Webinar

Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro

This webinar explores advancements in cell systems designed to replicate human liver responses to environmental toxins, such as PFAS. It examines the principles and challenges shaping the field and highlights the development of deterministically cell programmed human iPSC-derived hepatocytes as a promising alternative to primary hepatocytes and immortalised cell lines.
Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro

Stephen Ferguson, PhD

Investigator | Mechanistic Toxicology, Division of Translational Toxicology (DTT)

National Institute of Environmental Health Sciences

Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro

Tom Brown

Senior Product Manager

bit.bio

Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro
This webinar explores advancements in cell systems designed to replicate human liver responses to environmental toxins, such as PFAS. It examines the principles and challenges shaping the field and highlights the development of deterministically cell programmed human iPSC-derived hepatocytes as a promising alternative to primary hepatocytes and immortalised cell lines.
Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro

Stephen Ferguson, PhD

Investigator | Mechanistic Toxicology, Division of Translational Toxicology (DTT)

National Institute of Environmental Health Sciences

Principles, pitfalls, and progress in modelling human liver toxicity and pharmacology in vitro

Tom Brown

Senior Product Manager

bit.bio

Dr Stephen Ferguson, Investigator, Mechanistic Toxicology, Division of Translational Toxicology (DTT), National Institute of Environmental Health Sciences, explores the complexities of in vitro modelling for human liver toxicity and pharmacology. He discusses the development and implementation of advanced cell systems mimicking liver functionality and their responses to various chemical exposures, including PFAS and botanical mixtures. Dr Ferguson sheds light on the principles guiding effective models, the common pitfalls encountered in research, and the promising advancements being made in this vital field of environmental health. 

Tom Brown, Senior Product Manager at bit.bio, presents a new liver research toolkit featuring human iPSC-derived hepatocytes deterministically programmed with opti-ox™ technology, offering solutions for advancing disease modelling and drug discovery and representing a potential alternative to primary human hepatocytes and immortalised cell lines.

Key learning points:

  • How to develop cell systems that replicate liver functionality to better predict human responses to toxic substances
  • The effects of diverse xenobiotics, including PFAS and other environmental chemicals, on liver health
  • Key principles in modelling, challenges faced in the field, and progress made towards improving toxicological assessments
  • The role of deterministically programmed human iPSC-derived hepatocytes as potential alternatives to primary hepatocytes and cell lines.

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