Mouse model systems of autism spectrum disorder: Replicability and informatics signature

被引:5
|
作者
Kabitzke, Patricia [1 ,2 ]
Morales, Diana [1 ,3 ]
He, Dansha [1 ]
Cox, Kimberly [1 ]
Sutphen, Jane [1 ,4 ]
Thiede, Lucinda [1 ,5 ]
Sabath, Emily [1 ,6 ]
Hanania, Taleen [1 ]
Biemans, Barbara [7 ]
Brunner, Daniela [1 ,8 ]
机构
[1] PsychoGenics Inc, Paramus, NJ USA
[2] Broad Inst MIT & Harvard, Stanley Ctr Psychiat Res, 75 Ames St, Cambridge, MA 02142 USA
[3] Pfizer, Pearl River, NY USA
[4] Louisiana State Univ, Hlth Sci Ctr, New Orleans, LA USA
[5] Boehringer Ingelheim GmbH & Co KG, Ridgefield, CT USA
[6] JRS Pharma, Patterson, NY USA
[7] Roche Innovat Ctr Basel, Basel, Switzerland
[8] Columbia Univ, Dept Psychiat, New York, NY USA
关键词
16p11; 2; autism; behavior; Cacna1c; Cntnap2; informatics; mouse model systems; preclinical; replication; Shank3; COMMON DATA ELEMENTS; SHANK3; OXYTOCIN; BEHAVIOR; MICE; PHENOTYPES; MUTATIONS; DISPLAY; ASSAYS; TRIAD;
D O I
10.1111/gbb.12676
中图分类号
B84 [心理学]; C [社会科学总论]; Q98 [人类学];
学科分类号
03 ; 0303 ; 030303 ; 04 ; 0402 ;
摘要
Phenotyping mouse model systems of human disease has proven to be a difficult task, with frequent poor inter- and intra-laboratory replicability, particularly in behavioral domains such as social and cognitive function. However, establishing robust animal model systems with strong construct validity is of fundamental importance as they are central tools for understanding disease pathophysiology and developing therapeutics. To complete our studies of mouse model systems relevant to autism spectrum disorder (ASD), we present a replication of the main findings from our two published studies of five genetic mouse model systems of ASD. To assess the intra-laboratory robustness of previous results, we chose the two model systems that showed the greatest phenotypic differences, theShank3/FandCntnap2, and repeated assessments of general health, activity and social behavior. We additionally explored all five model systems in the same framework, comparing all results obtained in this three-yearlong effort using informatics techniques to assess commonalities and differences. Our results showed high intra-laboratory replicability of results, even for those with effect sizes that were not particularly large, suggesting that discrepancies in the literature may be dependent on subtle but pivotal differences in testing conditions, housing enrichment, or background strains and less so on the variability of the behavioral phenotypes. The overall informatics analysis suggests that in our behavioral assays we can separate the set of tested mouse model system into two main classes that in some aspects lie on opposite ends of the behavioral spectrum, supporting the view that autism is not a unitary concept.
引用
收藏
页数:20
相关论文
共 50 条
  • [21] Formation of functional areas in the cerebral cortex is disrupted in a mouse model of autism spectrum disorder
    Fenlon, Laura R.
    Liu, Sha
    Gobius, Ilan
    Kurniawan, Nyoman D.
    Murphy, Skyle
    Moldrich, Randal X.
    Richards, Linda J.
    NEURAL DEVELOPMENT, 2015, 10
  • [22] Differential Expression of Hippocampal Circular RNAs in the BTBR Mouse Model for Autism Spectrum Disorder
    Gasparini, Silvia
    Del Vecchio, Giorgia
    Gioiosa, Silvia
    Flati, Tiziano
    Castrignano, Tiziana
    Legnini, Ivano
    Licursi, Valerio
    Ricceri, Laura
    Scattoni, Maria Luisa
    Rinaldi, Arianna
    Presutti, Carlo
    Mannironi, Cecilia
    MOLECULAR NEUROBIOLOGY, 2020, 57 (05) : 2301 - 2313
  • [23] Dysregulation of Parvalbumin Expression in the Cntnap2-/- Mouse Model of Autism Spectrum Disorder
    Lauber, Emanuel
    Filice, Federica
    Schwaller, Beat
    FRONTIERS IN MOLECULAR NEUROSCIENCE, 2018, 11
  • [24] Exploratory Analysis of MicroRNA Alterations in a Neurodevelopmental Mouse Model for Autism Spectrum Disorder and Schizophrenia
    Garcia-Cerro, Susana
    Gomez-Garrido, Ana
    Garcia, Goncalo
    Crespo-Facorro, Benedicto
    Brites, Dora
    INTERNATIONAL JOURNAL OF MOLECULAR SCIENCES, 2024, 25 (05)
  • [26] Pain processing in a mouse model of Phelan-McDermid Syndrome, an autism spectrum disorder
    Furmanski, O.
    Tao, F.
    Yang, Y.
    Li, C.
    Skinner, J.
    Bangash, A.
    Worley, P.
    Johns, R.
    JOURNAL OF PAIN, 2013, 14 (04): : S43 - S43
  • [27] A novel mouse model of CACNA1D-associated autism spectrum disorder
    Ortner, N. J.
    Hofer, N. T.
    Kharitonova, M.
    Paradiso, E.
    Tuluc, P.
    Guarina, L.
    Sah, A.
    Schwankler, L.
    Stefanova, N.
    Ferraguti, F.
    Singewald, N.
    Carbone, E.
    Striessnig, J.
    ACTA PHYSIOLOGICA, 2019, 227
  • [28] Formation of functional areas in the cerebral cortex is disrupted in a mouse model of autism spectrum disorder
    Laura R Fenlon
    Sha Liu
    Ilan Gobius
    Nyoman D Kurniawan
    Skyle Murphy
    Randal X Moldrich
    Linda J Richards
    Neural Development, 10
  • [29] Translational Magnetic Resonance Imaging in Autism Spectrum Disorder From the Mouse Model to Human
    Tsurugizawa, Tomokazu
    FRONTIERS IN NEUROSCIENCE, 2022, 16
  • [30] Motor synergies: Evidence for a novel motor signature in autism spectrum disorder
    Emanuele, M.
    Nazzaro, G.
    Marini, M.
    Veronesi, C.
    Boni, S.
    Polletta, G.
    D'Ausilio, A.
    Fadiga, L.
    COGNITION, 2021, 213