyethyl be
135  configuration at the phosphorus center of H-phosphonate diesters and oxazaphospholidine oxides.
136 interactions with the enzyme and why neutral phosphonate diesters are more potent inhibitors than mon
137 nfigurations of phosphorothioate diesters, H-phosphonate diesters, and oxazaphospholidine oxides were
138 itrogen, protonated forms of dimethyl methyl phosphonate (DMMP) and methyl phosphonic acid (MPA) exhi
139 arbon monoxide, ethanol, and dimethyl methyl phosphonate (DMMP) are significantly higher than those u
140 ly detected three compounds, dimethyl methyl phosphonate (DMMP), cyclotrimethylene trinitramine (RDX)
141                                   FTY720 (S)-phosphonate does not induce beta-arrestin recruitment, s
142 mpared 177Lu-ethylene diamine tetramethylene phosphonate (EDTMP) with 153Sm-EDTMP for painful skeleta
143  double hydroxides, metal(iv) phosphates and phosphonates, especially zirconium, and zeolites.
144 ctively) despite the polar and acidic barium phosphonate ester backbone.
145           Chemical warfare agents containing phosphonate ester bonds are among the most toxic chemica
146 type associative displacement of the polymer phosphonate ester by a monomer as the rate-determining s
147 tic resolution of a 1:1 mixture of activated phosphonate ester diastereoisomers.
148                                   The use of phosphonate esters as linkers for the construction of MO
149 Intraperitoneal administration of FTY720 (S)-phosphonate every other day for 1 week in normal or bleo
150 organic frameworks (MOFs) based on zirconium phosphonates exhibit superior chemical stability suitabl
151                  Using the known affinity of phosphonates for bone minerals in a model system, two fa
152 tly shown to be superior to standard (99m)Tc-phosphonates for diagnosis and (153)Sm-ethylenediaminete
153 role in the biosynthesis of the antimalarial phosphonate FR-900098.
154 r-protective S1P analogs, FTY720, (S)-FTY720-phosphonate (fTyS), and SEW-2871, identified significant
155 troduced between the pyrimidine ring and the phosphonate function.
156        Fluorescent molecular probes based on phosphonate-functionalized porphyrin derivatives have be
157 rivatives, as well as (E)-beta-aryl-(enamido)phosphonates, giving ee values in excess of 99%, the hig
158 able in aqueous environments, in contrast to phosphonates grafted on silicon oxides.
159 e-1,4-diols and naphtha-1,4-diones bearing a phosphonate group at the 2-position and various (het)ary
160       These novel compounds contain a second phosphonate group attached to the ANP scaffold.
161 phate oxygen of dNTPs and two oxygens of the phosphonate group of the alpha-CNP chelate Mg(2+), mimic
162                    After introduction of the phosphonate group through classical reactions, the new i
163  the glyphosate binds to gamma-alumina via a phosphonate group, bridging the mineral surface and Zn.
164 ng the carboxylate group in peramivir with a phosphonate group, phosphono-peramivir (6a), the dehydra
165  an included water molecule and the linker's phosphonate group.
166 esis of an indenopyrazole scaffold bearing a phosphonate group.
167 ter-filled channels lined with free hydrogen phosphonate groups and gives a very low activation energ
168 n of hydrogen bonds between GLY carboxyl and phosphonate groups and protonated oxygen functions in hu
169 ere is evidence for a role for surface-bound phosphonate groups as proton acceptors.
170 tors resulting from the installation of four phosphonate groups at the upper rim of a calix[4]pyrrole
171 A is a bipyridine ligand functionalized with phosphonate groups for surface attachment to TiO2.
172  to a TiO(2) surface through carboxylate and phosphonate groups is demonstrated to be an effective me
173                      In these complexes, the phosphonate groups provide redox-potential leveling thro
174 r anchors a robust backbone and has hydrogen phosphonate groups that interact with the lattice water
175 r, azide, tertiary amines, alkyne, vinyl, or phosphonate groups were obtained in moderate to excellen
176 cting the N(9) atom of guanine to one of the phosphonate groups.
177  tetraethyl (2,3-dihydroxy-1,4-phenylene)bis(phosphonate) (H2 -DPC), has been used to prepare a serie
178 route to a 3'-fluoro-3'-deoxytetrose adenine phosphonate has been developed.
179 egard, synthesis of different kinds of amino phosphonates have been achieved via phosphonate substitu
180 large number of biologically important amino phosphonates have been synthesized, isolated (37 example
181                                              Phosphonates have emerged as an alternative for function
182 ructure confirmed the phosphorylation by the phosphonate head group of the active site serine, it als
183 IDA approach is demonstrated on sensing of a phosphonate herbicide glyphosate and other biologically
184                                              Phosphonate hydrolases have evolved to allow bacteria to
185            Oxidation of 30 to sulfone 31 and phosphonate hydrolysis completed the synthesis of 3 in 1
186 he (R)-BINOL Fc phosphate gave Fc-rearranged phosphonate in 91% de.
187 methyl methylphosphonate, diisopropyl methyl phosphonate in positive polarity and carbon dioxide, sul
188 ates into the corresponding gamma-keto allyl phosphonates in 70-93% yields is described herein.
189 tic strategy for "stable isotope labeling of phosphonates in extract" (SILPE) that facilitates their
190 anes, leading to the corresponding propargyl phosphonates in good to excellent yields.
191 g a palladium or nickel catalyst giving aryl phosphonates in good to excellent yields.
192 c and cyclic amines to the alpha-position of phosphonates in one step.
193  rapid access to cyclic tertiary alpha-amino phosphonates in one-pot procedure under additive-free mi
194 c purification and that produces the dimer H-phosphonates in up to 44% yield in less than three days
195 tforward access to valuable mixed alkyl aryl phosphonates in very good yields and near perfect select
196  classes of phosphorus-containing compounds, phosphonates, in particular.
197 ide substrate sequences to develop selective phosphonate inhibitors with the structure Ac-peptidyl(P)
198  as 20 for four metal(IV) pillared phosphate phosphonate inorganic organic hybrid ion exchange materi
199  phosphonylation and (ii) carbanion-mediated phosphonate intramolecular cyclization (denoted CPIC) wa
200                                   FTY720 (S)-phosphonate is a promising barrier-promoting agent that
201                           Synthesis of amino phosphonates is more important owing to their significan
202  with H2(17)O to yield a mixture of cyclic H-phosphonates labeled with (17)O and (18)O.
203 ound with N ligand as eta(2) bound motifs or phosphonate ligand as a monodentate, as well as on tetra
204                                    The N and phosphonate ligand-functionalized MMSNs hold promise as
205 stituted with a C(3)-symmetric tris(hydrogen phosphonate) ligand in a proton conducting metal-organic
206 evalonate, the alcohol of HMBPP, and alkenyl phosphonates-likely stimulate differently.
207 gomers tethered to graphene through covalent phosphonate linkages.
208                                   FTY720 (S)-phosphonate maintains endothelial sphingosine 1-phosphat
209 o GlgEI-V279S complexed with alpha-maltose-C-phosphonate (MCP), a non-hydrolyzable substrate analogue
210                                  We used the phosphonate methyltransferase DhpI involved in dehydroph
211 el approach in vaccine adjuvant design using phosphonate modification to afford adsorption of small m
212                                    Using the phosphonate moiety as an efficient trans-directing group
213                                          The phosphonate moiety in both phosphonoglycans was shown to
214     Here, we show that the conversion of the phosphonate moiety into acyloxymethyl and alkoxycarbonyl
215                            Additionally, the phosphonate moiety represents a source of inorganic phos
216 rotease inhibitor (PI) with a unique diethyl-phosphonate moiety.
217                                Attaching the phosphonated molecular catalyst [Re(I)Br(bpy)(CO)3](0) t
218 e polymer films are similar to those for the phosphonated molecular catalyst on metal oxide electrode
219 ommon in nature, suggesting that the role of phosphonate molecules in the biosphere may be more impor
220               An enigmatic pool of dissolved phosphonate molecules, with phosphorus in the +3 oxidati
221                                              Phosphonates, molecules containing direct carbon-phospho
222                                          The phosphonate monoalkyl esters (6b, 6c, 7b, 7c, 8b, and 8c
223                                          The phosphonate monoalkyl esters are stable in buffer soluti
224 uous members of this superfamily, namely the phosphonate monoester hydrolases from Burkholderia caryo
225 aphosphonate (CALF-25), which contains a new phosphonate monoester ligand, was synthesized through a
226             Recovery efficiencies for methyl phosphonate (MPA), nerve agent degradate, and ethylhydro
227  unreactive carbon-phosphorus bond in methyl phosphonate (MPn), but the biological or terrestrial sou
228 ophos biosynthesis to methylate a variety of phosphonate natural products in crude spent medium with
229 dinal FLARE studies in mice demonstrate that phosphonated near-infrared fluorophores remain stable in
230 inct surface charges, were synthesized using phosphonate (neutral), ammonium (cationic), and carboxyl
231                                   Nucleoside phosphonates (NP) are good inhibitors of EcXGPRT and EcH
232 y-2'-fluoro- and 3'-C-ethynyl L-threose 3'-O-phosphonate nucleosides.
233             The development of phosphate and phosphonate nucleotide prodrugs has led to important dru
234 described that involves the coupling of 3'-H-phosphonates of protected dinucleoside phosphates and or
235 A arms via solution-phase syntheses, using H-phosphonates of protected dinucleoside phosphates.
236 tack of the terminal oxygen from the dialkyl phosphonate on the silicon atom in bromotrimethylsilane.
237 is and (153)Sm-ethylenediaminetetramethylene phosphonate or (89)SrCl2 for therapy.
238 tron donor, the dyad linked to Pt-TiO2 via a phosphonate or carboxylate attachment shows excellent li
239 a series of pyrrolo[1,2-a]quinolines bearing phosphonate or phosphine oxide moieties is presented.
240 TP binding through a carboxylate oxygen, two phosphonate oxygens, and base-pairing with the template.
241                  The developed dual function phosphonated p1TAM-D probe provides a unique tool for in
242                               Perfluoroalkyl phosphonates (PFPAs) and perfluoroalkyl phosphinates (PF
243 l phosphate esters (PAPs) and perfluoroalkyl phosphonates (PFPAs).
244 minophosphonates at the CH3O group to induce phosphonate-phosphinate rearrangements.
245 , boronates, germanes, stannanes, pivalates, phosphonates, phthalimides, and tosylates from the corre
246                                   FTY720 (S)-phosphonate potently increases human pulmonary endotheli
247 r to examine the occurrence and abundance of phosphonate-producing organisms.
248 e than 50 y ago, the extent and diversity of phosphonate production in nature remains poorly characte
249 , which ultimately leads to decomposition to phosphonate products.
250 ic activation of alkynylphosphine oxides and phosphonates provides a novel approach to the synthesis
251              Reduction of the functionalized phosphonates provides access to novel primary and second
252 ynamic kinetic resolution of alpha-aryl acyl phosphonates, providing beta-stereogenic alpha-hydroxy p
253                          This mild lithiated phosphonate reagent allows the synthesis of functionaliz
254 ric hydroxymethylphosphonamidates (phosphate-phosphonate rearrangement).
255                           The isolated tetra-phosphonate receptors display either three (iooo) or fou
256 ed asymmetric transfer hydrogenation of acyl phosphonates: reduction proceeded from the opposite face
257 he details of how this machinery catabolizes phosphonates remain unknown.
258 port that phosphinates as well as monomethyl phosphonates represent excellent isosters, when introduc
259               In contrast to analogous tetra-phosphonate resorcin[4]arene cavitands, the 14-membered
260 at chemical group at the gamma-carbon of the phosphonate ring strongly impacts the inhibitory efficie
261 etics were carried out in combination with a phosphonated Ru(II) tris(bipyridine) dye (RuP) in homoge
262 poxidase HppE converts (S)-2-hydroxypropyl-1-phosphonate (S-HPP) to the antibiotic fosfomycin [(1R,2S
263 esent the first well-defined degradable poly(phosphonate)s with adjustable UCST.
264 ts that these seven-membered monocyclic enol-phosphonates should provide useful leads for the develop
265  acute lung injury in mice, while FTY720 (S)-phosphonate significantly decreases lung leak and inflam
266                  This commercially available phosphonate smoothly reacts with a fluoride ion to liber
267 of amino phosphonates have been achieved via phosphonate substituted carbene insertion into the N-H b
268 d approximately 90% loading efficiency using phosphonate surface chemistry.
269         It was attached to the TiO2 shell by phosphonate-surface oxide binding.
270     We illustrate its utility by purifying a phosphonate that led to the identification of the fosfaz
271 nd obtain single crystals of three zirconium phosphonates that are suitable for structural analysis.
272 valuable, densely functionalized fluorinated phosphonates that takes advantage of (i) a Clostridial e
273 sed nucleosides, nucleotides, and nucleoside phosphonates, their stereoisomers, and their close analo
274 phates arising from 1,4-addition followed by phosphonate to phosphate rearrangement.
275 ) TLR7 agonists are chemically modified with phosphonates to allow adsorption onto aluminum hydroxide
276 echanism of the addition of nitroalkanes and phosphonates to benzaldehyde catalyzed by a chiral phosp
277 nthesized N-terminally biotinylated peptidyl phosphonates to identify the PR3 in complex biological s
278 ins that are essential for the conversion of phosphonates to phosphate and that the proteins encoded
279 d ketones, esters, sulfones, sulfoxides, and phosphonates to yield the corresponding adducts in good
280                    Gene transcripts encoding phosphonate transport and hydrolysis proteins are upregu
281 ive nucleases, phosphotriesterases, putative phosphonate transporters and outer membrane proteins.
282 re it is shown that the recently synthesized phosphonated trityl radical possesses long relaxation ti
283  the synthesis of a deuterated derivative of phosphonated trityl radical, pTAM.
284 criptional regulator that may be involved in phosphonate utilization, and STM3846 encodes a retron re
285 ynthesis route to alpha-L-threose nucleoside phosphonates via 2-O and 3-O selectively protected L-thr
286                                A spirocyclic phosphonate was identified as the optimal ring system fo
287 ly selective catalytic hydrogenation of acyl phosphonates was utilized in the dynamic kinetic resolut
288 nd improved gene silencing ability of borane phosphonates, we have focused our research on the relati
289 itionally, orthophosphate, pyrophosphate and phosphonates were also detected.
290  through classical reactions, the new indole phosphonates were found to undergo the desired condensat
291 e reduced, and 3-azabicyclo[3.1.0]hexan-1-yl phosphonates were obtained.
292             3-Azabicyclo[3.1.0]hex-2-en-1-yl phosphonates were prepared in a five-step reaction route
293 lly hindered aldehydes, (alpha-fluoroallenyl)phosphonates were the solely isolated products.
294                              The unsaturated phosphonates were utilized as Hauser acceptors successfu
295 ex catalyses C-P bond cleavage of many alkyl phosphonates when the environmental concentration of pho
296 Instead, DeltaAla(P) is hydrolyzed to acetyl phosphonate, which is converted to Ala(P) by a second py
297        Our initial strategy was to cover the phosphonate with hydrophobic moieties such as pivaloylox
298 f the intermediate (3,3-dibromodifluoroallyl)phosphonate with potassium tert-butoxide gave rise to th
299 llows the direct oxygen-arylation of dialkyl phosphonates with diaryliodonium salts.
300 thesis of four l-2'-deoxy-threose nucleoside phosphonates with the natural nucleobases adenine, thymi
301 r-catalyzed electrophilic amination of alpha-phosphonate zincates with O-acyl hydroxylamines.

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