Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review DOI Creative Commons
Abniel Machín,

María Cotto,

Francisco J. Peón-Díaz

и другие.

Batteries, Год журнала: 2024, Номер 10(7), С. 255 - 255

Опубликована: Июль 17, 2024

Solid-state batteries (SSBs) have emerged as a promising alternative to conventional lithium-ion batteries, with notable advantages in safety, energy density, and longevity, yet the environmental implications of their life cycle, from manufacturing disposal, remain critical concern. This review examines impacts associated production, use, end-of-life management SSBs, starting extraction processing raw materials, highlights significant natural resource consumption, emissions. A comparative analysis traditional battery underscores hazards novel materials specific SSBs. The also assesses operational impact SSBs by evaluating efficiency carbon footprint comparison followed an exploration challenges, including disposal risks, regulatory frameworks, shortcomings existing waste practices. focus is placed on recycling reuse strategies, reviewing current methodologies like mechanical, pyrometallurgical, hydrometallurgical processes, along emerging technologies that aim overcome barriers, while analyzing economic technological challenges these processes. Additionally, real-world case studies are presented, serving benchmarks for best practices highlighting lessons learned field. In conclusion, paper identifies research gaps future directions reducing underscoring need interdisciplinary collaboration advance sustainable SSB contribute balancing advancements stewardship, thereby supporting transition more future.

Язык: Английский

Interfacial Layers to Enable Recyclability of All-Solid-State Lithium Batteries DOI
Zhong‐Hua Chen,

Po-Hao Lai,

Bryan D. Vogt

и другие.

ACS Energy Letters, Год журнала: 2024, Номер 9(7), С. 3324 - 3334

Опубликована: Июнь 12, 2024

All-solid-state batteries provide opportunities for safe and robust energy storage solutions. An emerging issue is the final disposal of spent due to required production scale, limited lifetime, lack recycling methods. Here, we propose an architectural design recyclable all-solid-state lithium based on interfacial layers at electrodes. Flexible bis(fluorosulfonyl)imide doped polypropylene carbonate (PPC-LiFSI) improve physical contacts Li metal Li7La3Zr2O12 (LLZO)-based composite electrolytes interfaces serve as sacrificial enable clean separation direct recycling. Recovered components demonstrate preservation electrochemical properties through reintegration into batteries. Fully recovered full cells with Li-metal LTO anodes show 92.5% 93.8% original discharge capacity 0.05 C room temperature. We approach fulfill long-term goals sustainable devices.

Язык: Английский

Процитировано

8

Advancing lithium-ion battery manufacturing: novel technologies and emerging trends DOI
Akbar Ghasemi Yeklangi,

Adel Ghafari,

Faeze Asgari Sima

и другие.

Journal of Applied Electrochemistry, Год журнала: 2024, Номер unknown

Опубликована: Июнь 15, 2024

Язык: Английский

Процитировано

8

2024 roadmap for sustainable batteries DOI Creative Commons
Maria‐Magdalena Titirici, Patrik Johansson, Maria Crespo Ribadeneyra

и другие.

Journal of Physics Energy, Год журнала: 2024, Номер 6(4), С. 041502 - 041502

Опубликована: Авг. 6, 2024

Abstract Modern batteries are highly complex devices. The cells contain many components—which in turn all have variations, both terms of chemistry and physical properties. A few examples: the active materials making electrodes coated on current collectors using solvents, binders additives; multicomponent electrolyte, contains salts, electrolyte can also be a solid ceramic, polymer or glass material; separator, which made fibres, polymeric, composite, etc. Moving up scale these components assembled different formats geometries, coin Swagelok for funamental testing understanding, pouch, prismatic cylindrical application. Given this complexity dictated by so there is no wonder that addressing crucial issue true sustainability an extremely challenging task. How we make sure each component sustainable? performance delivered more sustainable battery components? What actions do need to take address properly? actually qualify quantify best way possible? And perhaps most importantly; how work—academia industry together—to enable latter manufacture truly cleaner future? This Roadmap assembles views from experts academia, industry, research institutes, other organisations could should achieve future. palette has colours: it discusses very definition battery, diversification beyond lithium-ion (LIBs), importance assessments, threat scarcity raw possible impact future manufacturing LIBs, possibility electrode chemistries as well manufacturing, important role new chemistries, AI automation discovery developimg circular economy.

Язык: Английский

Процитировано

8

Solid-state inorganic electrolytes for next generation potassium batteries DOI Creative Commons

Jonas Grill,

Simon Krarup Steensen,

Diana Lucia Quintero Castro

и другие.

Communications Materials, Год журнала: 2024, Номер 5(1)

Опубликована: Июль 20, 2024

Abstract Necessary diversification of battery chemistry and related cell design call for investigation more exotic materials configurations, such as solid-state potassium batteries. In the core their development lies necessity discovering new electrochemically efficient inorganic electrolytes. This review focuses on suitable chemical structures, fundamental properties status synthesis, electrochemical performance, contemporary characterization techniques modeling efforts

Язык: Английский

Процитировано

7

Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review DOI Creative Commons
Abniel Machín,

María Cotto,

Francisco J. Peón-Díaz

и другие.

Batteries, Год журнала: 2024, Номер 10(7), С. 255 - 255

Опубликована: Июль 17, 2024

Solid-state batteries (SSBs) have emerged as a promising alternative to conventional lithium-ion batteries, with notable advantages in safety, energy density, and longevity, yet the environmental implications of their life cycle, from manufacturing disposal, remain critical concern. This review examines impacts associated production, use, end-of-life management SSBs, starting extraction processing raw materials, highlights significant natural resource consumption, emissions. A comparative analysis traditional battery underscores hazards novel materials specific SSBs. The also assesses operational impact SSBs by evaluating efficiency carbon footprint comparison followed an exploration challenges, including disposal risks, regulatory frameworks, shortcomings existing waste practices. focus is placed on recycling reuse strategies, reviewing current methodologies like mechanical, pyrometallurgical, hydrometallurgical processes, along emerging technologies that aim overcome barriers, while analyzing economic technological challenges these processes. Additionally, real-world case studies are presented, serving benchmarks for best practices highlighting lessons learned field. In conclusion, paper identifies research gaps future directions reducing underscoring need interdisciplinary collaboration advance sustainable SSB contribute balancing advancements stewardship, thereby supporting transition more future.

Язык: Английский

Процитировано

6