Fang Liu Data-verified
Affiliation confirmed via AI analysis of OpenAlex, ORCID, and web sources.
Researcher
faculty
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Biography and Research Information
OverviewAI-generated summary
Fang Liu's research group at the National Center for Toxicological Research investigates the biological effects of various compounds and their potential applications in health and disease. Recent work has focused on the neuroprotective properties of carnitine and natural products, exploring their therapeutic potential for neurodegenerative diseases and neurotoxicity. The group also studies the mechanisms underlying behavioral changes in response to microbial colonization, examining the role of the innate immune system and dendritic cell migration to the brain.
Additional research areas include evaluating screening tools for the safety assessment of botanicals and investigating the effects of compounds like cannabidiol on neural stem cells. The group has also explored therapeutic strategies for specific conditions, such as an anti-lung cancer antibody in mice and the impact of hydrogen-rich baths on psoriasis models. Their work on non-alcoholic fatty liver disease (NAFLD) centers on the role of gut microbiota in pathogenesis and treatment.
Fang Liu has a scholarly record with an h-index of 26, 89 total publications, and 2,728 total citations, designating them as a highly cited researcher. Key collaborators include Leah E. Latham, Tucker A. Patterson, Shuliang Liu, and John Talpos, all from the National Center for Toxicological Research, with whom Fang Liu has co-authored multiple publications.
Metrics
- h-index: 26
- Publications: 89
- Citations: 2,742
Selected Publications
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Regulating controlled substances to advance research and protect public health (2026)
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Assessing the developmental effects of fentanyl and impacts on lipidomic profiling using neural stem cell models (2025)
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The effects of cannabidiol and its main metabolites on human neural stem cells (2025)
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Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models (2025)
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Biomarkers of Neurotoxicity and Disease (2025)
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Screening tools to evaluate the neurotoxic potential of botanicals: building a strategy to assess safety (2024)
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Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing (2023)
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Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain (2023)
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The NMDA Receptor System and Developmental Neurotoxicity (2022)
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Phencyclidine (PCP)-induced neurotoxicity and behavioral deficits (2022)
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The NMDA Receptor System and Developmental Neurotoxicity (2021)
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Neuroprotective Effects of Carnitine and Its Potential Application to Ameliorate Neurotoxicity (2021)
Collaboration Network
Top Collaborators
- Neuroprotective Effects of Carnitine and Its Potential Application to Ameliorate Neurotoxicity
- The effects of cannabidiol and its main metabolites on human neural stem cells
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
Showing 5 of 8 shared publications
- The effects of cannabidiol and its main metabolites on human neural stem cells
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
- Assessing the developmental effects of fentanyl and impacts on lipidomic profiling using neural stem cell models
Showing 5 of 8 shared publications
- Neuroprotective Effects of Carnitine and Its Potential Application to Ameliorate Neurotoxicity
- The effects of cannabidiol and its main metabolites on human neural stem cells
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
Showing 5 of 7 shared publications
- Neuroprotective Effects of Carnitine and Its Potential Application to Ameliorate Neurotoxicity
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- The NMDA Receptor System and Developmental Neurotoxicity
- Biomarkers of Neurotoxicity and Disease
Showing 5 of 7 shared publications
- Neuroprotective Effects of Carnitine and Its Potential Application to Ameliorate Neurotoxicity
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
- The NMDA Receptor System and Developmental Neurotoxicity
- The NMDA Receptor System and Developmental Neurotoxicity
Showing 5 of 6 shared publications
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
- Establishment of neural stem cells from fetal monkey brain for neurotoxicity testing
- Assessing potential desflurane-induced neurotoxicity using nonhuman primate neural stem cell models
- Assessing the developmental effects of fentanyl and impacts on lipidomic profiling using neural stem cell models
- Development of a primate model to evaluate the effects of ketamine and surgical stress on the neonatal brain
- Biomarkers of Neurotoxicity and Disease
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
- Innate immune system signaling and intestinal dendritic cells migration to the brain underlie behavioral changes after microbial colonization in adult mice
- Innate immune system signaling and CD11b <sup>+</sup> CD11c <sup>+</sup> CD103 <sup>+</sup> cell migration to the brain underlie changes in mouse behavior after microbial colonization
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