Will Bruno, Dalrymple-Alford John, Wolff Mathieu, Cassel Jean-Christophe
LINC UMR 7191, Université Louis Pasteur-Centre National de la Recherche Scientifique, IFR de Neurosciences 037, GDR CNRS 2905, 12 rue Goethe, Strasbourg, France.
Behav Brain Res. 2008 Sep 1;192(1):7-11. doi: 10.1016/j.bbr.2007.11.031. Epub 2008 Jan 25.
After having underlined the ambiguities of the concept of plasticity and the dangers of its purely metaphoric use in neurobiology, it is suggested that we return to a more precise definition of the structure, the operating principles and the function of the "systemic" unit or "integron" relevant to the particular level of analysis in question. Any change can then be described as a modification of function, a change in the operation principles, or an alteration of the material structure of the system. It is suggested that the term plastic should be restricted to describing, among the possible variations in the operating principles or the function of a given system, any lasting alteration of the connectivity network of the system under the influence of an external force or environmental constraint. Therefore, systematic or random variations of performance, functional flexibility or the vicarious(1) processes or strategies that can be found in a rigidly wired system are not justified examples of plasticity.
在强调了可塑性概念的模糊性以及在神经生物学中纯粹隐喻性使用它的危险性之后,有人建议我们回到与所讨论的特定分析层次相关的“系统”单元或“整合子”的结构、运作原理和功能的更精确界定。然后,任何变化都可以被描述为功能的改变、运作原理的变化或系统物质结构的改变。有人建议,“可塑性”一词应仅限于描述在给定系统的运作原理或功能的可能变化中,系统的连接网络在外部力量或环境约束影响下的任何持久改变。因此,在刚性连接系统中可以发现的性能的系统或随机变化、功能灵活性或替代(1)过程或策略,都不是可塑性的合理示例。