ライフサイエンスコーパス: conjugated polymer

1 er figure of merit ZT, as compared with neat conjugated polymer.

2 ly(p-phenyleneethynylene) (PPE), a prominent conjugated polymer.

3 articles and may further repair photodamaged conjugated polymer.

4 veness as a side chain in an isoindigo-based conjugated polymer.

5 f the first dithienogermole (DTG)-containing conjugated polymer.

6 ution-processable n-type thermoelectric (TE) conjugated polymers.

7 c contacts universally with various scalable conjugated polymers.

8 property that dictates the applicability of conjugated polymers.

9 nations by polymer residues and high cost of conjugated polymers.

10 ote dynamic non-covalent crosslinking of the conjugated polymers.

11 nd decreasing the overall production cost of conjugated polymers.

12 first metal-free multicomponent approach to conjugated polymers.

13 ration of high-molecular-weight, defect-free conjugated polymers.

14 entally benign method for the preparation of conjugated polymers.

15 red as an organic semiconductor prototype of conjugated polymers.

16 characteristics of single strands of common conjugated polymers.

17 n existence of a single-chain glass state in conjugated polymers.

18 nked frameworks, amorphous analogues, and 1D conjugated polymers.

19 etals, metal oxides, metal chalcogenides and conjugated polymers.

20 means of tuning the electronic properties of conjugated polymers.

21 ecular-design guidelines for 'disorder-free' conjugated polymers.

22 ertical direction for both homo- and blended conjugated polymers.

23 of catalyst design for the synthesis of new conjugated polymers.

24 among the highest values for unipolar n-type conjugated polymers.

25 ilding block for the preparation of cationic conjugated polymers.

26 ast to the monolayer ordering found in other conjugated polymers.

27 ythiophenes, providing high-molecular-weight conjugated polymers.

28 hysical properties of mechanically generated conjugated polymers.

29 yst and LiOH, yielding high molecular weight conjugated polymers.

30 olymerization technique to the generation of conjugated polymers.

31 transistors through developing low-disorder conjugated polymers.

32 power organic devices by utilizing doping of conjugated polymers.

33 orphology and charge-transport properties of conjugated polymers.

34 general method to induce memory behavior in conjugated polymers.

35 rategy, based on the use of light-sensitive, conjugated polymers.

36 (1) organic semiconductors and in particular conjugated polymers, (2) dopants and counterions, (3) in

37 donor-acceptor-based 2D sp(2) -carbon-linked conjugated polymer (2D CCP) is demonstrated.

38 A new water-soluble cationic conjugated polymer [9,9-bis(6'-methyl imidazolium bromid

39 ostructure of a regioregular thiophene-based conjugated polymer, a small-molecule p-type dopant can b

40 ed organic semiconductors by blending with a conjugated polymer additive poly(3-hexylthiophene) (P3HT

41 magnitude faster carrier mobility along the conjugated polymer alignment direction than the perpendi

42 tion was performed to analyse a well-defined conjugated polymer alignment.

43 This new generation of conjugated polymers allows for a greatly reduced exchang

44 Typical 2D CCFs include 2D pai-conjugated polymers (also classified as 2D pai-conjugate

45 hat consist of alternating parallel lanes of conjugated polymer and CdSe.

46 PC84 BM) on the performance of low band gap conjugated polymer and fullerene solar cells to gain ins

47 ent significantly reduces the modulus of the conjugated polymer and largely delays the onset of crack

48 active molecular materials, such as organic conjugated polymers and biological systems, are characte

49 als from organic ligands and chromophores to conjugated polymers and covalent organic frameworks.

50 remain a long-standing fundamental issue in conjugated polymers and full of challenge since conjugat

51 ulti-exciton populations and interactions in conjugated polymers and improving their light harvesting

52 erlooked side-reactions between redox-active conjugated polymers and molecular oxygen in electrochemi

53 ) analysis on a selection of high-performing conjugated polymers and small molecules found in the lit

54 ns in traditional Pt-bisacetylide containing conjugated polymers and small molecules.

55 o macroscopic charge transport mechanisms in conjugated polymers and suggest guidelines for optimizat

56 ool to realize direct aggregation control of conjugated polymers and to investigate the interplay bet

57 ion incorporating high-performance ambipolar conjugated polymers and unipolar small molecules as the

58 ucting blend composed of a small-molecule, a conjugated polymer, and a molecular p-dopant is develope

59 s tend to be randomly distributed within the conjugated polymer, and as a result the transport proper

60 ort based on an individual single crystal of conjugated polymers, and demonstrate the importance of i

61 Here, we compare over 40 conjugated polymers, and find that many different chemic

62 parallels with inorganic semiconductors than conjugated polymers, and that the key challenge to optim

63 articles and self-assembled structures of pi-conjugated polymer are highlighted.

64 Thin films comprised of a conjugated polymer are used to amplify the emission of a

65 Arsole-containing conjugated polymers are a practically unexplored class o

66 Conjugated polymers are an emerging class of photocataly

67 Conjugated polymers are attractive in numerous biologica

68 Conjugated polymers are complex multichromophore systems

69 ractions of free charge-carriers in doped pi-conjugated polymers are conceptually described by 1-dime

70 terials based both on small molecules and on conjugated polymers are considered, and their applicatio

71 Thermoelectric properties of conjugated polymers are found to improve upon homogeneou

72 Electron-deficient pi-conjugated polymers are important for organic electronic

73 jugated polymers and full of challenge since conjugated polymers are naturally disordered materials.

74 new class of BODIPY-based donor-acceptor pi-conjugated polymers are presented.

75 However, high-mobility n-type conjugated polymers are still rare.

76 tructurally planar, and solution-processable conjugated polymers are synthesized and implemented in o

77 Fluorinated n-type conjugated polymers are used as efficient electron accep

78 using Poly(3-thiophene acetic acid) (P3), a conjugated polymer as an immobilization matrix.

79 By comparing a conventional pai-conjugated polymer as the active material to a perdeuter

80 nt solar concentrator (LSC) utilizing two pi-conjugated polymers as antennae for small amounts of the

81 ing chains are isolated for several types of conjugated polymers as well as discrete living oligomers

82 ne diimides and possibly in other classes of conjugated polymers as well.

83 enerally applicable to other semicrystalline conjugated polymers as well.

84 one of the prepared polymers feature a truly conjugated polymer backbone.

85 A new class of ambipolar donor-acceptor pi-conjugated polymers based on a dithienocoronenediimide c

86 A light-activated hypoxia-responsive conjugated polymer-based nanocarrier is developed for ef

87 In a conjugated polymer-based single-particle heterojunction,

88 This conjugated-polymer-based nanocarrier can be activated by

89 Conjugated-polymer-based organic electrochemical transis

90 Through simple addition of a Lewis acid to a conjugated polymer bearing a Lewis basic heteroatom, the

91 stem and allow mechanochemical generation of conjugated polymers beyond polyacetylene.

92 ce strong memory behavior from common p-type conjugated polymers by adding n-type dopant 2-(2-methoxy

93 ive transport study of several high-mobility conjugated polymers by field-effect-modulated Seebeck, t

94 will become a versatile tool in the field of conjugated polymers by providing a desirable atom-econom

95 solution-state structures of the BDOPV-based conjugated polymer can be tuned such that it forms a 1D

96 c states and mechanical stresses inherent to conjugated polymers can be used to noninvasively measure

97 operly designed amorphous donor-alt-acceptor conjugated polymers can circumvent this problem; combini

98 Herein, water-soluble cationic conjugated polymers (CCPs), poly(phenylene ethynylene) (

99 Embedding heavy metal atoms in pi-conjugated polymer chains enhances the spin-orbit coupli

100 Conjugated polymer chains have many degrees of conformat

101 ate the large-scale dynamics of semiflexible conjugated polymer chains in solutions.

102 Herein we report the isolation of living pai-conjugated polymer chains, synthesized by catalyst-trans

103 growing deterministic aggregates from single conjugated polymer chains.

104 y to produce globally aligned collections of conjugated polymer chains.

105 In the crystal the conjugated-polymer chains are extended along the long ax

106 signal amplification has been advanced using conjugated polymers, chirality in polymers, solvating po

107 trated as an efficient n-type dopant for the conjugated polymer ClBDPPV.

108 mimics natural photosynthetics systems with conjugated polymer component to harvest photons and the

109 strated during deposition of carbon-nanotube-conjugated polymer composites.

110 , we examine what makes a "good" solvent for conjugated polymers, concluding that dispersive pi-elect

111 olecular stretchability can be enhanced when conjugated polymers, containing modified side-chains and

112 This approach can be applied to a variety of conjugated polymers covering a photoresponse range from

113 g single molecule spectroscopy of individual conjugated polymer (CP) chains and aggregates.

114 cally aligned carbon nanotubes (VACNT) and a conjugated polymer (CP) was fabricated.

115 olymer encapsulated nanoparticles containing conjugated polymers (CP) or fluorogens with aggregation

116 complexes of a family of positively charged conjugated polymers (CPs) and green fluorescent protein

117 c-inorganic hybrid solar cells incorporating conjugated polymers (CPs) and nanocrystals (NCs) offer t

118 Current approaches to synthesize pai-conjugated polymers (CPs) are dominated by thermally dri

119 based on inorganic semiconductors (ISs) and conjugated polymers (CPs) have emerged as novel promisin

120 such as metals and inorganic semiconductors, conjugated polymers (CPs) have several key advantages fo

121 The use of pai-conjugated polymers (CPs) in conductive hydrogels remain

122 novel series of main-chain boron-containing conjugated polymers (CPs), boron "doped" polyacetylenes

123 is using artificial antenna systems, such as conjugated polymers (CPs), dendrimers, and J-aggregates.

124 ing the interactions between chromophores in conjugated polymers (CPs).

125 sy state, making its accurate prediction for conjugated polymers crucial for the design of soft, stre

126 materials and their modes of operation in EC conjugated polymer devices.

127 Structurally related conjugated polymers differing by heteroatom substitution

128 eloping a method that can predict spectra of conjugated polymers directly from coarse-grained represe

129 ting models for the electronic properties of conjugated polymers do not capture the spatial arrangeme

130 s of solar cells composed of narrow-band-gap conjugated polymer donor/fullerene acceptor blends.

131 t material is presented, which is called non-conjugated polymer dots (NCPDs).

132 nt of a dendronized pyropheophorbide a (Ppa)-conjugated polymer (DPP) is reported, and a linear Ppa-c

133 chieved based on a single-solution-processed conjugated polymer, DPPT-TT, upon careful optimization o

134 general validity for both conjugated and non-conjugated polymers, e.g. poly(9,9-di-n-octylfluorene-al

135 Conjugated polymers enable the production of flexible se

136 Conjugated polymers featuring tunable band gaps/position

137 Conjugated polymer fibers are relevant to develop optoel

138 Here we report on conjugated polymer fibers with tailored internal molecul

139 perties and inherent mechanical flexibility, conjugated polymer field-effect transistors (FETs) are p

140 in particular, clustering of dopants within conjugated polymer films - has a profound and predictabl

141 ce of controlling dopant distribution within conjugated polymer films for thermoelectric and other el

142 hin-film transistors built on highly aligned conjugated polymer films showed more than three orders o

143 c ratio of 16.67 in emission from conducting conjugated polymer films.

144 ified model of how charge carriers travel in conjugated polymer films.

145 poly(2,5-di(hexyloxy)cyanoterephthalylidene) conjugated polymer films.

146 rging as a unique class of semiconducting 2D conjugated polymers for (opto)electronics and energy sto

147 single molecule fluorescence measurements of conjugated polymers for long periods of time in solution

148 tant strategy in developing high-performance conjugated polymers for photovoltaic applications.

149 ral approach using removable and recoverable conjugated polymers for separating s-SWNTs with little p

150 PBDTTPD is one of the best conjugated polymers for solar cell applications (up to 8

151 ayers, which could enable the application of conjugated polymers for wafer-scale sophisticated electr

152 alities into a majority phase nanostructured conjugated polymer, for example in organic photovoltaic

153 A two-dimensional (2D) sp(2) -carbon-linked conjugated polymer framework (2D CCP-HATN) has a nitroge

154 The synthesis of conjugated polymers from direct (hetero)arylation polyme

155 trapping effect reported here for composite conjugated polymer/fullerene NPs presents an opportunity

156 Hz) photoconductivity typically observed for conjugated polymer:fullerene blends (at excitation fluen

157 The spectral breadth of conjugated polymers gives these materials a clear advant

158 As a fascinating conjugated polymer, graphitic carbon nitride (g-C3N4) ha

159 Coarse-grained modeling of conjugated polymers has become an increasingly popular r

160 The morphology of conjugated polymers has critical influences on electroni

161 Conjugated polymers have attracted much attention in rec

162 High-mobility p-type and ambipolar conjugated polymers have been widely reported.

163 However, recent developments in conjugated polymers have diversified the backbones to be

164 Solution-processed semiconductors such as conjugated polymers have great potential in large-area e

165 branching of solubilizing side chains in pi-conjugated polymers impacts their self-assembling proper

166 materials promise to enhance the utility of conjugated polymers in bioimaging field.

167 Narrow bandgap conjugated polymers in combination with fullerene accept

168 The solution-processability of conjugated polymers in organic solvents has classically

169 ing the multi-level self-assembly process of conjugated polymers in solution.

170 Conjugated polymers in the solid state usually exhibit l

171 red by reprecipitation of highly fluorescent conjugated polymers in water and are stable in aqueous s

172 e particularly useful in the synthesis of pi-conjugated polymers in which structural changes are nece

173 ing advanced optoelectronic devices based on conjugated polymers, including electrically-driven polym

174 on in the bulk in comparison to conventional conjugated polymers, including P2.

175 revealed that the thin-film morphology of a conjugated polymer inherits the features of its solution

176 and robust, and offers easy access to other conjugated polymer-inorganic semiconductor nanocomposite

177 d to improve upon homogeneously distributing conjugated polymer into an insulating supporting matrix.

178 energy transfer between a suitable dye and a conjugated polymer is characterized by means of steady-s

179 elective nano-optode is proposed, in which a conjugated polymer is used as optical transducer and nan

180 Doping of conjugated polymers is discussed and its interplay with

181 uted boron cluster as a molecular dopant for conjugated polymers is employed.

182 Electronic conduction in conjugated polymers is of emerging technological interes

183 Therefore, while fluorescence quenching of conjugated polymers is sufficiently sensitive to detect

184 fying structure formation in semicrystalline conjugated polymers is the fundamental basis to understa

185 ve ways to tune the electronic properties of conjugated polymers is to dope them with small-molecule

186 Applied to a conjugated polymer, it shows both decreasing homocouplin

187 ations and experiments on multiple push-pull conjugated polymers, it is argued that the size of the d

188 A conjugated polymer known for high stability (poly[benzim

189 Luminescent conjugated polymers (LCPs) interact with ordered protein

190 table and efficient deep-blue light-emitting conjugated polymers (LCPs).

191 k is synthesized and utilized to construct a conjugated polymer leading to high-performance thick-fil

192 polymer (DPP) is reported, and a linear Ppa-conjugated polymer (LPP) is reported as a control.

193 work opens a new way into the development of conjugated polymer materials for enhanced Raman imaging.

194 iew is provided over both small molecule and conjugated polymer materials for which field-effect mobi

195 ed superhelicene when embedded in an achiral conjugated polymer matrix.

196 work reports that nanoparticles made of the conjugated polymer MEH-PPV can generate luminescence per

197 nd electronic structural modification of the conjugated polymer motif opens up new opportunities for

198 Tantalum-doped tungsten oxide (Ta-WO x )/conjugated polymer multilayers offer a surprisingly smal

199 ntal breakthrough in generating high-quality conjugated-polymer nanocrystals with extended conjugatio

200 A near-infrared dye was encapsulated in the conjugated polymer nanoparticle to successfully generate

201 PPE-based conjugated polymer nanoparticles (CPNs) were also prepar

202 Here we show that conjugated polymer nanoparticles (P3HT NPs) mediate ligh

203 Conjugated polymer nanoparticles are a class of nanopart

204 The light harvesting capability of the conjugated polymer nanoparticles enhances the fluorescen

205 this review, we summarize the key aspects of conjugated polymer nanoparticles optical properties and

206 Highly fluorescent multiblock conjugated polymer nanoparticles with folic acid surface

207 Semiconducting polymer dots (Pdots) and conjugated-polymer nanoparticles (CPNs) are emerging mat

208 The conjugated polymer nanosensor material is in partially o

209 The n-type doped p-channel conjugated polymers not only enhance n-type charge trans

210 Periodic pi-conjugated polymers of the group 16 heterocycles (furan,

211 EC oxidation of conjugated polymers of this type has important implicati

212 tivity measurements of an electropolymerized conjugated polymer on a transparent Au substrate in a co

213 The creation of organic heterojunctions from conjugated polymers on the nanoscale has attracted recen

214 phenes, one of the most important classes of conjugated polymer, only limited success has been achiev

215 Efficient conjugated polymer optoelectronic devices benefit from c

216 The ability to externally modulate conjugated polymer optoelectronic properties is an impor

217 ectronic interactions by large modulation of conjugated polymer orientation via solution coating is r

218 charge transfer, and catalytic properties of conjugated polymers paves a critical way toward high-act

219 Taking the pi-conjugated polymers PBDT[2X]T (X = H, F) as model system

220 cing the polymeric donor PBDTBDD with its 2D-conjugated polymer PBDTBDD-T, the power conversion effic

221 the rational design and synthesis of porous conjugated polymer (PCP) that photocatalytically generat

222 surface functionalization using an inert non-conjugated polymer, perfluoropolyether (PFPE), deposited

223 A novel wide-gap conjugated polymer PhF2,5 (Eg = 1.9 eV) is designed to c

224 e, can be used to enable visible wavelength, conjugated polymer photonic elements.

225 regioregular narrow band gap (E(g) ~1.5 eV) conjugated polymer PIPCP was designed and synthesized.

226 Such conjugated polymer/plasmonic nanorod nanocomposites may

227 hesized polymers: PLGA-b-PEG and alendronate-conjugated polymer PLGA-b-PEG-Ald, which ensured long ci

228 Nanoribbon-shaped nanocomposites composed of conjugated polymer poly(3-hexylthiophene) (P3HT) nanorib

229 lease with a novel organic device based on a conjugated polymer poly(3-hexylthiophene) is presented.

230 ammonium fluoride is simply admixed with the conjugated polymer poly(N,N'-bis(7-glycol)-naphthalene-1

231 a of excitons in oligomers of the ubiquitous conjugated polymers poly(3-hexylthiophene) (P3HT), poly(

232 layer and its subsequent microstructure of a conjugated polymer [poly(2,5-bis(3-alkylthiophen-2-yl)th

233 the chain orientation of a representative pi-conjugated polymer, poly(3-hexylthiophene) (P3HT), durin

234 he most widely studied electron transporting conjugated polymers, poly{[N,N9-bis(2-octyldodecyl)-naph

235 Conjugated polymers possessing a poly(2,5-dimethylene-2,

236 tion of DHAP now leads to nearly defect-free conjugated polymers possessing comparable, if not slight

237 salts such as TBAF as an n-dopant of organic conjugated polymers possessing lower LUMO (lowest unoccu

238 ariety and increasing chemical complexity of conjugated polymers proliferating the field of organic s

239 with thiophene resulted in a semicrystalline conjugated polymer, PTNT, with a broad bandgap of 2.2 eV

240 Molecular doping of conjugated polymers represents an important strategy for

241 etals such as charge-transfer salts or doped conjugated polymers requires high crystallinity, which i

242 st a wide range of analogous narrow band gap conjugated polymers reveals that this V(oc) value is par

243 ons or two holes occupy a single molecule or conjugated polymer segment, are typically considered to

244 Charge transport in conjugated polymer semiconductors has traditionally been

245 gation, and charge transport anisotropy in a conjugated polymer series differing in architecture and

246 wide range of fluorescent materials, such as conjugated polymers, small fluorophores, supramolecular

247 three classes of organic semiconductors: pi-conjugated polymers, small molecules, and composites.

248 These observations contrast other conjugated polymers such as MEH-PPV where much slower in

249 ural changes during doping and dedoping of a conjugated polymer system via X-ray scattering.

250 we present the concept of a soluble tubular conjugated polymer (TCP).

251 Conjugated polymers that can undergo unusual nonoxidativ

252 analogous series of solution-processable pi-conjugated polymers that combine the electron-rich dithi

253 photoexcitations in two newly synthesized pi-conjugated polymers that contain intrachain platinum (Pt

254 erization of two recently reported rigid-rod conjugated polymers that do not contain single bonds in

255 sive efforts have been made to develop novel conjugated polymers that give improved performance in or

256 Polyphenylenes (PPs) represent a class of conjugated polymers that have been used in applications

257 The design and synthesis of conjugated polymers that promise to show good thermoelec

258 lecular structure of 32 semiflexible (mostly conjugated) polymers that differ drastically in aromatic

259 electrochemically induced charged states in conjugated polymers, their evolution as a function of el

260 In conjugated polymers, this gap has proved resistant to mo

261 ent synthetic methods for the preparation of conjugated polymers, this Perspective reports advances i

262 le light harvesting may be enhanced in other conjugated polymers through judicious design of the stru

263 o optimize the thermoelectric performance of conjugated polymers, thus also providing new insights in

264 and target-inert fluorophores into a single conjugated polymer to avoid leakage or differential phot

265 e, we report a molecular design principle of conjugated polymers to achieve concentration-regulated c

266 The photophysical behavior of conjugated polymers used in modern optoelectronic device

267 CH-Naph)s can be mechanically activated into conjugated polymers using ultrasonication, grinding, and

268 duce the singlet-triplet energy gap in fully conjugated polymers, using a donor-orthogonal acceptor m

269 ive nonconjugated polymer that converts to a conjugated polymer via an extensive rearrangement of the

270 ray of 42,100 pixels made of three different conjugated polymers via inkjet printing with 110 pixels/

271 irst azaborine oligomers and a corresponding conjugated polymer was accomplished by Suzuki-Miyaura co

272 This liquid-crystalline conjugated polymer was realized by incorporating intramo

273 This conjugated polymer was synthesized to fabricate this imm

274 The nature of charge carriers in conjugated polymers was elucidated through optical spect

275 temperature and the molecular weight of the conjugated polymer, we witness a universal behavior of t

276 ries of six diketopyrrolopyrrole (DPP)-based conjugated polymers, we establish a direct correlation b

277 or applications involving multi-chromophoric conjugated polymers where interactions between multiple

278 tudy, the self-assembly of homo- and blended conjugated polymers which are confined in nanostructures

279 aterials is numerously focused on the p-type conjugated polymers which are generally synthesized by p

280 is employed as the conjugated side chain in conjugated polymers, which can significantly depress the

281 Lowering the optical bandgap of conjugated polymers while maintaining a high efficiency

282 An arylated-carbazole conjugated polymer with a deep HOMO level has been devel

283 ctive materials by blending a semiconductive conjugated polymer with an organolead halide perovskite

284 A conjugated polymer with imine linkages was synthesized t

285 these values are the highest reported for a conjugated polymer with such a broad bandgap and are unp

286 Conjugated polymers with a one-dimensional p-orbital ove

287 a root-mean-square error of 13 degrees C for conjugated polymers with alkyl side chains.

288 A set of two donor-acceptor type conjugated polymers with carboxylic acid side groups hav

289 n situ synthetic approach to obtain fully pi-conjugated polymers with degrees of polymerization up to

290 ynthetic methodologies to predictably access conjugated polymers with desired Mn and highlights the i

291 The synthesis of conjugated polymers with ionic substituents directly bou

292 Conjugated polymers with nearly planar backbones have be

293 Two conjugated polymers with rigid planar backbones, but wit

294 vestigate a variety of OSECs ranging from pi-conjugated polymers with strong SOC that contain intrach

295 ing a polymerization strategy which produces conjugated polymers with tunable Mns.

296 his method allows to easily fabricate n-type conjugated polymers with wafer-scale, high uniformity, l

297 been reported for solution-processed n-type conjugated polymers, with a thermoelectric power factor

298 on, color change, and switching of states of conjugated polymers without oxidation.

299 Although conjugated polymer wrapping has been demonstrated as a p

300 Three conjugated polymer zwitterions (CPZs), containing thioph