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Peixin Li

Researcher at East Carolina University

Publications -  8
Citations -  160

Peixin Li is an academic researcher from East Carolina University. The author has contributed to research in topics: Neuron & Energy homeostasis. The author has an hindex of 6, co-authored 8 publications receiving 107 citations. Previous affiliations of Peixin Li include Capital Medical University.

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The effects of exercise on hypothalamic neurodegeneration of Alzheimer's disease mouse model

TL;DR: The results indicated that early onset of metabolic abnormalities may contribute to the pathology of AD, which is associated with increased inflammation as well as decreased neuronal population and key neuropeptides in the hypothalamus, and a hypothalamic-mediated mechanism where exercise prevents the progression of dementia and of Alzheimer's disease.
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Administration of alpha Klotho reduces liver and adipose lipid accumulation in obese mice.

TL;DR: There is a need for further research into the specific mechanisms explaining improved body composition, elevated energy expenditure, and reduced lipid content in both liver and adipose tissue in α-Klotho-treated mice.
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ARCAgRP/NPY Neuron Activity Is Required for Acute Exercise-Induced Food Intake in Un-Trained Mice.

TL;DR: Investigation of the effects of acute, moderate-intensity exercise on food intake and neuronal activity in the arcuate nucleus (ARC) of the hypothalamus reveals that ARCAgRP/NPY activation is required for acute exercise induced food intake in mice, thus providing insight into the critical role of ARCAGRP/ NPY neurons in maintaining energy homeostasis in cases of exercise-mediated energy deficit.
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Central α-Klotho Suppresses NPY/AgRP Neuron Activity and Regulates Metabolism in Mice.

TL;DR: A prominent role of hypothalamic α-klotho/FGFR1/PI3K signaling in the modulation of NPY/AgRP neuron activity and maintenance of energy homeostasis is indicated, thus providing new insight into the pathophysiology of metabolic disease.
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Centrally circulating α-klotho inversely correlates with human obesity and modulates arcuate cell populations in mice.

TL;DR: Human CSF data provide the first evidence that impaired central α-klotho function may be involved in the pathophysiology of obesity, and results in mouse models identify ARC POMC neurons and astrocytes as novel molecular effectors of centralα- Klotho.