ライフサイエンスコーパス: asymmetric synthesis

1 significant gap in the methods for catalytic asymmetric synthesis.

2 and is of general interest in the context of asymmetric synthesis.

3 on metals has been proven to be effective in asymmetric synthesis.

4 ent to a Merrifield-Cl resin and its use for asymmetric synthesis.

5 re compounds despite many recent advances in asymmetric synthesis.

6 als, nonlinear optics, chirality studies and asymmetric synthesis.

7 luding ultrasensitive chiral recognition and asymmetric synthesis.

8 ly, highlighting the versatility of EREDs in asymmetric synthesis.

9 arious topics of conformational analysis and asymmetric synthesis.

10 sis is now recognized as the third pillar of asymmetric synthesis.

11 dely studied and utilised transformations in asymmetric synthesis.

12 s ranging from plasmonic sensors to absolute asymmetric synthesis.

13 another fundamentally important strategy for asymmetric synthesis.

14 ater examination of such archaeal enzymes in asymmetric synthesis.

15 the development of ligands and catalysts for asymmetric synthesis.

16 hasis on those applications of importance in asymmetric synthesis.

17 genic centers in amphidinolide W were set by asymmetric synthesis.

18 oselective manner are attractive methods for asymmetric synthesis.

19 al pool" of potential starting materials for asymmetric synthesis.

20 imit the application of oxidoreductase-based asymmetric synthesis.

21 efined 1,3-dienes, and ligands for catalytic asymmetric synthesis.

22 ed a fundamental advance in this area within asymmetric synthesis.

23 trophiles are emerging as a powerful tool in asymmetric synthesis.

24 of their use in both kinetic resolution and asymmetric synthesis.

25 s chiral, making them attractive targets for asymmetric synthesis.

26 on of prochiral olefins is a key reaction in asymmetric synthesis.

27 important role in the development of modern asymmetric synthesis.

28 lenging and time consuming using traditional asymmetric synthesis.

29 porated as chiral auxiliaries and ligands in asymmetric synthesis.

30 established them as an important target for asymmetric synthesis.

31 atives are widely used as organocatalysts in asymmetric synthesis.

32 l boronic esters are useful intermediates in asymmetric synthesis.

33 of 1-alkenes is high enough to be useful for asymmetric synthesis.

34 ctive peptides as well as chiral inducers in asymmetric synthesis.

35 Enzymes are increasingly explored for use in asymmetric synthesis(1-3), but their applications are ge

36 these two obstacles to oxidoreductase-based asymmetric synthesis, a biphasic bioelectrocatalytic sys

37 An asymmetric synthesis, amenable to library preparation of

38 uted acyclic olefins remains the pinnacle of asymmetric synthesis and an unsolved challenge.

39 tuted pyran derivatives, we have carried out asymmetric synthesis and biological characterization of

40 y increase the enantiomeric excess of direct asymmetric synthesis and catalysis.

41 The asymmetric synthesis and evaluation of the two diastereo

42 atalysis, chiral symmetry breaking, absolute asymmetric synthesis and its role in the origin of biolo

43 with potential application in fields such as asymmetric synthesis and organic electronics.

44 We have previously described the asymmetric synthesis and revision of the relative config

45 ysts and selective stationary phases for the asymmetric synthesis and separation of chiral compounds,

46 ase from this Sulfolobus hyperthermophile to asymmetric synthesis and the first example of a DYRKR wi

47 ocatalysis as a rationalization for absolute asymmetric synthesis and the origin of the homochirality

48 Chiral organometallic reagents are useful in asymmetric synthesis, and configurational stability of t

49 e analogues of Cyclophostin were obtained by asymmetric synthesis, and their absolute configurations

50 ate ligands, prepared in enantiopure form by asymmetric synthesis, and their circular dichroic and ot

51 s are among the most sought after targets in asymmetric synthesis, and therefore, their chemical char

52 other derivatives, play an important role in asymmetric synthesis as versatile auxiliaries, ligands,

53 ligands could enable their modification for asymmetric synthesis, as demonstrated in this study.

54 Deracemization is an attractive strategy for asymmetric synthesis, but intrinsic energetic challenges

55 es, respectively, are important compounds in asymmetric synthesis, crop protection and medicinal chem

56 Despite many advances in asymmetric synthesis, developing general and practical s

57 ber of excellent synthetic methods for their asymmetric synthesis, few effective enzymatic tools exis

58 An asymmetric synthesis for the preparation of nonracemic a

59 Asymmetric synthesis, in which chiral organocatalysts or

60 development of efficient approaches to their asymmetric synthesis is an important endeavor.

61 Asymmetric synthesis is carried out using (-)-sparteine-

62 pha-haloalkyl)boronic esters as reagents for asymmetric synthesis is reviewed.

63 ailability in an optically pure form through asymmetric synthesis is urgently needed.

64 of the most useful and versatile methods for asymmetric synthesis known in organometallic chemistry.

65 ed by total synthesis, using efficient novel asymmetric synthesis methods for the preparation of two

66 aboratories with a focus on fragment design, asymmetric synthesis, new synthetic reagents, and the me

67 chemistry has been demonstrated in a concise asymmetric synthesis of (+)-beta-cuparenone.

68 l 26, the key aminocyclitol component for an asymmetric synthesis of (+)-carbapentostatin.

69 Complete details of an asymmetric synthesis of (+)-isatisine A (1) are describe

70 An eight-step asymmetric synthesis of (+)-marineosin A is described.

71 ds of this type, demonstrated with a concise asymmetric synthesis of (+)-roseophilin (3).

72 The asymmetric synthesis of (-)-(R)-pyrrolam A was achieved

73 ed in 8 steps and 18% overall yield, and the asymmetric synthesis of (-)-(R,R)-hopromine was achieved

74 The asymmetric synthesis of (-)-(S,S)-homaline was achieved

75 The asymmetric synthesis of (-)-7-epicylindrospermopsin defi

76 ncovered, allowing us to develop a five-step asymmetric synthesis of (-)-arborisidine, an enantiomer

77 he morphine alkaloids has been applied in an asymmetric synthesis of (-)-dihydrocodeinone.

78 A concise asymmetric synthesis of (-)-halenaquinone is described.

79 In addition, the first asymmetric synthesis of (-)-marcfortine C is described.

80 The asymmetric synthesis of (-)-N-methylwelwitindolinone B i

81 The application of this method to a concise asymmetric synthesis of (-)-tylophorine is also discusse

82 The asymmetric synthesis of (2R,3R)-3-methyl-3-hydroxypipeco

83 overy project, we needed to develop a robust asymmetric synthesis of (2S,5S)-5-substituted-azepane-2-

84 nal alkynes to aldehydes, allowing the first asymmetric synthesis of (3R,4E,16E,18R)-icosa-4,16-diene

85 Furthermore, the asymmetric synthesis of (P)-2 through a dynamic thermody

86 An improved asymmetric synthesis of (S)-(+)-2,4,6-trimethylphenylsul

87 We describe an original asymmetric synthesis of (S)-alpha-methylDOPA proceeding

88 Via this method, an asymmetric synthesis of (S)-cathinone hydrochloride (er

89 An asymmetric synthesis of (S)-gamma-fluoroleucine ethyl es

90 The key step for the asymmetric synthesis of (S,E)-3-(tert-butyldimethylsilyl

91 this methodology is exemplified in a concise asymmetric synthesis of (S,S)-3-deoxy-3-fluorosafingol.

92 ationally stable at low temperature, and the asymmetric synthesis of 1,1-disubstituted tetrahydroisoq

93 In this context, the asymmetric synthesis of 1,2-diamines through amination o

94 The first asymmetric synthesis of 1,2-dioxolane-3-acetic acids is

95 An efficient asymmetric synthesis of 11-beta-HSD inhibitor 1 has been

96 viability of this approach for the catalytic asymmetric synthesis of 2,3-dihydrobenzofurans and indan

97 A novel and convenient one-pot asymmetric synthesis of 2- and 2,3-disubstituted tetrahy

98 alkaloid-mediated Neber reaction allows the asymmetric synthesis of 2-(tetrazol-5-yl)-2H-azirines.

99 olution has been studied as a method for the asymmetric synthesis of 2-substituted pyrrolidines.

100 bromoaryl ketones has been developed for the asymmetric synthesis of 3-methyleneindanes bearing a ter

101 We describe herein the total asymmetric synthesis of 3-methylphosphonate, 3-(monofluo

102 Our work has opened a new route toward the asymmetric synthesis of 7-(alkyl or aryl)-6-oxa-2-azabic

103 ly enantio- and diastereoselective catalytic asymmetric synthesis of a beta-lactam.

104 odology was successfully implemented for the asymmetric synthesis of a C7-C17 fragment of swinholide

105 The development of the first asymmetric synthesis of a chiral anthraquinone dimer is

106 formylation were utilized for the practical asymmetric synthesis of a chiral quaternary FLAP inhibit

107 Key transformations include an asymmetric synthesis of a chiral tertiary alcohol via Sh

108 A short, asymmetric synthesis of a cyclic N-acyl O-amino phenol d

109 This work has culminated in the asymmetric synthesis of a dimer bearing the complete car

110 An eight step, asymmetric synthesis of a dimeric thiaspirane nuphar alk

111 Described herein is the asymmetric synthesis of a functionalized, trioxadecalin

112 A practical asymmetric synthesis of a highly substituted N-acylpyrro

113 ing hydroxyl group direction facilitated the asymmetric synthesis of a key chiral quinone monoepoxide

114 This approach was used to develop the first asymmetric synthesis of a key intermediate in the synthe

115 A practical asymmetric synthesis of a novel aminopiperidine-fused im

116 An efficient asymmetric synthesis of a selective estrogen receptor mo

117 The catalytic asymmetric synthesis of a series of tertiary alpha-aryl

118 The asymmetric synthesis of a series of these compounds inco

119 e have developed a one-pot procedure for the asymmetric synthesis of a synthetically challenging clas

120 The method has been applied to the asymmetric synthesis of a triarylmethane-based anti-canc

121 amine reagent that has enabled the reliable asymmetric synthesis of a very broad range of different

122 and general route has been developed for the asymmetric synthesis of a wide family of 3-methyl-3,4-di

123 ock chemical isobutyric acid has enabled the asymmetric synthesis of a wide variety of polyketides.

124 An asymmetric synthesis of alkaloid (-)-205B, a tricyclic m

125 This Review summarizes strategies for the asymmetric synthesis of alkyl boronic esters, from the s

126 The catalytic asymmetric synthesis of alkyl fluorides, particularly al

127 The de novo asymmetric synthesis of all possible stereoisomers of tw

128 rategy has been used to rapidly complete the asymmetric synthesis of alliacol A.

129 The first asymmetric synthesis of alpha,alpha-disubstituted allyli

130 eric streptavidin (mSav) Rh(III) ArM permits asymmetric synthesis of alpha,beta-unsaturated-delta-lac

131 A new method for the asymmetric synthesis of alpha-alkyl-alpha,beta-dihydroxy

132 Allylating agents were explored for the asymmetric synthesis of alpha-allyl-alpha-aryl alpha-ami

133 An efficient asymmetric synthesis of alpha-amino allylsilane derivati

134 A general and efficient new method for the asymmetric synthesis of alpha-amino boronate esters has

135 e and extensively used intermediates for the asymmetric synthesis of amines.

136 Three steps are commonly applied to the asymmetric synthesis of amines: (i) condensation of tBS

137 A general, asymmetric synthesis of amino acid derivatives is report

138 Zr-C bonds of zirconaaziridines leads to the asymmetric synthesis of amino acid methyl esters.

139 A concise asymmetric synthesis of an 11beta-HSD-1 inhibitor has be

140 ts are directly utilized in a very efficient asymmetric synthesis of an antiviral carbocyclic nucleos

141 This represents the only example of an asymmetric synthesis of an organic urea via C-H activati

142 26 incorporating the backbone ester was the asymmetric synthesis of an orthogonally protected l-thre

143 An asymmetric synthesis of anti-aldol segments via a nonald

144 -nor stemmadenine natural product, the first asymmetric synthesis of any member of this natural produ

145 Complete details of an asymmetric synthesis of apicularen (1) are described.

146 ed by the sulfoxides may be exploited in the asymmetric synthesis of atropisomers, including the liga

147 An asymmetric synthesis of aza analogues of the ABC ring sy

148 ure sulfinimines, has been developed for the asymmetric synthesis of aziridine 2-phosphonates.

149 The study culminates in the asymmetric synthesis of backbone-substituted scaffolds s

150 A highly divergent de novo asymmetric synthesis of benzyl alpha-6-deoxyaltropyranos

151 lt effects on conformational equilibria, (7) asymmetric synthesis of beta-amino acids, and (8) asymme

152 es of enone sugars as reactive dienophile in asymmetric synthesis of bicyclic adduct through Diels-Al

153 A general method is described for asymmetric synthesis of both syn- and anti-1,3-amino alc

154 A general organocatalytic strategy for asymmetric synthesis of both syn/anti-1,3-diamines has b

155 While the developed asymmetric synthesis of C10 substituted anthrones is ant

156 This work reports the catalytic asymmetric synthesis of chiral 1,2,5-thiadiazolidine-1,1

157 tion, which makes this method useful for the asymmetric synthesis of chiral beta-amino ketones.

158 P-OAc](2) is a broadly useful method for the asymmetric synthesis of chiral branched allylic esters.

159 rting ligand, this dipole was applied to the asymmetric synthesis of chiral cyclohexanones via a cata

160 In the past decade, the asymmetric synthesis of chiral nonracemic isoquinoline a

161 reaction will open new possibilities in the asymmetric synthesis of chiral peroxides.

162 makes this method practically useful for the asymmetric synthesis of chiral propargyl amines.

163 The asymmetric synthesis of cis-7-methoxycalamenene 1 has be

164 A chiral Koga amine-controlled asymmetric synthesis of cis-gamma-lactones through a for

165 e elaboration of these structures toward the asymmetric synthesis of complex aminocyclopentitols and

166 ent transformations as shown in an efficient asymmetric synthesis of coniine.

167 A full account of our efforts toward an asymmetric synthesis of crisamicin A are presented.

168 amides are valuable building blocks for the asymmetric synthesis of cyclic beta-amino acid derivativ

169 reb amides, valuable building blocks for the asymmetric synthesis of cyclic beta-amino acids derivati

170 A general and efficient asymmetric synthesis of cyclic indoline aminals was deve

171 exploit a carbene transfer mechanism for the asymmetric synthesis of cyclopropane-fused-delta-lactone

172 ne ([(11)C] L-Met), we developed an enhanced asymmetric synthesis of D-[methyl-(11)C]methionine ([(11

173 An asymmetric synthesis of d-ribo-phytosphingosine (1) was

174 t one-pot [4 + 1]-annulation process for the asymmetric synthesis of densely functionalized pyrrolidi

175 An efficient asymmetric synthesis of dipyridyl TRPV3 antagonist 1 is

176 In addition, a new synthetic scheme for the asymmetric synthesis of disubstituted cis-(6-benzhydryl-

177 The asymmetric synthesis of dragmacidin D (1) was completed

178 We have accomplished an asymmetric synthesis of each enantiomer of 4,4-difluorog

179 A new and general method for asymmetric synthesis of either enantiomer of 2-substitut

180 First, an asymmetric synthesis of enantioenriched bromo(trimethyls

181 le three-component Strecker reaction for the asymmetric synthesis of enantiopure alpha-arylglycines h

182 The asymmetric synthesis of ent-ketorfanol from simple and c

183 In asymmetric synthesis of fluorinated compounds, significa

184 th the use of this novel chiral complex, the asymmetric synthesis of Fmoc-Gla(O(t)Bu)(2)-OH was compl

185 The asymmetric synthesis of functionalized nitrocyclopropane

186 using the recovered sulfoximine (+)-1j in an asymmetric synthesis of FXa inhibitor F.

187 A new and practical method for the asymmetric synthesis of gamma-amino acids from beta,gamm

188 The first direct catalytic asymmetric synthesis of gamma-amino ketones was realized

189 e report that RA95.5-8 variants catalyze the asymmetric synthesis of gamma-nitroketones via two alter

190 An asymmetric synthesis of gem-difluoromethylenated dihydro

191 Alternatively, a convenient asymmetric synthesis of gem-difluoromethylenated linear

192 An asymmetric synthesis of gem-difluoromethylenated linear

193 nt strategy has been developed for the rapid asymmetric synthesis of gem-dimethyl and spirocyclopropy

194 herein are one-pot methods for the catalytic asymmetric synthesis of halocyclopropyl alcohols with up

195 s the centerpiece process for the successful asymmetric synthesis of hamigerans A (2), B (3), and E (

196 An asymmetric synthesis of HCV NS5B nucleoside polymerase i

197 A general method for asymmetric synthesis of heteroaryl-containing cycles via

198 ese redox-neutral transformations enable the asymmetric synthesis of highly substituted polycyclic ri

199 In this article we describe a new asymmetric synthesis of highly substituted tetrahydrofur

200 In budding yeast, the asymmetric synthesis of HO 1 (ASH1) pre-mRNP originates

201 A catalytic asymmetric synthesis of imidazolines with a fully substi

202 Complete details of an asymmetric synthesis of leucascandrolide A (1) are descr

203 otocol was illustrated with a concise formal asymmetric synthesis of marine alkaloid pseudodistomin B

204 Herein we describe the first asymmetric synthesis of methylenetetrahydrofurans utiliz

205 A practical asymmetric synthesis of N-tert-butyl disubstituted pyrro

206 alization process that has been used for the asymmetric synthesis of natural products and pharmaceuti

207 It is further extended to asymmetric synthesis of NH-free 3,4-dihydrospiro[benzo[b

208 ew and concise routes were developed for the asymmetric synthesis of nitrogen-heterocycles such as py

209 The first asymmetric synthesis of novel, potent photoreactive gamm

210 A straightforward, two-step asymmetric synthesis of octahydroindoles has been develo

211 A new approach toward the asymmetric synthesis of optically active trifluoromethyl

212 pplied without modification to the catalytic asymmetric synthesis of other families of fluorinated or

213 ow Merck) jointly developed a chemoenzymatic asymmetric synthesis of P2 where the net reaction was an

214 A program directed toward an asymmetric synthesis of pestalotiopsin A is described.

215 We report a catalytic asymmetric synthesis of piperidines through [4 + 2] cycl

216 employed as a platform to develop a concise asymmetric synthesis of platensimycin.

217 The asymmetric synthesis of polycyclic compounds from optica

218 This is a very efficient method for the asymmetric synthesis of polycyclic compounds.

219 sent a simple and robust methodology for the asymmetric synthesis of pyranose derivatives with talo-

220 coupling process has been developed for the asymmetric synthesis of QUINAP and its derivatives in hi

221 re (-40 or -60 degrees C), which enables the asymmetric synthesis of racemization-prone alpha-arylket

222 A full account of an asymmetric synthesis of reblastatin (1) and the first to

223 This methodology was applied to the asymmetric synthesis of rivastigmine and the formal synt

224 has been developed and applied to the total asymmetric synthesis of steroids 19-hydroxysarmentogenin

225 A general asymmetric synthesis of substituted cycloalkyl[b]indoles

226 l provide a synthetic entry into the de novo asymmetric synthesis of such structures.

227 s has been designed and demonstrated for the asymmetric synthesis of sulfinamides using quinine as au

228 lopentenones are important precursors in the asymmetric synthesis of target chiral molecules.

229 A one-pot method for the asymmetric synthesis of tert-butanesulfinyl-protected am

230 ular hydroamination strategy facilitates the asymmetric synthesis of tetrahydroisoquinolines and medi

231 A short, asymmetric synthesis of the 1,2,9,9a-tetrahydrocycloprop

232 [reaction: see text] The asymmetric synthesis of the 2,3,6-trisubstituted piperid

233 ey features of the synthetic approach are an asymmetric synthesis of the 2-alkynyl piperazine core vi

234 The total asymmetric synthesis of the 5-methylenephosphonate (MP)

235 The asymmetric synthesis of the antibacterial natural produc

236 An asymmetric synthesis of the antibiotic (+)-negamycin (1)

237 ns into cell cycle checkpoint inhibitors, an asymmetric synthesis of the antimitotic natural product,

238 Asymmetric synthesis of the biologically active xanthone

239 n of a 1,1-diaryl olefin enables a four-step asymmetric synthesis of the C2-symmetric phenylethyl imi

240 The asymmetric synthesis of the core structure of leucoscept

241 An asymmetric synthesis of the cytotoxic natural product, (

242 rmational scrambling was observed during the asymmetric synthesis of the diastereo- and enantiopure o

243 We report the asymmetric synthesis of the gamma-amino acid (1R,2R)-2-a

244 nes or trienes and was used in the catalytic asymmetric synthesis of the gamma-secretase modulator JN

245 n deracemization reactions for the efficient asymmetric synthesis of the generic active pharmaceutica

246 new method enables the general and efficient asymmetric synthesis of the important class of alpha-bra

247 successful synthetic strategy are a concise asymmetric synthesis of the key building block (3R,4E)-3

248 An asymmetric synthesis of the major metabolite of the calc

249 First asymmetric synthesis of the marine natural product (-)-g

250 new reaction is illustrated in the catalytic asymmetric synthesis of the Martinelline alkaloids chrom

251 ey benzofuran intermediate enabled the first asymmetric synthesis of the natural enantiomer of maoecr

252 is methodology has been demonstrated for the asymmetric synthesis of the natural product 2-deoxy-D-ri

253 tic methodology provides a new route for the asymmetric synthesis of the other potent hexahydrocannab

254 An asymmetric synthesis of the paralytic shellfish poison (

255 This paper describes an asymmetric synthesis of the potent substance P receptor

256 A highly convergent asymmetric synthesis of the protein phosphatase inhibito

257 An asymmetric synthesis of the quinone epoxide dimer (+)-to

258 , ultimately leading to the completion of an asymmetric synthesis of the target compound with a high

259 A concise total asymmetric synthesis of the tetrahydronaphthyridine alka

260 A divergent asymmetric synthesis of the titled iminosugars has been

261 ication has long been considered to occur by asymmetric synthesis of the two strands, starting at the

262 l assignment of this molecule, including the asymmetric synthesis of the unique beta-hydroxy acid moi

263 ights of the synthesis include an efficient, asymmetric synthesis of the western hemisphere; the ster

264 nd we have successfully developed a scalable asymmetric synthesis of these derivatives that starts wi

265 A new asymmetric synthesis of these marine sponge metabolites

266 and represents valuable methodology for the asymmetric synthesis of this important heterocyclic ring

267 to a range of bioactive compounds; however, asymmetric synthesis of this motif is complicated due to

268 A noticeable growth has been observed in the asymmetric synthesis of THPs using small organic molecul

269 We report an efficient strategy for the asymmetric synthesis of trifluoromethyl-substituted cycl

270 titutes a unique, convergent approach to the asymmetric synthesis of valuable carbonyl compounds from

271 Asymmetric synthesis of value-added targets and other re

272 The diastereoselective asymmetric synthesis of vicinal all-carbon-atom quaterna

273 A novel synthetic strategy toward the asymmetric synthesis of vicinal diols bearing a tertiary

274 We present an asymmetric synthesis of wickerol A (1) that is based on

275 tions of chiral oxazolidinone auxiliaries in asymmetric synthesis operate through a common set of ste

276 n its enantiopure form either through direct asymmetric synthesis or chiral chromatography.

277 of enantioenriched helicenes, either from an asymmetric synthesis or from a chiral separation.

278 Alternatives to asymmetric synthesis or kinetic resolution include dynam

279 e the identification of new biocatalysts for asymmetric synthesis remains both a challenge and a rate

280 very useful rhodium carboxylate catalyst for asymmetric synthesis, Rh(2)(DOSP)(4), shows slightly slo

281 eta-(1-->3)-glucans have been accessed by an asymmetric synthesis route featuring an iterative double

282 ate-stage epimerization, not a failure of an asymmetric synthesis step, caused the formation of minor

283 effort has been directed towards developing asymmetric synthesis strategies that yield product molec

284 nvergent catalysis is an important subset of asymmetric synthesis that encompasses stereoablative tra

285 fford a solid-supported chiral auxiliary for asymmetric synthesis that takes approximately 7 d to pre

286 Despite recent advances of asymmetric synthesis, the preparation of enantiomericall

287 rison to the most widely used auxiliaries in asymmetric synthesis, the simplicity and practicality of

288 ll describe their synthesis, resolution, and asymmetric synthesis, their structural features, electro

289 tial to act as a new enabling technology for asymmetric synthesis to replace some aspects of conventi

290 The control of asymmetric synthesis tools represents a major challenge,

291 ed for the first time in this report, and by asymmetric synthesis using a method formally demonstrate

292 ere obtained through a powerful and flexible asymmetric synthesis using pseudoephedrine as a chiral a

293 including chemical and enzymatic resolution, asymmetric synthesis via Pauson-Khand reaction, Nazarov

294 An asymmetric synthesis was developed for the production of

295 ional C4 secondary methyl building blocks in asymmetric synthesis, we have developed a mole-scale, tw

296 d chiral ligands and organocatalysts used in asymmetric synthesis, which have been published within t

297 ality" has been proven as a powerful tool in asymmetric synthesis, while flow chemistry has begun its

298 ations of these intermediates as partners in asymmetric synthesis will be discussed including methods

299 box for chiral amine synthesis as they allow asymmetric synthesis with quantitative yields and high e

300 extensively to develop powerful methods for asymmetric synthesis, with applications spanning from ph