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Related Concept Videos

Toxicity Testing in Animals01:23

Toxicity Testing in Animals

Toxicity tests in animals are grounded on two main assumptions: first, the effects observed in laboratory animals can be extrapolated to humans, especially when adjusted for body surface area; second, high-dose exposure in animals is essential to identify potential human hazards from lower doses. This is based on the quantal dose-response concept, which faces the challenge of extrapolating results from relatively few test animals to much larger human populations. For example, a 0.01% incidence...

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Related Experiment Video

Updated: May 30, 2026

Use of a Piglet Model for the Study of Anesthetic-induced Developmental Neurotoxicity (AIDN): A Translational Neuroscience Approach
06:38

Use of a Piglet Model for the Study of Anesthetic-induced Developmental Neurotoxicity (AIDN): A Translational Neuroscience Approach

Published on: June 11, 2017

Modeling developmental processes in animals: applications in neurodevelopmental toxicology.

Elaine M Faustman1, Julia Gohlke, Nancy L Judd

  • 1Center for Child Environmental Health Risks Research, Seattle, WA, USA; Institute for Risk Analysis and Risk Communication, Seattle, WA, USA; Department of Environmental and Occupational Health Sciences, University of Washington, 4225 Roosevelt Way NE, #100, Seattle, WA, USA.

Environmental Toxicology and Pharmacology
|July 26, 2011
PubMed
Summary

Biologically based models assess neurotoxicity by integrating kinetic and dynamic processes. These models help understand ethanol and methylmercury

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Area of Science:

  • Neuroscience
  • Toxicology
  • Computational Biology

Background:

  • Neurodevelopmental toxicity assessment requires understanding complex kinetic and dynamic processes.
  • Existing models often lack mechanistic detail for accurate neurotoxicity predictions.

Purpose of the Study:

  • To develop and apply biologically based dose-response models for evaluating neurodevelopmental toxicants.
  • To investigate the mechanisms of ethanol and methylmercury neurodevelopmental toxicity.
  • To integrate toxicokinetic and toxicodynamic data for improved risk assessment.

Main Methods:

  • Construction of computational models for normal midbrain and neocortex development.
  • Extension of models to simulate the effects of ethanol and methylmercury.
  • Utilizing mechanistic data, including gene expression, to support model development and validation.

Main Results:

  • Models successfully simulated ethanol's effects on neurogenesis and apoptosis.
  • Methylmercury's toxicokinetic and toxicodynamic relationships were successfully linked.
  • Mechanistic data on gene expression informed and improved model predictions.

Conclusions:

  • Biologically based dose-response models are crucial for assessing neurodevelopmental toxicants.
  • Integrating qualitative and quantitative kinetic and dynamic factors enhances understanding of toxic impacts.
  • Modeling approaches provide a robust framework for testing hypotheses on neurotoxicant modes of action.