Drift Velocity and Drift Mobility Measurement in Organic Semiconductors Using Pulse Voltage

2009 ◽  
pp. 29-44 ◽  
Author(s):  
Debarshi Basu ◽  
Ananth Dodabalapur
Keyword(s):  
Organic Semiconductors ◽  
Drift Velocity ◽  
Drift Mobility ◽  
Pulse Voltage ◽  
Mobility Measurement

Lead Halide Perovskites as Charge Generation Layers for Electron Mobility Measurement in Organic Semiconductors

2017 ◽  
Vol 9 (48) ◽  
pp. 42011-42019 ◽  
Author(s):  
John A. Love ◽  
Markus Feuerstein ◽  
Christian M. Wolff ◽  
Antonio Facchetti ◽  
Dieter Neher
Keyword(s):  
Organic Semiconductors ◽  
Electron Mobility ◽  
Charge Generation ◽  
Mobility Measurement ◽  
Halide Perovskites ◽  
Lead Halide

scholarly journals ELECTRON DRIFT MOBILITY MEASUREMENT IN UNDOPED TRIODE DC SPUTTERED a-Si : H

1981 ◽  
Vol 42 (C4) ◽  
pp. C4-163-C4-166
Author(s):  
J. F. Peyre ◽  
J. Baixeras ◽  
D. Mencaraglia ◽  
P. Andro ◽  
C. Longeaud
Keyword(s):  
Drift Mobility ◽  
Electron Drift ◽  
Mobility Measurement ◽  
Electron Drift Mobility

Direct drift mobility measurement in corona charged polyethylene

1977 ◽  
Vol 3 (1-3) ◽  
pp. 187-193 ◽  
Author(s):  
M.M. Perlman ◽  
T.J. Sonnonstine ◽  
J.A.St. Pierre
Keyword(s):  
Drift Mobility ◽  
Mobility Measurement

Drift Mobility Measurement of Se Single Crystal by Light Pulse Technique

1977 ◽  
Vol 16 (12) ◽  
pp. 2277-2278
Author(s):  
Takao Kawamura ◽  
Masamichi Yamanishi ◽  
Youzi Hino
Keyword(s):  
Single Crystal ◽  
Light Pulse ◽  
Drift Mobility ◽  
Pulse Technique ◽  
Mobility Measurement

New Method of Mobility Measurement for Organic Semiconductors by Optoelectronic Coupling

2012 ◽  
Vol 116 (8) ◽  
pp. 5235-5239 ◽  
Author(s):  
Dong Li ◽  
Guifang Dong ◽  
Lian Duan ◽  
Liduo Wang ◽  
Yong Qiu
Keyword(s):  
Organic Semiconductors ◽  
New Method ◽  
Mobility Measurement

Energetic Control of Redox-Active Polymers Towards Safe Organic Bioelectronic Materials

2019 ◽  
Author(s):  
Alexander Giovannitti ◽  
Reem B. Rashid ◽  
Quentin Thiburce ◽  
Bryan D. Paulsen ◽  
Camila Cendra ◽  
...  
Keyword(s):  
Molecular Oxygen ◽  
Organic Semiconductors ◽  
Side Reaction ◽  
Semiconducting Polymers ◽  
Side Reactions ◽  
Redox Active ◽  
Donor Acceptor ◽  
Electrochemical Devices ◽  
Biological Environment ◽  
Device Operation

<p>Avoiding faradaic side reactions during the operation of electrochemical devices is important to enhance the device stability, to achieve low power consumption, and to prevent the formation of reactive side‑products. This is particularly important for bioelectronic devices which are designed to operate in biological systems. While redox‑active materials based on conducting and semiconducting polymers represent an exciting class of materials for bioelectronic devices, they are susceptible to electrochemical side‑reactions with molecular oxygen during device operation. We show that this electrochemical side reaction yields hydrogen peroxide (H<sub>2</sub>O<sub>2</sub>), a reactive side‑product, which may be harmful to the local biological environment and may also accelerate device degradation. We report a design strategy for the development of redox-active organic semiconductors based on donor-acceptor copolymers that prevent the formation of H<sub>2</sub>O<sub>2</sub> during device operation. This study elucidates the previously overlooked side-reactions between redox-active conjugated polymers and molecular oxygen in electrochemical devices for bioelectronics, which is critical for the operation of electrolyte‑gated devices in application-relevant environments.</p>

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