Author | Durmus, Yasin Emre | dc.contributor.author |
Author | Zhang, Huang | dc.contributor.author |
Author | Baakes, Florian | dc.contributor.author |
Author | Desmaizieres, Gauthier | dc.contributor.author |
Author | Hayun, Hagay | dc.contributor.author |
Author | Yang, Liangtao | dc.contributor.author |
Author | Kolek, Martin | dc.contributor.author |
Author | Küpers, Verena | dc.contributor.author |
Author | Janek, Jürgen | dc.contributor.author |
Author | Mandler, Daniel | dc.contributor.author |
Author | Passerini, Stefano | dc.contributor.author |
Author | Ein‐Eli, Yair | dc.contributor.author |
Date of accession | 2022-02-16T10:44:14Z | dc.date.accessioned |
Available in OPARU since | 2022-02-16T10:44:14Z | dc.date.available |
Date of first publication | 2020-05-04 | dc.date.issued |
Abstract | Promising battery concepts and chemistries that are often identified as “post‐Li” battery technologies are extensively discussed in terms of sustainability, safety, durability, performance, and targeted applications. The take‐home message of this progress report is that each battery chemistry can exist “side‐by‐side” with Li‐ion battery technologies. Therefore, the quest for a winning “post‐Li” battery technology is conceptually incorrect and should be reconsidered. In recent years, the electrochemical power sources community has launched massive research programs, conferences, and workshops on the “post Li battery era.” However, in this report it is shown that the quest for post Li‐ion and Li battery technologies is incorrect in its essence. This is the outcome of a three day discussion on the future technologies that could provide an answer to a question that many ask these days: Which are the technologies that can be regarded as alternative to Li‐ion batteries? The answer to this question is a rather surprising one: Li‐ion battery technology will be here for many years to come, and therefore the use of “post Li‐ion” battery technologies would be misleading. However, there are applications with needs for which Li‐ion batteries will not be able to provide complete technological solutions, as well as lower cost and sustainability. In these specific cases, other battery technologies will play a key role. Here, the term “side‐by‐side technologies” is coined alongside a discussion of its meaning. The progress report does not cover the topic of Li‐metal battery technologies, but covers the technologies of sodium‐ion, multivalent, metal–air, and flow batteries. | dc.description.abstract |
Language | en | dc.language.iso |
Publisher | Universität Ulm | dc.publisher |
License | CC BY-NC-ND 4.0 International | dc.rights |
Link to license text | https://creativecommons.org/licenses/by-nc-nd/4.0/ | dc.rights.uri |
Keyword | metal–air batteries | dc.subject |
Keyword | multivalent batteries | dc.subject |
Keyword | redox flow batteries | dc.subject |
Keyword | sodium ion batteries, side‐by‐side technologies | dc.subject |
Dewey Decimal Group | DDC 540 / Chemistry & allied sciences | dc.subject.ddc |
LCSH | Sodium ion batteries | dc.subject.lcsh |
Title | Side by side battery technologies with lithium‐ion based batteries | dc.title |
Resource type | Wissenschaftlicher Artikel | dc.type |
SWORD Date | 2020-12-09T19:32:04Z | dc.date.updated |
Version | publishedVersion | dc.description.version |
DOI | http://dx.doi.org/10.18725/OPARU-41845 | dc.identifier.doi |
URN | http://nbn-resolving.de/urn:nbn:de:bsz:289-oparu-41921-6 | dc.identifier.urn |
GND | Metall-Luft-Batterie | dc.subject.gnd |
GND | Redox-Akkumulator | dc.subject.gnd |
GND | Natrium-Ionen-Akkumulator | dc.subject.gnd |
Peer review | ja | uulm.peerReview |
DCMI Type | Text | uulm.typeDCMI |
Category | Publikationen | uulm.category |
In cooperation with | Helmholtz-Institut Ulm | uulm.cooperation |
In cooperation with | Forschungszentrum Jülich | uulm.cooperation |
In cooperation with | Karlsruher Institut für Technologie | uulm.cooperation |
In cooperation with | TU Braunschweig | uulm.cooperation |
In cooperation with | Albert-Ludwigs-Universität Freiburg | uulm.cooperation |
In cooperation with | Ben-Gurion University of the Negev | uulm.cooperation |
In cooperation with | Friedrich‐Schiller‐Universität Jena | uulm.cooperation |
In cooperation with | Humboldt-Universität zu Berlin | uulm.cooperation |
In cooperation with | Helmholtz-Zentrum Berlin für Materialien und Energie | uulm.cooperation |
In cooperation with | Universität Münster | uulm.cooperation |
In cooperation with | Justus-Liebig-Universität Giessen | uulm.cooperation |
In cooperation with | The Hebrew University of Jerusalem | uulm.cooperation |
DOI of original publication | 10.1002/aenm.202000089 | dc.relation1.doi |
Source - Title of source | Advanced Energy Materials | source.title |
Source - Place of publication | Wiley | source.publisher |
Source - Volume | 10 | source.volume |
Source - Issue | 24 | source.issue |
Source - Year | 2020 | source.year |
Source - Article number | 2000089 | source.articleNumber |
Source - ISSN | 1614-6832 | source.identifier.issn |
Source - eISSN | 1614-6840 | source.identifier.eissn |