Circadian learning and memory changes in Aβ1–42 induced Alzheimer’s mice

Alzheimer disease (AD) is a growing health problem globally, which causes a progressive decline in learning and memory and multiple disturbances of circadian rhythms. Six Alzheimer’s mice and six wild type (WT) mice were involved in this study. Morris Water Maze (MWM) tasks were conducted hourly to...

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Veröffentlicht in:Metabolic brain disease 2020-03, Vol.35 (3), p.463-471
Hauptverfasser: Li, Xuepei, Guan, Junwen, Sun, Tong, Yang, Jingguo, Yu, Hang, Yao, Junjie, Wang, Zhengrong
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container_start_page 463
container_title Metabolic brain disease
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creator Li, Xuepei
Guan, Junwen
Sun, Tong
Yang, Jingguo
Yu, Hang
Yao, Junjie
Wang, Zhengrong
description Alzheimer disease (AD) is a growing health problem globally, which causes a progressive decline in learning and memory and multiple disturbances of circadian rhythms. Six Alzheimer’s mice and six wild type (WT) mice were involved in this study. Morris Water Maze (MWM) tasks were conducted hourly to evaluate their circadian learning and memory performance. We used a single cosinor-based method to evaluate the circadian learning and memory of Alzheimer’s mice and WT mice, respectively. An area sensor was used to record locomotor activity for 2 weeks continuously, including 7 days of 12 h light/12 h dark (LD) conditions and 7 days of 12 h dark/12 h dark (DD) conditions. All WT mice showed circadian rhythm presence in learning and memory, and the peak of escape latency appeared at circadian time (CT) 12. Only one in six Alzheimer’s mice showed a circadian rhythm, but the peak of escape latency was postponed to CT20. Alzheimer’s mice showed rhythm absence under LD or DD conditions. Under LD conditions, the WT mice activity was higher than that in the Alzheimer’s mice during ZT0–5 ( p  = 0.007) and ZT18–23 ( p  = 0.353) but lower during ZT6–11 ( p  
doi_str_mv 10.1007/s11011-019-00509-x
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Under LD conditions, the WT mice activity was higher than that in the Alzheimer’s mice during ZT0–5 ( p  = 0.007) and ZT18–23 ( p  = 0.353) but lower during ZT6–11 ( p  &lt; 0.001) and ZT12–17 ( p  &lt; 0.001). Learning and memory of wild type mice is proved to have a circadian variation throughout a day. In Alzheimer’s mice, rhythmic locomotor activity and circadian learning and memory performance were disrupted. 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Six Alzheimer’s mice and six wild type (WT) mice were involved in this study. Morris Water Maze (MWM) tasks were conducted hourly to evaluate their circadian learning and memory performance. We used a single cosinor-based method to evaluate the circadian learning and memory of Alzheimer’s mice and WT mice, respectively. An area sensor was used to record locomotor activity for 2 weeks continuously, including 7 days of 12 h light/12 h dark (LD) conditions and 7 days of 12 h dark/12 h dark (DD) conditions. All WT mice showed circadian rhythm presence in learning and memory, and the peak of escape latency appeared at circadian time (CT) 12. Only one in six Alzheimer’s mice showed a circadian rhythm, but the peak of escape latency was postponed to CT20. Alzheimer’s mice showed rhythm absence under LD or DD conditions. Under LD conditions, the WT mice activity was higher than that in the Alzheimer’s mice during ZT0–5 ( p  = 0.007) and ZT18–23 ( p  = 0.353) but lower during ZT6–11 ( p  &lt; 0.001) and ZT12–17 ( p  &lt; 0.001). Learning and memory of wild type mice is proved to have a circadian variation throughout a day. In Alzheimer’s mice, rhythmic locomotor activity and circadian learning and memory performance were disrupted. 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subjects Alzheimer Disease - chemically induced
Alzheimer Disease - physiopathology
Alzheimer Disease - psychology
Alzheimer's disease
Amyloid beta-Peptides
Animal memory
Animals
Biochemistry
Biomedical and Life Sciences
Biomedicine
Circadian rhythm
Circadian Rhythm - physiology
Circadian rhythms
Cognitive ability
Disease Models, Animal
Disturbances
Latency
Learning
Locomotor activity
Maze learning
Maze Learning - physiology
Memory - physiology
Metabolic Diseases
Mice
Motor Activity - physiology
Neurodegenerative diseases
Neurology
Neurosciences
Oncology
Original Article
Peptide Fragments
Rodents
Target recognition
Therapeutic applications
title Circadian learning and memory changes in Aβ1–42 induced Alzheimer’s mice
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