TL;DR The EU Battery Regulation 2023/1542 mandates a fully operational digital battery passport for EV power cells exported to Europe by February 2027, requiring traceable lifecycle data across nine information categories including carbon footprint, recycled material content, and supply chain…
TL;DR The EU Battery Regulation (EU) 2023/1542 introduces mandatory carbon footprint declarations for EV batteries entering the EU market from February 18, 2025, with future threshold limits that could bar non-compliant products entirely. For buyers sourcing lithium cells, BMS modules,…
TL;DR Pyrometallurgical and hydrometallurgical recycling of spent lithium-ion batteries generates a complex mixture of acid gases (HF, SO₂, HCl), volatile organic compounds from carbonate electrolytes, and metallic particulates — each requiring a distinct treatment chain. Buyers sourcing battery packs, modules,…
TL;DR The EU Battery Regulation (EU) 2023/1542 mandates phased carbon footprint declarations, performance ratings, and maximum lifecycle limits for EV traction batteries starting 18, 36, and 54 months after its August 2023 effective date — with lithium recovery targets of…
TL;DR EU Battery Regulation 2023/1542 introduces mandatory carbon footprint declarations, battery passport requirements, and recycled content targets — with cobalt at 16% by 2031 rising to 26% by 2036 — that directly affect market access for any lithium battery product…
TL;DR EU Battery Regulation (EU) 2023/1542 — now fully in force with amendments (EU) 2024/1781 and corrigenda 2024/90243 and 2024/90493 — introduces 96 articles across 14 chapters and 15 annexes, replacing the 30-article Directive 2006/66/EC with far stricter requirements covering…
TL;DR Laboratory testing of 20–100 Ah square aluminum-shell LiFePO₄ cells under 0.5–1.5 C overcharge conditions reveals that surface deformation detection leads gas emission by 243–916 seconds and internal short circuit by 248–933 seconds, providing a substantially earlier thermal runaway warning…
TL;DR In a controlled full-scale thermal runaway test inside a 20-foot standard container, CO concentration inside the battery pack reached 194 ppm — triggering the low-alarm threshold — more than 18 minutes before open flame appeared, confirming CO detection as…
TL;DR In direct comparative testing under GB/T 36276—2023, a 430 Ah laminated LFP cell achieved a needle-puncture temperature rise of just 2.2 °C — versus 281 °C on a comparable 280 Ah wound cell — while maintaining 98.5% capacity retention…
TL;DR After more than 8,000 full-depth cycles, a 125 Ah prismatic LFP cell releases comparable thermal runaway energy to a fresh cell — but takes 20–26 minutes to reach peak temperature versus 10–22 minutes at beginning of life, meaning aged…
TL;DR If you’re building or qualifying a lithium-ion battery testing laboratory for energy storage applications, the question isn’t whether to comply with GB/T 36276-2023 — it’s whether your lab layout will actually survive the workload without a fire suppression incident…
TL;DR If you’re sourcing industrial battery systems for stationary storage applications and your supplier hands you a single test report citing IEC 62619 compliance, that report alone tells you less than you might think. IEC 62619 is a foundational safety…
