Literature DB >> 33313880

Animal models of narcolepsy and the hypocretin/orexin system: Past, present, and future.

Ryan K Tisdale1, Akihiro Yamanaka2,3, Thomas S Kilduff1.   

Abstract

Animal models have advanced not only our understanding of the etiology and phenotype of the sleep disorder narcolepsy but have also informed sleep/wake regulation more generally. The identification of an inheritable narcolepsy phenotype in dogs in the 1970s allowed the establishment of a breeding colony at Stanford University, resulting in studies that provided the first insights into the genetics and neurotransmitter systems that underlie cataplexy and rapid-eye movement sleep atonia. Although the discovery of the hypocretin/orexin neuropeptides in 1998 initially seemed unrelated to sleep/wake control, the description of the phenotype of the prepro-orexin knockout (KO) mouse as strongly resembling cataplexy, the pathognomonic symptom of narcolepsy, along with identification of a mutation in hypocretin receptor-2 gene as the source of canine narcolepsy, unequivocally established the relationship between this system and narcolepsy. The subsequent discovery of hypocretin neuron degeneration in human narcolepsy demystified a disorder whose etiology had been unknown since its initial description 120 years earlier. These breakthroughs prompted the development of numerous other animal models that have allowed manipulation of the hypocretin/orexin system, thereby advancing our understanding of sleep/wake circuitry. While animal models have greatly informed understanding of this fascinating disorder and the role of the hypocretin/orexin system in sleep/wake control, the question of why these neurons degenerate in human narcolepsy is only beginning to be understood. The development of new immune-mediated narcolepsy models are likely to further inform the etiology of this sleep disorder and animal models will undoubtedly play a critical role in the development of novel narcolepsy therapeutics. © Sleep Research Society 2020. Published by Oxford University Press on behalf of the Sleep Research Society. All rights reserved. For permissions, please e-mail journals.permissions@oup.com.

Entities:  

Keywords:  animal models; cataplexy; hypocretin; narcolepsy; orexin; sleep; sleep regulation

Mesh:

Substances:

Year:  2021        PMID: 33313880      PMCID: PMC8193560          DOI: 10.1093/sleep/zsaa278

Source DB:  PubMed          Journal:  Sleep        ISSN: 0161-8105            Impact factor:   5.849


  154 in total

1.  The melanin-concentrating hormone receptor couples to multiple G proteins to activate diverse intracellular signaling pathways.

Authors:  B E Hawes; E Kil; B Green; K O'Neill; S Fried; M P Graziano
Journal:  Endocrinology       Date:  2000-12       Impact factor: 4.736

2.  Criteria for the diagnosis of the narcoleptic syndrome.

Authors:  R E YOSS; D D DALY
Journal:  Proc Staff Meet Mayo Clin       Date:  1957-06-12

3.  Influence of inhibitory serotonergic inputs to orexin/hypocretin neurons on the diurnal rhythm of sleep and wakefulness.

Authors:  Sawako Tabuchi; Tomomi Tsunematsu; Thomas S Kilduff; Shouta Sugio; Ming Xu; Kenji F Tanaka; Satoru Takahashi; Makoto Tominaga; Akihiro Yamanaka
Journal:  Sleep       Date:  2013-09-01       Impact factor: 5.849

4.  T cells in patients with narcolepsy target self-antigens of hypocretin neurons.

Authors:  Daniela Latorre; Ulf Kallweit; Eric Armentani; Mathilde Foglierini; Federico Mele; Antonino Cassotta; Sandra Jovic; David Jarrossay; Johannes Mathis; Francesco Zellini; Burkhard Becher; Antonio Lanzavecchia; Ramin Khatami; Mauro Manconi; Mehdi Tafti; Claudio L Bassetti; Federica Sallusto
Journal:  Nature       Date:  2018-09-19       Impact factor: 49.962

Review 5.  Diagnostic aspects of narcolepsy.

Authors:  M S Aldrich
Journal:  Neurology       Date:  1998-02       Impact factor: 9.910

6.  Narcolepsy in a dog and a cat.

Authors:  C D Knecht; J E Oliver; R Redding; R Selcer; G Johnson
Journal:  J Am Vet Med Assoc       Date:  1973-06-15       Impact factor: 1.936

7.  DQB1*0602 and DQA1*0102 (DQ1) are better markers than DR2 for narcolepsy in Caucasian and black Americans.

Authors:  E Mignot; X Lin; J Arrigoni; C Macaubas; F Olive; J Hallmayer; P Underhill; C Guilleminault; W C Dement; F C Grumet
Journal:  Sleep       Date:  1994-12       Impact factor: 5.849

8.  Conditional ablation of orexin/hypocretin neurons: a new mouse model for the study of narcolepsy and orexin system function.

Authors:  Sawako Tabuchi; Tomomi Tsunematsu; Sarah W Black; Makoto Tominaga; Megumi Maruyama; Kazuyo Takagi; Yasuhiko Minokoshi; Takeshi Sakurai; Thomas S Kilduff; Akihiro Yamanaka
Journal:  J Neurosci       Date:  2014-05-07       Impact factor: 6.167

9.  Excessive daytime sleepiness in man: multiple sleep latency measurement in narcoleptic and control subjects.

Authors:  G S Richardson; M A Carskadon; W Flagg; J Van den Hoed; W C Dement; M M Mitler
Journal:  Electroencephalogr Clin Neurophysiol       Date:  1978-11

10.  Multiple-color optical activation, silencing, and desynchronization of neural activity, with single-spike temporal resolution.

Authors:  Xue Han; Edward S Boyden
Journal:  PLoS One       Date:  2007-03-21       Impact factor: 3.240

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  2 in total

Review 1.  Modelling Neurological Diseases in Large Animals: Criteria for Model Selection and Clinical Assessment.

Authors:  Samantha L Eaton; Fraser Murdoch; Nina M Rzechorzek; Gerard Thompson; Claudia Hartley; Benjamin Thomas Blacklock; Chris Proudfoot; Simon G Lillico; Peter Tennant; Adrian Ritchie; James Nixon; Paul M Brennan; Stefano Guido; Nadia L Mitchell; David N Palmer; C Bruce A Whitelaw; Jonathan D Cooper; Thomas M Wishart
Journal:  Cells       Date:  2022-08-25       Impact factor: 7.666

2.  Cerebrospinal fluid monoamine levels in central disorders of hypersomnolence.

Authors:  Lucie Barateau; Isabelle Jaussent; Julien Roeser; Claudio Ciardiello; Thomas S Kilduff; Yves Dauvilliers
Journal:  Sleep       Date:  2021-07-09       Impact factor: 6.313

  2 in total

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