Ethylene Glycol-Based Side Chain Length Engineering in Polythiophenes and its Impact on Organic Electrochemical Transistor Performance | Zendy

Maximilian Moser | Zendy; Lisa R. Savagian | Zendy; Achilleas Savva | Zendy; Micaela Matta | Zendy; James F. Ponder | Zendy; Tania C. Hidalgo | Zendy; David Ohayon | Zendy; Rawad K. Hallani | Zendy; Maryam Reisjalali | Zendy; Alessandro Troisi | Zendy; Andrew Wadsworth | Zendy; John R. Reynolds | Zendy; Sahika Inal | Zendy; Iain McCulloch | Zendy

Open Access

Ethylene Glycol-Based Side Chain Length Engineering in Polythiophenes and its Impact on Organic Electrochemical Transistor Performance

Author(s) -

Maximilian Moser,

Lisa R. Savagian,

Achilleas Savva,

Micaela Matta,

James F. Ponder,

Tania C. Hidalgo,

David Ohayon,

Rawad K. Hallani,

Maryam Reisjalali,

Alessandro Troisi,

Andrew Wadsworth,

John R. Reynolds,

Sahika Inal,

Iain McCulloch

Publication year - 2020

Publication title -

chemistry of materials

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 3.741

H-Index - 375

eISSN - 1520-5002

pISSN - 0897-4756

DOI - 10.1021/acs.chemmater.0c02041

Subject(s) - side chain , ethylene glycol , materials science , polymer , alkyl , conjugated system , molecular engineering , nanotechnology , electrochemistry , conductive polymer , ionic conductivity , ionic bonding , organic electronics , thin film transistor , transistor , polymer chemistry , chemical engineering , chemistry , organic chemistry , electrolyte , ion , electrode , composite material , electrical engineering , voltage , engineering , layer (electronics)

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