Electrochemical Nernst modeling

Wang, Shunli; Fan, Yongcun; Stroe, Daniel‐Ioan; Fernandez, Carlos; Yu, Chunmei; Wen, Chenglu; Chen, Zonghai

doi:10.1016/b978-0-323-90472-8.00002-0

Cited by 3 publications

(2 citation statements)

References 40 publications

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“…Such augmented internal resistance generally results in heightened energy consumption. 79,80 The charging/discharging curves at different current densities are shown in Fig. 5d and S26 †.…”

Section: Resultsmentioning

confidence: 99%

Is (002) the only one that's important? An overall consideration of the main exposed crystallographic planes on a Zn anode for obtaining dendrite-free long-life zinc ion batteries

et al. 2023

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Section: Resultsmentioning

confidence: 99%

Is (002) the only one that's important? An overall consideration of the main exposed crystallographic planes on a Zn anode for obtaining dendrite-free long-life zinc ion batteries

et al. 2023

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“…The decrease in reaction speed can be visually reflected in the drop in battery discharge voltage. Every battery reaction can be described as aA + bb → cC + dD, and the Nernst equation [23] is…”

Section: Sluggish Kineticsmentioning

confidence: 99%

Failure Mechanism, Electrolyte Design, and Electrolyte/Electrode Interface Regulation for Low‐Temperature Zinc‐Based Batteries

et al. 2023

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With more renewable energy developed to satisfy the human need in the energy crisis, electricity storage is critical in power utilization and storage. Due to its high safety, high nature reserve, and high energy density, the zinc‐based battery is drawing increasing attention. Together with the expansion of human activities, the low‐temperature battery is developed to satisfy the power demand in extreme environments, and as a critical component, electrolytes shall have a low freezing point and satisfying electrochemical properties in cold conditions. In this review, the development of low‐temperature electrolytes for zinc‐based batteries will be comprehensively introduced. First, the failure mechanism of zinc‐based battery at low temperature will be illustrated. Second, five main types of low‐temperature electrolytes will be introduced in detail. Finally, the regulation of electrolyte/electrode surface at low temperature will be discussed. This review aims to provide a guideline for low‐temperature electrolyte design from the perspective of molecular behavior regulation.

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Development of a System for Recycling Used Batteries and Lead-Containing Batteries: Assessment of the Economic Effect with Minimising Damage to the Environment

Dmytriiev

Shevchenko

Kudryavtsev

et al. 2022

Scientific Horizons

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The relevance of the subject under study is determined by the issues of practical application of charging batteries and accumulators after the completion of the declared technical lifetime, in connection with the pollution problems due to lack of potential for normal disposal. The purpose of this study is to investigate the prospects of development and practical implementation of a system of recycling used batteries and lead-containing batteries, in the context of assessing the potential economic impact of minimising environmental damage while fully implementing the objective. The methodological framework of this study comprises a combination of quantitative and qualitative methods. The application of methods of analysis, synthesis, induction, and deduction in this paper provides sufficient information about the existing principles of recovery of lead-containing batteries and accumulators. The method of generalisation involves the implementation of a qualitative assessment of the data obtained in this study. The method of modelling provides the display of the results obtained using appropriate schemes and diagrams. The available publications of several researchers engaged in scientific development of the issues of disposal of spent lead batteries and accumulators were analysed. The factors of the economic effect that can be achieved by the high-quality recycling of lead-containing batteries were investigated. An approximate assessment of the economic effect with a given direction to minimise damage to the environment was formed. The results obtained in this paper and the conclusions formulated on their basis have practical significance in terms of the prospects of increasing the volume of production of secondary lead by recycling of used batteries and reducing damage to the environment, when it is uncontrollably contaminated by secondary products of their use

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Electrochemical Nernst modeling

Cited by 3 publications

References 40 publications

Is (002) the only one that's important? An overall consideration of the main exposed crystallographic planes on a Zn anode for obtaining dendrite-free long-life zinc ion batteries

Is (002) the only one that's important? An overall consideration of the main exposed crystallographic planes on a Zn anode for obtaining dendrite-free long-life zinc ion batteries

Failure Mechanism, Electrolyte Design, and Electrolyte/Electrode Interface Regulation for Low‐Temperature Zinc‐Based Batteries

Development of a System for Recycling Used Batteries and Lead-Containing Batteries: Assessment of the Economic Effect with Minimising Damage to the Environment

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