Literature DB >> 30017882

Criteria to define mild, moderate, and severe traumatic brain injury in the mouse controlled cortical impact model.

Lorraine Siebold1, Andre Obenaus2, Ravi Goyal3.   

Abstract

Traumatic brain injury (TBI) is a major health concern in the United States resulting in a substantial number of hospitalizations and in a broad spectrum of symptoms and disabilities. In the clinical setting, neurological responsiveness and structural imaging are used to classify mild, moderate and severe TBI. To evaluate the complex secondary and severity-specific injury response, investigators have relied on pre-clinical rodent models. The controlled cortical impact (CCI) model in mice is a widely used to study TBI. The CCI method has demonstrated consistent intra-laboratory outcomes due to precise control of cortical depth penetration, dwell time and speed of impact. While the CCI method results in control of injury severity, there is no consensus regarding the injury parameters or behavioral and histological endpoints that constitute a mild, moderate or severe TBI in this model. This discrepancy has resulted in considerable variability across laboratories in the outcomes of CCI-induced mild, moderate, and severe TBI. Inconsistent with clinical evaluation, injury severity in the CCI model has predominately relied on the extent of tissue damage. In the present review, we discuss variations in surgical parameters for injury induction as well as the criteria used to determine injury severity. Additionally, we propose guiding principles for the induction and defining of mild, moderate and severe TBI in the craniectomy-dependent experimental mouse CCI model.
Copyright © 2018. Published by Elsevier Inc.

Entities:  

Keywords:  CCI; Cognitive impairment; Hippocampus injury; Paralysis; TBI

Mesh:

Year:  2018        PMID: 30017882     DOI: 10.1016/j.expneurol.2018.07.004

Source DB:  PubMed          Journal:  Exp Neurol        ISSN: 0014-4886            Impact factor:   5.330


  16 in total

1.  Induction of Neuronal PI3Kγ Contributes to Endoplasmic Reticulum Stress and Long-Term Functional Impairment in a Murine Model of Traumatic Brain Injury.

Authors:  Shan Liu; Rong Jin; Adam Y Xiao; Rui Chen; Jarvis Li; Wei Zhong; Xiaozhou Feng; Guohong Li
Journal:  Neurotherapeutics       Date:  2019-10       Impact factor: 7.620

2.  Bioinformatics Analysis of miRNAs and mRNAs Network-Xuefu Zhuyu Decoction Exerts Neuroprotection of Traumatic Brain Injury Mice in the Subacute Phase.

Authors:  Zhao-Yu Yang; Yao Wu; Xuexuan Li; Tao Tang; Yang Wang; Ze-Bing Huang; Rong Fan
Journal:  Front Pharmacol       Date:  2022-06-22       Impact factor: 5.988

3.  2, 3, 5, 4'-tetrahydroxystilbene-2-O-beta-D-glucoside protects against neuronal cell death and traumatic brain injury-induced pathophysiology.

Authors:  Yu-Hsin Chen; Yen-Chou Chen; Yu-Tang Chin; Ching-Chiung Wang; Ling-Ling Hwang; Liang-Yo Yang; Dah-Yuu Lu
Journal:  Aging (Albany NY)       Date:  2022-03-21       Impact factor: 5.682

4.  Xenon improves long-term cognitive function, reduces neuronal loss and chronic neuroinflammation, and improves survival after traumatic brain injury in mice.

Authors:  Rita Campos-Pires; Tobias Hirnet; Flavia Valeo; Bee Eng Ong; Konstantin Radyushkin; Jitka Aldhoun; Joanna Saville; Christopher J Edge; Nicholas P Franks; Serge C Thal; Robert Dickinson
Journal:  Br J Anaesth       Date:  2019-05-21       Impact factor: 9.166

5.  Effects of advanced age upon astrocyte-specific responses to acute traumatic brain injury in mice.

Authors:  Alexandria N Early; Amy A Gorman; Linda J Van Eldik; Adam D Bachstetter; Josh M Morganti
Journal:  J Neuroinflammation       Date:  2020-04-14       Impact factor: 8.322

6.  Epitranscriptomic profiling of N6-methyladenosine-related RNA methylation in rat cerebral cortex following traumatic brain injury.

Authors:  Jiangtao Yu; Yuxian Zhang; Haoli Ma; Rong Zeng; Ruining Liu; Pengcheng Wang; Xiaoqing Jin; Yan Zhao
Journal:  Mol Brain       Date:  2020-01-28       Impact factor: 4.041

7.  Reduced Reelin Expression in the Hippocampus after Traumatic Brain Injury.

Authors:  Valentina Dal Pozzo; Beth Crowell; Nicholas Briski; David P Crockett; Gabriella D'Arcangelo
Journal:  Biomolecules       Date:  2020-06-29

8.  From biomechanics to pathology: predicting axonal injury from patterns of strain after traumatic brain injury.

Authors:  Cornelius K Donat; Maria Yanez Lopez; Magdalena Sastre; Nicoleta Baxan; Marc Goldfinger; Reneira Seeamber; Franziska Müller; Polly Davies; Peter Hellyer; Petros Siegkas; Steve Gentleman; David J Sharp; Mazdak Ghajari
Journal:  Brain       Date:  2021-02-12       Impact factor: 13.501

9.  Antagonism of Protease-Activated Receptor 4 Protects Against Traumatic Brain Injury by Suppressing Neuroinflammation via Inhibition of Tab2/NF-κB Signaling.

Authors:  Jianing Luo; Xun Wu; Haixiao Liu; Wenxing Cui; Wei Guo; Kang Guo; Hao Guo; Kai Tao; Fei Li; Yingwu Shi; Dayun Feng; Hao Yan; Guodong Gao; Yan Qu
Journal:  Neurosci Bull       Date:  2020-10-27       Impact factor: 5.203

10.  Roles of Cytokines in the Temporal Changes of Microglial Membrane Currents and Neuronal Excitability and Synaptic Efficacy in ATP-Induced Cortical Injury Model.

Authors:  Bokyung Song; Sung-Joong Lee; Chong-Hyun Kim
Journal:  Int J Mol Sci       Date:  2021-06-25       Impact factor: 5.923

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