biostudies-literatureVasconcelos DDSFunda??o de Amparo ? Pesquisa do Estado de S?o PauloCoordena??o de Aperfei?oamento de Pessoal de N?vel Superior1019-1029https://www.ebi.ac.uk/biostudies/studies/S-EPMC12809529biostudies-literatureUnknown11(1)Batteries with LiFePO₄ as active material stand out due to the absence of critical materials, such as nickel and cobalt, thermal stability, and security. In the next years, high volumes of LFP batteries will reach their end of life, and overall material recovery will contribute to meeting the Li demand and reducing the CO₂ footprint. Recovery of 97% of plastics and 85.3% graphite prevented materials from burning in furnaces and reduced the CO₂ footprint from recycling. Leaching cathode active material using H₂SO₄ without H₂O₂ resulted in active material leaching with reduced metallic foil solubilization and less reagent consumption. Redirecting H₂O₂ consumption to Fe removal by precipitation, combined with ion exchange columns at 25 °C, successfully deepened Fe purification from solution. Precipitation of Al recovered 15.3% as an Al-(OH)₃ coproduct. After evaporation in a real solution, 72.2% of Li was precipitated as Li₂CO₃, contributing to increasing the recycling share in the Li supply.ACS omegaHydrometallurgical Strategy To Reduce Waste through the Recycling of Lithium Iron Phosphate Batteries.PMC128095292021/14842-02019/11866-52020/00493-02012/51871/9Botelho Junior ABRomano Espinosa DCVasconcelos DDSGobo LATenorio JASfalseHydrometallurgical Strategy To Reduce Waste through the Recycling of Lithium Iron Phosphate Batteries.Batteries with LiFePO₄ as active material stand out due to the absence of critical materials, such as nickel and cobalt, thermal stability, and security. In the next years, high volumes of LFP batteries will reach their end of life, and overall material recovery will contribute to meeting the Li demand and reducing the CO₂ footprint. Recovery of 97% of plastics and 85.3% graphite prevented materials from burning in furnaces and reduced the CO₂ footprint from recycling. Leaching cathode active material using H₂SO₄ without H₂O₂ resulted in active material leaching with reduced metallic foil solubilization and less reagent consumption. Redirecting H₂O₂ consumption to Fe removal by precipitation, combined with ion exchange columns at 25 °C, successfully deepened Fe purification from solution. Precipitation of Al recovered 15.3% as an Al-(OH)₃ coproduct. After evaporation in a real solution, 72.2% of Li was precipitated as Li₂CO₃, contributing to increasing the recycling share in the Li supply.2026-01-01T00:00:00Z2026 Jan2026-06-06T15:06:29.772Z2026-06-01T03:10:53.959ZS-EPMC128095294155245010.1021/acsomega.5c07786