Life cycle assessment of an innovative lithium-ion battery recycling route: A feasibility study DOI
Francine Duarte Castro, Eric Mehner, Laura Cutaia

и другие.

Journal of Cleaner Production, Год журнала: 2022, Номер 368, С. 133130 - 133130

Опубликована: Июль 15, 2022

Язык: Английский

Critical review of life cycle assessment of lithium-ion batteries for electric vehicles: A lifespan perspective DOI
Xin Lai,

Quanwei Chen,

Xiaopeng Tang

и другие.

eTransportation, Год журнала: 2022, Номер 12, С. 100169 - 100169

Опубликована: Апрель 16, 2022

Язык: Английский

Процитировано

343

Environmental impact of direct lithium extraction from brines DOI Open Access
María L. Vera, Walter R. Torres, Claudia Inés Galli

и другие.

Nature Reviews Earth & Environment, Год журнала: 2023, Номер 4(3), С. 149 - 165

Опубликована: Фев. 23, 2023

Язык: Английский

Процитировано

329

Sustainable Electric Vehicle Batteries for a Sustainable World: Perspectives on Battery Cathodes, Environment, Supply Chain, Manufacturing, Life Cycle, and Policy DOI Creative Commons
Zhijie Yang, Haibo Huang, Feng Lin

и другие.

Advanced Energy Materials, Год журнала: 2022, Номер 12(26)

Опубликована: Май 10, 2022

Abstract Li‐ion batteries (LIBs) can reduce carbon emissions by powering electric vehicles (EVs) and promoting renewable energy development with grid‐scale storage. However, LIB production electricity generation still heavily rely on fossil fuels at present, resulting in major environmental concerns. Are LIBs as environmentally friendly sustainable expected the current stage? In past 5 years, a skyrocketing growth of EV market has been witnessed. have garnered huge attention from academia, industry, government, non‐governmental organizations, investors, general public. Tremendous volumes are already implemented EVs today, continuing, exponential for years to come. When reach their end‐of‐life next decades, what technologies be place enable second‐life or recycling batteries? Herein, life cycle assessment studies examined evaluate impact LIBs, compared internal combustion engine regarding sustainability. To provide holistic view development, this Perspective provides insights into materials manufacturing, recycling, legislation policy, beyond. Last but not least, future charging infrastructures light emerging envisioned.

Язык: Английский

Процитировано

184

Fundamentals, status and challenges of direct recycling technologies for lithium ion batteries DOI
Haocheng Ji, Junxiong Wang, Jun Ma

и другие.

Chemical Society Reviews, Год журнала: 2023, Номер 52(23), С. 8194 - 8244

Опубликована: Янв. 1, 2023

Unlike conventional recycling methods that focus on 'extraction', direct aims for 'repair', which necessitates selecting and designing a strategy based the failure mechanisms of spent lithium ion battery materials.

Язык: Английский

Процитировано

141

Investigating carbon footprint and carbon reduction potential using a cradle-to-cradle LCA approach on lithium-ion batteries for electric vehicles in China DOI

Quanwei Chen,

Xin Lai,

Huanghui Gu

и другие.

Journal of Cleaner Production, Год журнала: 2022, Номер 369, С. 133342 - 133342

Опубликована: Июль 31, 2022

Язык: Английский

Процитировано

137

Synergistic Engineering of Heterointerface and Architecture in New‐Type ZnS/Sn Heterostructures In Situ Encapsulated in Nitrogen‐Doped Carbon Toward High‐Efficient Lithium‐Ion Storage DOI

Chengzhi Ke,

Ruiwen Shao,

Yinggan Zhang

и другие.

Advanced Functional Materials, Год журнала: 2022, Номер 32(38)

Опубликована: Июль 8, 2022

Abstract Engineering heterogeneous composite electrodes consisting of multiple active components for meeting various electrochemical and structural demands have proven indispensable significantly boosting the performance lithium‐ion batteries (LIBs). Here, a novel design ZnS/Sn heterostructures with rich phase boundaries concurrently encapsulated into hierarchical interconnected porous nitrogen‐doped carbon frameworks (ZnS/Sn@NPC) working as superior anode LIBs, is showcased. These ZnS/Sn@NPC abundant heterointerfaces, unique architecture, well highly conductive N‐doped C matrix can provide plentiful Li + ‐storage sites, facilitate charge transfer, reinforce stability. Accordingly, as‐fabricated LIBs has achieved high reversible capacity (769 mAh g −1 , 150 cycles at 0.1 A ), high‐rate capability long cycling stability (600 cycles, 645.3 1 92.3% retention). By integrating in situ/ex situ microscopic spectroscopic characterizations theoretical simulations, multiscale in‐depth fundamental understanding underlying reaction mechanisms origins enhanced explicitly elucidated. Furthermore, full cell assembled prelithiated LiFePO 4 cathode displays rate performance. This work highlights significance chemical heterointerface engineering rationally designing high‐performance LIBs.

Язык: Английский

Процитировано

129

Biofuels, electrofuels, electric or hydrogen?: A review of current and emerging sustainable aviation systems DOI Creative Commons
Pimchanok Su-Ungkavatin, Ligia Tiruta-Barna, Lorie Hamelin

и другие.

Progress in Energy and Combustion Science, Год журнала: 2023, Номер 96, С. 101073 - 101073

Опубликована: Фев. 11, 2023

Язык: Английский

Процитировано

106

Comparative life cycle greenhouse gas emissions assessment of battery energy storage technologies for grid applications DOI

Xiaoqu Han,

Yanxin Li,

Lu Nie

и другие.

Journal of Cleaner Production, Год журнала: 2023, Номер 392, С. 136251 - 136251

Опубликована: Фев. 2, 2023

Язык: Английский

Процитировано

77

Costs, carbon footprint, and environmental impacts of lithium-ion batteries – From cathode active material synthesis to cell manufacturing and recycling DOI Creative Commons
Moritz Gutsch, Jens Leker

Applied Energy, Год журнала: 2023, Номер 353, С. 122132 - 122132

Опубликована: Окт. 23, 2023

Strong growth in lithium-ion battery (LIB) demand requires a robust understanding of both costs and environmental impacts across the value-chain. Recent announcements LIB manufacturers to venture into cathode active material (CAM) synthesis recycling expands process segments under their influence. However, little research has yet provided combined impact assessments several To address this gap, we provide cost assessment life cycle (LCA), covering CAM synthesis, cell manufacturing hydrometallurgy recycling. 1 kWh capacity (NMC811-C) is chosen as functional unit. Results for United States show total $94.5 kWh−1, global warming potential (GWP) 64.5 kgCO2eq (normalizing weighing 16 categories) 4.0 × 10−12 kWh−1. Material use contributes 69% 93% impacts. Energy demand, meanwhile, accounts 35% GWP. Initially, adds 5 10% costs, GWP, Including credits, recycled substitutes new virgin material, shows benefits Combined benefit most from (−75%), followed by (−44%) GWP (−37%). Further, present comprehensive dashboard which reveals how different scenarios, such as, using wind power instead grid electricity, influence segments. Switching low-carbon energy, example, reduces more than would. Also, our that or low scrap are suitable options if reduction objective.

Язык: Английский

Процитировано

63

Gel polymer electrolytes for rechargeable batteries toward wide-temperature applications DOI Creative Commons
Xiaoyan Zhou,

Yifang Zhou,

Le Yu

и другие.

Chemical Society Reviews, Год журнала: 2024, Номер 53(10), С. 5291 - 5337

Опубликована: Янв. 1, 2024

Design principles, engineering strategies, challenges, and opportunities of gel polymer electrolytes for rechargeable batteries toward wide-temperature applications are thoroughly reviewed.

Язык: Английский

Процитировано

58