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Tailored Silicon/Carbon Compounds for Printed Li–Ion Anodes
Author(s) -
Sukkurji Parvathy Anitha,
Issac Ibrahim,
Singaraju Surya Abhishek,
Velasco Leonardo,
Hagmann Jasmin Aghassi,
Bessler Wolfgang,
Hahn Horst,
Botros Miriam,
Breitung Ben
Publication year - 2020
Publication title -
batteries and supercaps
Language(s) - English
Resource type - Journals
ISSN - 2566-6223
DOI - 10.1002/batt.202000052
Subject(s) - anode , materials science , silicon , electrolyte , lithium (medication) , carbon fibers , battery (electricity) , transistor , printed electronics , electrode , optoelectronics , electrochemistry , nanotechnology , composite material , inkwell , electrical engineering , power (physics) , chemistry , composite number , voltage , medicine , physics , engineering , quantum mechanics , endocrinology
Silicon (Si) has turned out to be a promising active material for next‐generation lithium‐ion battery anodes. Nevertheless, the issues known from Si as electrode material (pulverization effects, volume change etc.) are impeding the development of Si anodes to reach market maturity. In this study, we are investigating a possible application of Si anodes in low‐power printed electronic applications. Tailored Si inks are produced and the impact of carbon coating on the printability and their electrochemical behavior as printed Si anodes is investigated. The printed Si anodes contain active material loadings that are practical for powering printed electronic devices, like electrolyte gated transistors, and are able to show high capacity retentions. A capacity of 1754 mAh/g Si is achieved for a printed Si anode after 100 cycles. Additionally, the direct applicability of the printed Si anodes is shown by successfully powering an ink‐jet printed transistor.