Cargando…

Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties

Recently, organic polysulfides have been synthesized as cathode active materials exceeding the battery performance of sulfur. However, the conventional organic polysulfides have exhibited capacities lower than the theoretical capacity of sulfur because the π-organic moieties do not conjugate with th...

Descripción completa

Detalles Bibliográficos
Autores principales: Shimizu, Takeshi, Tanifuji, Naoki, Nishio, Kosuke, Tanaka, Yuma, Tsukaguchi, Yuta, Tsubouchi, Kentaro, Nakamura, Fumiya, Shokura, Naoko, Noguchi, Mariko, Fujimori, Hiroki, Kimura-Suda, Hiromi, Date, Yusuke, Aoki, Kaoru, Yoshikawa, Hirofumi
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2023
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9866748/
https://www.ncbi.nlm.nih.gov/pubmed/36679217
http://dx.doi.org/10.3390/polym15020335
_version_ 1784876168994881536
author Shimizu, Takeshi
Tanifuji, Naoki
Nishio, Kosuke
Tanaka, Yuma
Tsukaguchi, Yuta
Tsubouchi, Kentaro
Nakamura, Fumiya
Shokura, Naoko
Noguchi, Mariko
Fujimori, Hiroki
Kimura-Suda, Hiromi
Date, Yusuke
Aoki, Kaoru
Yoshikawa, Hirofumi
author_facet Shimizu, Takeshi
Tanifuji, Naoki
Nishio, Kosuke
Tanaka, Yuma
Tsukaguchi, Yuta
Tsubouchi, Kentaro
Nakamura, Fumiya
Shokura, Naoko
Noguchi, Mariko
Fujimori, Hiroki
Kimura-Suda, Hiromi
Date, Yusuke
Aoki, Kaoru
Yoshikawa, Hirofumi
author_sort Shimizu, Takeshi
collection PubMed
description Recently, organic polysulfides have been synthesized as cathode active materials exceeding the battery performance of sulfur. However, the conventional organic polysulfides have exhibited capacities lower than the theoretical capacity of sulfur because the π-organic moieties do not conjugate with the sulfur chains. In this work, the organopolysulfides, synthesized via inverse vulcanization using disulfide compounds, exhibited higher capacities equal to the theoretical capacity of sulfur because of enhanced electronic conductivity based on the conjugation between organic moieties and sulfur chains. Furthermore, the organopolysulfide including 1,3-dhitiol-2-thione moiety exhibited the highest capacity because of the enhanced electronic conductivity. This finding will pave the way to develop next-generation rechargeable batteries.
format Online
Article
Text
id pubmed-9866748
institution National Center for Biotechnology Information
language English
publishDate 2023
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-98667482023-01-22 Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties Shimizu, Takeshi Tanifuji, Naoki Nishio, Kosuke Tanaka, Yuma Tsukaguchi, Yuta Tsubouchi, Kentaro Nakamura, Fumiya Shokura, Naoko Noguchi, Mariko Fujimori, Hiroki Kimura-Suda, Hiromi Date, Yusuke Aoki, Kaoru Yoshikawa, Hirofumi Polymers (Basel) Article Recently, organic polysulfides have been synthesized as cathode active materials exceeding the battery performance of sulfur. However, the conventional organic polysulfides have exhibited capacities lower than the theoretical capacity of sulfur because the π-organic moieties do not conjugate with the sulfur chains. In this work, the organopolysulfides, synthesized via inverse vulcanization using disulfide compounds, exhibited higher capacities equal to the theoretical capacity of sulfur because of enhanced electronic conductivity based on the conjugation between organic moieties and sulfur chains. Furthermore, the organopolysulfide including 1,3-dhitiol-2-thione moiety exhibited the highest capacity because of the enhanced electronic conductivity. This finding will pave the way to develop next-generation rechargeable batteries. MDPI 2023-01-09 /pmc/articles/PMC9866748/ /pubmed/36679217 http://dx.doi.org/10.3390/polym15020335 Text en © 2023 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Shimizu, Takeshi
Tanifuji, Naoki
Nishio, Kosuke
Tanaka, Yuma
Tsukaguchi, Yuta
Tsubouchi, Kentaro
Nakamura, Fumiya
Shokura, Naoko
Noguchi, Mariko
Fujimori, Hiroki
Kimura-Suda, Hiromi
Date, Yusuke
Aoki, Kaoru
Yoshikawa, Hirofumi
Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title_full Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title_fullStr Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title_full_unstemmed Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title_short Ultra-High-Capacity Lithium Metal Batteries Based on Multi-Electron Redox Reaction of Organopolysulfides including Conductive Organic Moieties
title_sort ultra-high-capacity lithium metal batteries based on multi-electron redox reaction of organopolysulfides including conductive organic moieties
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9866748/
https://www.ncbi.nlm.nih.gov/pubmed/36679217
http://dx.doi.org/10.3390/polym15020335
work_keys_str_mv AT shimizutakeshi ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT tanifujinaoki ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT nishiokosuke ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT tanakayuma ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT tsukaguchiyuta ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT tsubouchikentaro ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT nakamurafumiya ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT shokuranaoko ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT noguchimariko ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT fujimorihiroki ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT kimurasudahiromi ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT dateyusuke ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT aokikaoru ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties
AT yoshikawahirofumi ultrahighcapacitylithiummetalbatteriesbasedonmultielectronredoxreactionoforganopolysulfidesincludingconductiveorganicmoieties