ライフサイエンスコーパス: open circuit

1 nd low-Na(+) solutions were determined under open circuit.

2 tons exceeding the semiconductor band gap at open circuit.

3 amounts released when the EBFCs were held at open circuit.

4 and leg blood flow ( QL ) were measured via open-circuit acetylene wash-in technique and constant in

5 sessment of intestinal fat absorption and an open circuit calorimeter, respectively.

6 SOFC operation at 450 degrees C and open circuit can effectively treat NO(x) over the cathod

7 of complementary electrochemical techniques: open-circuit chronopotentiometry (CP), linear polarizati

8 pre-concentration step being carried out at open-circuit condition for 60s).

9 cells over 100x compared to operation under open circuit conditions at 60 degrees C.

10 pithelial potentials (V(t)) were recorded in open circuit conditions while applying constant current

11 borated between freshly prepared, aged under open circuit conditions, and cycled electrodes of compos

12 t that enhances the regeneration yield under open circuit conditions.

13 were approximately 40% larger than those in open-circuit conditions.

14 (98.6% reduction), which was similar to the open circuit control and degraded regardless of the reco

15 m hydrocarbon (TPH) degradation by ~70% than open circuit control reactors.

16 cating electroactive behaviour of biofilm in open circuit control through the snorkel-effect.

17 Scanning electrochemical microscopy at open circuit correlates this training with a 3-fold incr

18 ricidal properties, compared to the control (open-circuit) diffusate, and reduced observable biofilm

19 y is produced by simple solution exchange in open circuit, due to the associated decrease in the capa

20 Open circuit faults in electronic systems are a common f

21 t occur, and the electrode is effectively at open circuit for time tau(1) < t </= tau(2).

22 ing substantially enhance the voltage of the open-circuit, i.e., from 140 mV (1-cylinder thermocell)

23 on of formic acid (HCOOH) in acidic media at open circuit on Pt was investigated.

24 folding geometry that generates 110 volts at open circuit or 27 milliwatts per square metre per gel c

25 The protocols consisted of 2 hours in either open circuit or short circuit.

26 Open circuit output voltage of this battery is 0.75 V.

27 rmed g-C(3)N(4), in particular generating an open circuit photovoltage as high as 1.3 V, while C(3)N(

28 Open circuit photovoltage decay (OCVD), Mott-Schottky (M

29 Second, a significant enhancement of the open circuit photovoltage was realized without a change

30 However, the photocurrent and open-circuit photovoltage are dramatically lower with se

31 ot intentionally doped and showed a positive open-circuit photovoltage based on photoelectrochemical

32 2, BQ (2 mM), BQ(*-) (2 mM)/carbon, shows an open-circuit photovoltage of 1.05 V and a short-circuit

33 t-circuit photocurrent J(sc)= 16.1 mA/cm(2), open-circuit photovoltage V(oc) = 0.631 V, and a fill fa

34 ty of the cyclometalated compound, while the open-circuit photovoltage was significantly larger for t

35 The values of the open-circuit photovoltages and the flat-band potentials

36 w fundamental energy losses; it can generate open-circuit photovoltages of more than 1.1 volts, despi

37 e to the anode (63.5-78.7%) than that in the open circuit positive controls (37.6-43.4%) during a per

38 electrochemical technique incorporating both open circuit potential (OCP) and amperometric techniques

39 affect significantly the measurement of the open circuit potential (OCP) and cyclic voltammetry (CV)

40 de of 25 mV, a frequency of 81.3 kHz, and an open circuit potential (OCP) as the direct-current (dc)

41 We investigate the principle of the open circuit potential (OCP) change upon a particle coll

42 Open circuit potential (OCP) measurements can be very se

43 Using open circuit potential (OCP) measurements, scanning elec

44 The open circuit potential (OCP) of a measuring Au ultramicr

45 the development of the third-generation type open circuit potential (OCP) principle-based glucose sen

46 Anode open circuit potential (OCP) values were well correlated

47 The pH dependence of the IrOx open circuit potential (OCP) was measured at -77+/-0.4 m

48 e absence of external electrical power), the open circuit potential (OCP), the formation of struvite

49 been confirmed by chronoamperometry (CA) and open circuit potential amperometry (OCPA).

50 Results of open circuit potential analysis and Tafel plot measureme

51 Results of open circuit potential analysis suggested that the Fe(0)

52 rbed-accumulated on the electrode surface at open circuit potential and then stripped off by applying

53 ted specific ROS activity was lowest for the open circuit potential condition, elevated when cathodic

54 easurements) or the passive tracking (during open circuit potential decay) of the quasi-Fermi level i

55 The open circuit potential difference between the two aqueou

56 Open circuit potential measurements yield near-nernstian

57 rrent density of 657 +/- 17 muAcm(-2) and an open circuit potential of 0.57 +/- 0.01 V, which is suff

58 he enzymatic biofuel cell (EFC) generated an open circuit potential of 0.61 (+/-0.02) V with a maximu

59 photocurrent density of 35 mA cm(-2) and an open circuit potential of 450 mV; there was no observabl

60 A maximum open circuit potential of 459 mV was achieved for the ba

61 of two hydroxy groups to AQDS increases the open circuit potential of the cell by 11% and we describ

62 In deareated buffered solutions the open circuit potential of the PdH in equilibrium between

63 ntials of the EABs with the solution pH: (i) open circuit potential, (ii) half-wave potential, and (i

64 plying AC amplitude of 50 mV at 117.2 Hz and open circuit potential, a minimum of 214 captured cells/

65 Positive potentials (i.e., +0.2 V vs open circuit potential, OCP) caused the ds-DNA to align

66 It is corroborated by open circuit potential, where a potential stabilization

67 The open-circuit potential (OCP) based transduction under fl

68 PCET reagents in nonaqueous solvents, using open-circuit potential (OCP) measurements.

69 Time traces of the open-circuit potential (OCP) were used to construct Nern

70 roups facilitated bacteria attachment at the open-circuit potential (OCP).

71 e containing 0.01 M KTFAB, had a very stable open-circuit potential and an outstanding potential repr

72 electrochemical impedance analysis (EIS) and open-circuit potential decay transients (OCVD), which at

73 of BSA in a solution, using electrochemical open-circuit potential method, namely potentiometry.

74 Primary batteries demonstrated an open-circuit potential of 1.48 V, a specific capacity of

75 ed on the electrochemical measurement of the open-circuit potential of the platinum electrode immerse

76 OS was adjusted by polarization to the known open-circuit potential of the solid contact in 0.1 M KCl

77 H2O2 was estimated by measuring the H(+)/H2 open-circuit potential under the reaction conditions.

78 SAED, EDX, XPS, UV-visible spectroscopy, and open-circuit potential versus time experiments to unders

79 harge have been realized on systems with low open circuit potentials (<0.8 V).

80 low established fade rates that also exhibit open circuit potentials of 1.0 V or higher and transferr

81 The open circuit potentials of the photoelectrodes in contac

82 Shifts in values of the RPs (open circuit potentials) observed in the course of monit

83 Through electrochemical testing including open circuit potentials, potentiodynamic scans, anodic p

84 nadium, or nickel, 10 to 30 nm thin, produce open-circuit potentials of several tens of millivolt and

85 We demonstrate the application of open circuit potentiometry (OCP) to measure enzyme turno

86 the final signal readout was achieved using open circuit potentiometry (OCP).

87 hat the methodology compares well to that of open circuit potentiometry, despite giving complementary

88 fore be much more sensitive than traditional open-circuit potentiometry.

89 volves a short (1 s) galvanostatic pulse, an open-circuit pulse (0.5 s) during which the EMF of the c

90 hole pair to photon to electron-hole pair at open circuit under solar illumination.

91 tacts between gold and silicon electrodes at open circuit via a radical reaction.

92 approximately 1.7microWcm(-2)) with similar open circuit voltage (0.27V) compared to native GOX when

93 bulk heterojunction solar cells with higher open circuit voltage (0.91 V).

94 Photovoltaic cells exhibit a high open circuit voltage (1.12 V), indicating a near-ideal e

95 rated for 450 h and results indicated a high open circuit voltage (about 810 mV) compared with previo

96 arn generated a 2.8-fold higher peak-to-peak open circuit voltage (OCV) and a 1.5-fold higher peak po

97 r density of 2.3microWcm(-2) at 0.21V and an open circuit voltage (OCV) of 0.49V were registered as a

98 of P(max) = 0.182 mW cm(-2) at 0.22 V and an open circuit voltage (OCV) of 0.64 V.

99 imum power density of 294 mW/m(2) and had an open circuit voltage (OCV) of 1.12 V.

100 ,1-diylidene))dimalononitrile) decreases the open circuit voltage (V(OC)) but increases the short cir

101 Capacitance vs open circuit voltage (V(oc)) data indicate that the hyst

102 However, as we push the open circuit voltage (V(OC)) higher by tailoring the ful

103 at PIPCP:PC61BM blends yield devices with an open circuit voltage (V(oc)) of 0.86 V, while maintainin

104 a good average PCE of 8.26% with an average open circuit voltage (V(oc)) of 1.79 V for 2-terminal ta

105 In contrast to previous reports where the open circuit voltage (V(OC)) of a conventional, blended

106 the [Co(bpy)(3)](2+/3+) redox couple, and an open circuit voltage (V(oc)) of almost 1.0 V at 100% sun

107 rstand the impact of these fluorine atoms on open circuit voltage (V(oc)), short circuit current (J(s

108 ueisser limit, but they suffer from a larger open circuit voltage (VOC ) deficit than narrower bandga

109 uit current density (Jsc) of 18.53 mA/cm(2), open circuit voltage (Voc) of 0.538 V, and fill factor (

110 In addition, the open circuit voltage (Voc) of dye-sensitized solar cells

111 ite remains below 3%, primarily due to a low open circuit voltage (VOC).

112 At -20 degrees C, an open circuit voltage and a maximum output power of 0.2 V

113 An open circuit voltage and a short circuit current of 0.82

114 ging the other device characteristics, i.e., open circuit voltage and fill factor.

115 ncentration (5mM), the biofuel cell exhibits open circuit voltage and power density of 302.1 mV and 1

116 45 mM glucose, the biofuel cell exhibited an open circuit voltage and power density of 681.8 mV and 6

117 o higher short-circuit current, fill factor, open circuit voltage and significantly reduced device-to

118 Open circuit voltage and solar photon energy variant Pla

119 groups on the anion significantly alters the open circuit voltage and yields a clear dependence on el

120 designs must be developed that maximize the open circuit voltage by minimizing both non-radiative an

121 ultant FeS-based enzyme electrode reached an open circuit voltage closer to its standard potential un

122 current density versus applied potential and open circuit voltage decay measurements were employed to

123 While the electrical power output and the open circuit voltage decreased with increasing temperatu

124 Raman spectra from Ni cermet anodes at open circuit voltage exposed to methane show a strong vi

125 nt with the benefit of thinner wafer induced open circuit voltage increase.

126 ced the power density of 1.713 mW cm(-2) and open circuit voltage of 0.281 V.

127 aximum power density of 22 muW cm(-2) and an open circuit voltage of 0.51 V.

128 exhibited the following characteristics: an open circuit voltage of 0.54 V, a maximal power density

129 all known all-carbon-based materials with an open circuit voltage of 0.59 V and a power conversion ef

130 W cm(-2) at a cell voltage of +0.4 V with an open circuit voltage of 0.64 V.

131 The devices exhibit a high open circuit voltage of 1.08 +/- 0.01 V, attributed to t

132 of-concept of a membrane-free battery has an open circuit voltage of 1.4 V with a high theoretical en

133 achieved a high efficiency of 6.63% with an open circuit voltage of 428.67 mV, a short-circuit curre

134 The open circuit voltage of an implantable triboelectric nan

135 y levels, which can potentially maximize the open circuit voltage of bilayer organic solar cells.

136 han standard fullerenes, which can raise the open circuit voltage of photovoltaic devices.

137 The open circuit voltage of the cell was 590 mV.

138 nce efficiency measurements indicate that an open circuit voltage of up to 930 mV can be achieved, on

139 which comes at the cost of a slightly lower open circuit voltage than for the DTS-based cells.

140 We show the FEC condenses on the surface at open circuit voltage then is reduced to C-O containing p

141 We conclude that the open circuit voltage V(OC) is limited by the smaller ban

142 r (CT) states whose energies set the maximum open circuit voltage V(OC).

143 The open circuit voltage was 0.413+/-0.06 V and the maximum

144 The enzymatic fuel cell reaches 0.5 V at open circuit voltage with both, ethanol and methanol, wh

145 perovskite have the benefit of retaining an open circuit voltage ~0.14 V closer to its radiative lim

146 the AnEMBR compared to the control reactor (open circuit voltage).

147 taic device is fabricated to produce a large open circuit voltage, 0.85-0.95 V, which is higher than

148 d as the offset between optical band gap and open circuit voltage, and compare the results to those o

149 The open circuit voltage, and thereby the power conversion e

150 rs including photovoltaic device efficiency, open circuit voltage, fill factor, and short circuit cur

151 he device performance by mainly limiting the open circuit voltage, interfacial layers are also crucia

152 l performance of DCFCs, with regard to their open circuit voltage, power output and lifetime.

153 results from synergistic effects of enlarged open circuit voltage, suppressed trap-assisted recombina

154 ere analysed in response to temperature: the open circuit voltage, the maximum output power and the i

155 he series with high photocurrent density and open circuit voltage.

156 ng, leading to a remarkable reduction in the open circuit voltage.

157 llasts has a slightly negative impact on the open circuit voltage.

158 erials, we derive an empirical limit for the open circuit voltage: V(OC) less, similar E(opt,min)/e -

159 The open-circuit voltage ( V(OC)) of a device with an optica

160 An enhanced open-circuit voltage (0.716-0.771 eV) in P34AT solar cel

161 ted backbone led to a 19% enhancement in the open-circuit voltage (0.735 V) vs poly(3-hexylthiophene)

162 circuit current (10.14 mA/cm(2)) with a high open-circuit voltage (0.86 V) to give a power conversion

163 combinatorial studies and demonstrate record open-circuit voltage (V OC) of 970 mV and efficiency of

164 d (PLQY) measurements show that nonradiative open-circuit voltage (V(OC) ) losses outweigh radiative

165 atio of the three components was varied, the open-circuit voltage (V(oc)) increased as the amount of

166 hose of the individual "subcells", while the open-circuit voltage (V(oc)) is between those of the "su

167 form is more basic than the Sp form, and the open-circuit voltage (V(oc)) is related to the proton co

168 t-circuit photocurrent of 19.0 mA cm(-2), an open-circuit voltage (V(OC)) of 0.71 V, and a fill facto

169 .2% (the highest PCE of 6.8%), along with an open-circuit voltage (V(oc)) of 0.93 +/- 0.02 V, a short

170 significantly suppressed to result in a high open-circuit voltage (V(OC)) of 1.17 V and a reduced V(O

171 conversion efficiency of 4.02%, featuring an open-circuit voltage (V(oc)) of 929 mV and a short-circu

172 ) (>0.57) at all fullerene ratios, while the open-circuit voltage (V(oc)) was found to vary from 0.61

173 ties for the two dyes, a consistently higher open-circuit voltage (V(oc)) was measured for Dye-S rela

174 molecules that are shown to tune the output open-circuit voltage (VOC) across three types of pristin

175 rformed better than RSQ1 owing to its higher open-circuit voltage (Voc) and fill factor (ff) in spite

176 ad to enhanced efficiencies due to increased open-circuit voltage (VOC) and improved absorption of so

177 high photocurrent generation, the achievable open-circuit voltage (Voc) is fundamentally limited due

178 ectric conversion efficiency (eta) of 2%, an open-circuit voltage (Voc) of 0.39 mV, and a short-circu

179 , which induce a simultaneous enhancement in open-circuit voltage (Voc), short-circuit current (Jsc),

180 isible and infrared light, we measure a d.c. open-circuit voltage and a short-circuit current that ap

181 of sterics and molecular orientation on the open-circuit voltage and absorbance properties of charge

182 lls, this piperidinium additive enhances the open-circuit voltage and cell efficiency.

183 The open-circuit voltage and charge-transfer state energy of

184 The open-circuit voltage and fill factor are not sacrificed,

185 bricate core-shell nanowire solar cells with open-circuit voltage and fill factor values superior to

186 10.3 to 11.7 mA cm(-2) (while retaining the open-circuit voltage and fill factor) to result in an en

187 ctrical properties of solar cells, including open-circuit voltage and fill factor.

188 The substantial increase in open-circuit voltage and reduction in recombination loss

189 An increase in open-circuit voltage and short-circuit current are obser

190 ing the intensity dependence of the external open-circuit voltage and the internal quasi-Fermi level

191 :InI(3) and carbon electrode exhibit PCE and open-circuit voltage as high as 12.04% and 1.20 V, respe

192 provide both high short-circuit current and open-circuit voltage at room temperature, and be driven

193 maximum, our focus is on efforts to increase open-circuit voltage by means of improving charge-select

194 With an open-circuit voltage close to 1 V, this leads to a remar

195 ethylene)malononitrile leads to an increased open-circuit voltage compared with its isomer 2-((7-(N-(

196 It is shown that the open-circuit voltage correlates linearly with the charge

197 Open-circuit voltage decay is used to probe the kinetics

198 The 12.4% device is obtained with a record open-circuit voltage deficit of 593 mV.

199 iers in pn-junction wells leading to a large open-circuit voltage developed across a load.

200 olymer solar cell that exhibits a remarkable open-circuit voltage exceeding 1 V.

201 Pb-exposed surface, resulting in an improved open-circuit voltage from 1.10 V to 1.16 V after passiva

202 , forward transmission coefficient S 21, and open-circuit voltage gain A v.

203 avorable electrochemical properties, such as open-circuit voltage hysteresis.

204 as been speculated to contribute to the high open-circuit voltage in several types of high efficiency

205 kier hydrophobic environment and led to high open-circuit voltage in the devices.

206 Typical strategies to enhance the open-circuit voltage involve tuning the HOMO and LUMO po

207 The open-circuit voltage is as high as that of our best refe

208 iodide (p-MeNH3PbI3) perovskite with a large open-circuit voltage is developed.

209 surface on the non-radiative fill factor and open-circuit voltage loss.

210 is also known to be the main contributor to open-circuit voltage losses.

211 The open-circuit voltage obtained is as high as 1.18 V, whic

212 short-circuit current of 1.3 muA and a large open-circuit voltage of 0.61 V under visible light illum

213 ell voltage of 0.52 V and in human blood; an open-circuit voltage of 0.65 V, a maximum power density

214 e BFC were obtained: in phosphate buffer; an open-circuit voltage of 0.68 V, a maximum power density

215 ort-circuit current values of 14.2 mA/cm(2), open-circuit voltage of 0.7 V, and a broad external quan

216 arbon nanotube yarn biofuel cells provide an open-circuit voltage of 0.70 V, and a maximum areal powe

217 f up to 9.58% with a fill factor of 0.63, an open-circuit voltage of 0.73 V, and a very high short-ci

218 , a short-circuit current of 14 mA/cm(2), an open-circuit voltage of 0.74 V, and a fill factor of 58%

219 conversion efficiency of 20.09% with a high open-circuit voltage of 0.88 V, a fill factor of 79.74%,

220 Corresponding solar cells featured a high open-circuit voltage of 0.9 V, a fill factor around 0.6,

221 conversion efficiency of 7.03% with a large open-circuit voltage of 0.95 V without using any additiv

222 conversion efficiency of 11.08% with a high open-circuit voltage of 0.988 V.

223 lls with 11.0 +/- 0.4% efficiency and a high open-circuit voltage of 1.03 +/- 0.01 V.

224 wer conversion efficiency of over 14% and an open-circuit voltage of 1.06 V measured under reverse vo

225 onversion efficiency approaching 13% with an open-circuit voltage of 1.10 V, short-circuit current de

226 conversion efficiency of 21.38% with a high open-circuit voltage of 1.14 V.

227 PEA=C6H5(CH2)2NH3(+), MA=CH3NH3(+)) show an open-circuit voltage of 1.18 V and a power conversion ef

228 or blade-coated PSCs is demonstrated with an open-circuit voltage of 1.18 V, corresponding to a very

229 ng interface defects, the device exhibits an open-circuit voltage of 1.20 V and an efficiency of 3.97

230 iency of 21.9% for blade-coated PSCs with an open-circuit voltage of 1.20 V, corresponding to a recor

231 dal perovskite QD photovoltaic cells with an open-circuit voltage of 1.23 volts and efficiency of 10.

232 ptimum CsBr/KBr treatment demonstrate a high open-circuit voltage of 1.3 V, responsivity of 10.1 A W(

233 in the inorganic perovskite, yielding a high open-circuit voltage of 1.33 V and an external quantum e

234 ptide-based power generator that produces an open-circuit voltage of 1.4 V and a power density of 3.3

235 quantum efficiency reaching up to 44% and an open-circuit voltage of 1.61 V.

236 , this material is predicted to have a large open-circuit voltage of 1.7 V.

237 The prototype device provides a peak-to-peak open-circuit voltage of 157 V and instantaneous short-ci

238 drop of 400 muL alone could generate a peak open-circuit voltage of 42 V under a 0.25 Hz vibration.

239 These solar cells also exhibited an open-circuit voltage of 547.7 mV, a short-circuit curren

240 ort-circuit current of 32.6 pA mm(-2) and an open-circuit voltage of 78 mV, providing for a maximum p

241 The relatively high open-circuit voltage of 832 mV and fill factor of 0.7 fo

242 r-conversion-efficiency of 7.26% with a high open-circuit voltage of approximately 1 V and a striking

243 actors of up to 84%, while enabling a tandem open-circuit voltage of as high as 1.92 volts.

244 e from 3.56 to 3.37 A and an increase in the open-circuit voltage of cells from 60 mV to 2.10 V after

245 potentially important route to enhancing the open-circuit voltage of organic photovoltaics.

246 esence reduces the short-circuit current and open-circuit voltage of solar cells based on blends of P

247 At the same time, the open-circuit voltage of the device remains unaffected.

248 neration of photo-oxidized dye molecules and open-circuit voltage of the device.

249 lecular orbitals to be tuned to maximize the open-circuit voltage of the devices but also controls th

250 y from human motion underwater and output an open-circuit voltage over 10 V.

251 synthesis is another key for realizing high open-circuit voltage perovskite solar cells without hole

252 ocenium, explaining the large discrepancy in open-circuit voltage potentials between these two redox

253 electronic alloy states that can adjust the open-circuit voltage provides the underlying basis of te

254 Under a 2.5 Hz vibration, the peak open-circuit voltage reached 115 V under an external bia

255 f the photocurrent spectral response and the open-circuit voltage show that the HOMO and LUMO levels

256 esent an alternative approach to improve the open-circuit voltage through the use of a zinc chlorodip

257 ate an energy-harvesting application with an open-circuit voltage up to 7 V and a power density up to

258 eveals a molecular design avenue to increase open-circuit voltage while retaining the short-circuit c

259 ating in human tears were registered: 0.57 V open-circuit voltage, about 1 muW cm(-2) maximum power d

260 ng to improvements in short-circuit current, open-circuit voltage, and fill factor.

261 t is achieved by synergistic improvements in open-circuit voltage, charge generation, and charge tran

262 The open-circuit voltage, compared to the best spiro-OMeTAD

263 The relation between open-circuit voltage, dark current, and noise current is

264 s and results in substantial improvements in open-circuit voltage, fill factor, and an increased powe

265 mum electrical power, short-circuit current, open-circuit voltage, recombination rates, and variation

266 Thus, IOIC2-based OSCs show higher values in open-circuit voltage, short-circuit current density, fil

267 ltaic short-circuit current density and good open-circuit voltage, so that ITIC-6F achieves the highe

268 obtaining polymer solar cells with a higher open-circuit voltage, while 4,7-dithien-2-yl-2,1,3-benzo

269 d by the heavy metal as peaks or dips in the open-circuit voltage.

270 tandem efficiencies of 17.0% with >1.65-volt open-circuit voltage.

271 ation length and orbital energies, and hence open-circuit voltage.

272 but a large-bandgap donor to realize a high open-circuit voltage.

273 nalogue while still maintaining an identical open-circuit voltage.

274 s, resulting in a substantial enhancement in open-circuit voltage.

275 ce built-in potential, and consequently, the open-circuit voltage.

276 ed by photoinduced phase segregation and low open-circuit voltage.

277 T energy, which critically relates to device open-circuit voltage.

278 conversion and mechanical sensing with high open circuit voltages (>10 V).

279 onversion efficiencies, those displaying low open circuit voltages are better matched to catalysts wi

280 In contrast, PV cells possessing high open circuit voltages are largely insensitive to the cat

281 Proof-of-concept cells display open circuit voltages of approximately 0.7 V and peak po

282 th rates ranged from 35 to 309 um h(-1) with open circuit voltages ranging from 1.04 to 1.07 V.

283 unction (BHJ) PM6:Y6 system can achieve high open-circuit voltages (V(OC) ) while maintaining excepti

284 The open-circuit voltages (VOC) tracked these kreg values.

285 leakage currents of approximately 1 fA, and open-circuit voltages and fill-factors up to 0.5 V and 7

286 radiative recombination, resulting in larger open-circuit voltages and higher radiative efficiencies.

287 ber of NWs, as well as retention of the high open-circuit voltages and short-circuit current densitie

288 ular orbital (LUMO) levels, and hence higher open-circuit voltages can be observed in the correspondi

289 ltaic power conversion efficiencies and high-open-circuit voltages for solution-processed CIS and CZG

290 backbones have been shown to achieve larger open-circuit voltages in solar cells, though with decrea

291 The high open-circuit voltages indicate that high material qualit

292 nder light, the photovoltaic devices exhibit open-circuit voltages of 0.44 V, short-circuit current d

293 ch power conversion efficiencies of 8.5% and open-circuit voltages of 0.97 V in BHJ devices with PC71

294 we fabricated perovskite cells that reached open-circuit voltages of 1.2 volts and power conversion

295 DBP/ZCl cells exhibit open-circuit voltages of 1.33 V compared to 0.88 V for a

296 Low open-circuit voltages significantly limit the power conv

297 Here we report the highest open-circuit voltages to date for colloidal QD based sol

298 ces reduce device hysteresis and improve the open-circuit voltages to values up to 1.20 V, resulting

299 rs the polymer HOMO level, resulting in high open-circuit voltages well exceeding 0.7 V.

300 within the perovskite layer and allows high open-circuit voltages.

301 photogenerated electrons and to achieve high open-circuit voltages.