Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review
Abstract
:1. Introduction
2. Environmental Impact of SSB Manufacture
2.1. Raw Material Extraction and Processing
2.2. Manufacturing Process of SSBs
2.3. Potential Environmental Hazards Associated with Novel Materials Used in SSBs
3. Usage and Operational Environmental Impact
3.1. Energy Efficiency of SSBs in Application
3.2. Comparison of the Operational Environmental Footprint with Traditional Battery Technologies
3.3. Life Cycle Analysis and Overall Carbon Footprint during Operational Phase
4. End of Life and Disposal of SSBs
4.1. Challenges in the Disposal of SSBs
4.2. Environmental Risks Associated with Landfills and Incineration
4.3. Regulations and Policies Governing Battery Disposal
5. Recycling and Reuse of SSBs
5.1. Overview of Existing Recycling Methods for Batteries
5.2. Innovations in Recycling: Emerging Technologies and Methodologies
5.3. Case Studies and Real-World Examples
5.4. Analysis of Successful Implementations of Recycling and Sustainable Practices in SSB Life Cycle Management
5.5. Lessons Learned and Best Practices
6. Future Directions and Research Needs
6.1. Identification of Gaps in Current Research and Technology
6.2. Potential Avenues for Future Innovations in Recycling and Reducing Environmental Impact
6.3. The Role of Interdisciplinary Research in Advancing Sustainable SSB Technologies
7. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Abbreviations
SSB | solid-state battery |
EV | electric vehicle |
Pb-A | lead-acid |
LIB | lithium-ion battery |
GHG | greenhouse gas |
CED | cumulative energy demand |
GWP100 | global warning potential for 100-year time horizon |
CSP | cold sintering process |
LCA | life cycle analysis |
RCRA | Resource Conservation and Recovery Act |
MIIT | Ministry of Industry and Information Technology |
TEPCO | Tokyo Electric Power Company |
CASIP | China All-Solid-State Battery Innovation Collaboration Platform |
LCO | lithium cobalt oxide (LiCoO2) |
LFP | lithium iron phosphate (LiFePO4/C) |
NCM | lithium nickel cobalt manganese oxide (LiNiCoMnO2) |
PV-EV | photovoltaic electric vehicle |
SPE | solid polymer electrolyte |
LiTFSI | lithium bis(trifluoromethanesulfonyl)imide |
NMF | N-methylformamide |
LLZTO | Li6.5La3Zr1.5Ta0.5O12 garnet electrolyte |
MOF | metal–organic framework |
OEM | original equipment manufacturer |
CE | circular economy |
CBM | circular business model |
EU | European Union |
BIGP | battery identity global passport |
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Solid-State Batteries (SSBs) | Conventional Lithium-Ion Batteries (LIBs) | |
---|---|---|
Technology | SSBs represent a significant advancement over LIBs by replacing traditional liquid or gel electrolytes with solid alternatives. This transition allows for greater design flexibility and potential for higher energy densities. | LIBs use liquid electrolytes (typically lithium salts in organic solvents) to facilitate ion movement between electrodes. They have been foundational in portable electronics and the electric vehicle industry for decades. |
Advantages | Higher energy density: Solid electrolytes enable the use of more active materials, resulting in batteries that can store more energy per unit volume or weight. | Established infrastructure: LIBs benefit from established manufacturing processes and infrastructure for large-scale production. They also have well-developed recycling methods, supporting their economic and environmental sustainability. |
Improved safety: solid-state design reduces the risk of electrolyte leakage, thermal runaway, and fire hazards associated with liquid electrolytes. | ||
Longer lifespan: enhanced chemical stability of solid electrolytes contributes to longer cycle life and durability. | ||
Efficiency across conditions: solid-state architecture enhances battery efficiency across a wider range of temperatures and operating conditions. | ||
Potential for faster charging: the solid-state design allows for faster ion transport, potentially enabling quicker charging times compared to LIBs. | ||
Challenges | Interface dynamics: solid electrolytes require precise engineering to maintain stable interfaces with electrodes, which can affect battery performance and longevity. | Safety concerns: liquid electrolytes are prone to leakage and pose fire risks under certain conditions. |
Material science innovation: continued research is needed to optimize solid electrolyte materials for performance, cost, and scalability. | Lower energy density: limited by the capacity of liquid electrolytes to store ions, which restricts energy storage capacity relative to SSBs. | |
Environmental impact: concerns include the ecological footprint of raw material extraction (e.g., lithium, cobalt, nickel) for solid electrolytes and the energy-intensive manufacturing processes for solid electrolytes. | Operating efficiency: LIBs may exhibit lower efficiency and performance variability across different temperature ranges compared to solid-state designs. | |
Environmental Impact | Material extraction: mining of materials like lithium, cobalt, and nickel for solid electrolytes can have significant environmental impacts, including habitat disruption, water pollution, and carbon emissions. | Material extraction: extraction of lithium and other materials for liquid electrolytes can involve environmentally sensitive mining practices. |
Energy intensity: manufacturing processes for solid-state batteries, such as high-temperature sintering for solid electrolytes, contribute to their carbon footprint. | Production processes: energy-intensive manufacturing processes contribute to LIBs’ carbon footprint and environmental impact. | |
Recycling challenges: developing effective recycling methods for SSBs is crucial to minimize waste and recover valuable materials due to the complex composition of solid-state battery cells. | Recycling and disposal: LIBs have established recycling infrastructure, but challenges remain in efficiently recovering materials and reducing waste in their end-of-life management. |
Manufacturing Process | Solid-State Batteries (SSBs) | Conventional Lithium-Ion Batteries (LIBs) |
---|---|---|
Electrode Preparation | Often involves the use of dry processes to avoid solvent interactions with the solid electrolyte. Coating and compressing techniques need to account for the brittleness of solid electrolytes. | Typically involves slurry casting processes where active materials, binders, and conductive additives are mixed in a solvent. |
Electrolyte Integration | Solid electrolytes are integrated either as a separate layer or combined with electrodes in a composite structure. Processes include physical vapor deposition, sintering, or cold pressing. | Liquid electrolytes are added after assembling the cell components, allowing for impregnation into the porous electrode structure. |
Cell Assembly | Requires careful handling to prevent damage to solid electrolyte layers. Layers are laminated under heat and pressure to ensure good contact and ionic conductivity. | Assembly in dry environments to prevent moisture interaction; electrodes and separators are stacked and rolled. |
Sealing and Encapsulation | High-integrity sealing is critical to prevent moisture ingress, which can degrade the solid electrolyte. Often requires advanced laser welding techniques. | Sealing is important, but less critical compared to SSBs; typically uses crimping and sealing with adhesives or polymers. |
Formation and Conditioning | May require specific thermal treatment to enhance ionic conductivity and interface stability between electrodes and electrolytes. | Involves initial charging cycles at controlled rates to form a solid–electrolyte interphase (SEI) on the negative electrode. |
Scaling and Production Issues | Scaling is challenging due to the precision required in handling and layering brittle materials. Higher initial capital for setup due to specialized equipment. | Well-established manufacturing lines with extensive scalability. Lower initial setup costs due to mature technology. |
Material Compatibility | Requires materials that are mechanically and chemically stable with each other; issues like interface instability need to be managed. | Compatibility mainly revolves around thermal and chemical stability of the liquid electrolyte with electrode materials. |
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Machín, A.; Cotto, M.C.; Díaz, F.; Duconge, J.; Morant, C.; Márquez, F. Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review. Batteries 2024, 10, 255. https://doi.org/10.3390/batteries10070255
Machín A, Cotto MC, Díaz F, Duconge J, Morant C, Márquez F. Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review. Batteries. 2024; 10(7):255. https://doi.org/10.3390/batteries10070255
Chicago/Turabian StyleMachín, Abniel, María C. Cotto, Francisco Díaz, José Duconge, Carmen Morant, and Francisco Márquez. 2024. "Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review" Batteries 10, no. 7: 255. https://doi.org/10.3390/batteries10070255
APA StyleMachín, A., Cotto, M. C., Díaz, F., Duconge, J., Morant, C., & Márquez, F. (2024). Environmental Aspects and Recycling of Solid-State Batteries: A Comprehensive Review. Batteries, 10(7), 255. https://doi.org/10.3390/batteries10070255