Publication | Open Access
Reversal of liver failure using a bioartificial liver device implanted with clinical-grade human-induced hepatocytes
53
Citations
36
References
2023
Year
EngineeringBioartificial Liver DevicePathologyBiomedical EngineeringLiver FailureRemnant LiverTranslational MedicineHepatobiliary TumorHepatotoxicityHepatology FibrosisExtended Liver ResectionLiver ResectionClinical-grade Human-induced HepatocytesXenotransplantationLiver PhysiologyDrug-induced Liver InjuryHepatologyHepatitisTranslational ResearchAcute Liver FailureLiver DiseaseLiver CancerLiverMedicineHepatocellular Carcinoma
Liver resection is the first-line treatment for primary liver cancers, providing the potential for a cure. However, concerns about post-hepatectomy liver failure (PHLF), a leading cause of death following extended liver resection, have restricted the population of eligible patients. Here, we engineered a clinical-grade bioartificial liver (BAL) device employing human-induced hepatocytes (hiHeps) manufactured under GMP conditions. In a porcine PHLF model, the hiHep-BAL treatment showed a remarkable survival benefit. On top of the supportive function, hiHep-BAL treatment restored functions, specifically ammonia detoxification, of the remnant liver and facilitated liver regeneration. Notably, an investigator-initiated study in seven patients with extended liver resection demonstrated that hiHep-BAL treatment was well tolerated and associated with improved liver function and liver regeneration, meeting the primary outcome of safety and feasibility. These encouraging results warrant further testing of hiHep-BAL for PHLF, the success of which would broaden the population of patients eligible for liver resection.
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