Serguei Liachenko Data-verified
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Director of Bioimaging
faculty
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Biography and Research Information
OverviewAI-generated summary
Serguei Liachenko's research focuses on the development and application of advanced imaging techniques, particularly Magnetic Resonance Imaging (MRI) and Magnetic Resonance Spectroscopy (MRS), for the quantitative assessment of neurotoxicity in animal models. His work investigates the use of these non-invasive methods to identify and track biomarkers of neurological damage following exposure to various chemical agents. Liachenko has published research on the impact of agents such as trimethyltin and gadodiamide on rat brains, utilizing T2 mapping and other quantitative MRI approaches to detect and measure neurotoxic effects. His investigations also extend to the long-term effects of pharmacological agents, like methylphenidate, on brain structure and function in non-human primates.
Liachenko's role as Director of Bioimaging at the National Center for Toxicological Research facilitates collaborations with colleagues such as Merle G. Paule, William Slikker, Natalya Sadovova, and Sumit Sarkar. His research program aims to advance regulatory science by providing quantitative, in vivo methods for evaluating the safety of chemical substances and pharmaceuticals. With an h-index of 18 and over 900 citations across 52 publications, his work contributes to the understanding of neurotoxicity mechanisms and the development of objective assessment tools.
Metrics
- h-index: 18
- Publications: 52
- Citations: 932
Selected Publications
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Biomarkers of Neurotoxicity and Disease (2025)
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In vivo mapping of rat brain partial white matter content using hexachlorophene-induced neurotoxicity model (2024)
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Performance of the prospective T2 MRI biomarker of neurotoxicity in a trimethyltin model in rats at 7 T (2023)
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The effects of long-term methylphenidate administration and withdrawal on progressive ratio responding and T2 MRI in the male rhesus monkey (2022)
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Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration (2022)
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Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity (2021)
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Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin (2021)
Collaboration Network
Top Collaborators
- Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin
- The effects of long-term methylphenidate administration and withdrawal on progressive ratio responding and T2 MRI in the male rhesus monkey
- Performance of the prospective T2 MRI biomarker of neurotoxicity in a trimethyltin model in rats at 7 T
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin
- Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration
- Performance of the prospective T2 MRI biomarker of neurotoxicity in a trimethyltin model in rats at 7 T
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin
- In vivo mapping of rat brain partial white matter content using hexachlorophene-induced neurotoxicity model
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin
- Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration
- The effects of long-term methylphenidate administration and withdrawal on progressive ratio responding and T2 MRI in the male rhesus monkey
- Biomarkers of Neurotoxicity and Disease
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Emerging technologies and their impact on regulatory science
- Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration
- Emerging technologies and their impact on regulatory science
- Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration
- Emerging technologies and their impact on regulatory science
- Optimization of Detection of Gadodiamide Brain Retention in Rats Using Quantitative <scp>T<sub>2</sub></scp> Mapping and Intraperitoneal Administration
- Global Neurotoxicity: Quantitative Analysis of Rat Brain Toxicity Following Exposure to Trimethyltin
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
- Circulating biomarkers of neurotoxicity: Proteomics approach reveals fluidic endpoints of central nervous system toxicity in a rodent model of neurotoxicity
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