| 研究生: |
楊正毅 Yang, Cheng-Yi |
|---|---|
| 論文名稱: |
探討CC2D1A在自閉症侯群以及認知功能不全所扮演之角色 Exploring the role of CC2D1A in autism spectrum disorder and cognitive dysfunction |
| 指導教授: |
許桂森
Hsu, Kuei-Sen |
| 學位類別: |
博士 Doctor |
| 系所名稱: |
醫學院 - 基礎醫學研究所 Institute of Basic Medical Sciences |
| 論文出版年: | 2021 |
| 畢業學年度: | 109 |
| 語文別: | 英文 |
| 論文頁數: | 99 |
| 中文關鍵詞: | 自閉症候群 、認知記憶學習 、長期增益現象 、神經發育 、海馬迴 、前額葉皮質 |
| 外文關鍵詞: | CC2D1A, Autism spectrum disorder, Rac1, Excitation/inhibition balance, Minocycline, Medial prefrontal cortex, LTP, SENP, Cognition, hippocampus |
| 相關次數: | 點閱:157 下載:3 |
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Coiled-coil and C2 domain containing 1A (CC2D1A)是一個在各物種間結構高度保全的蛋白質,此蛋白最初在一個大型人類基因掃描找尋nuclear factor-B的調控子時被發現可作為其活化子。CC2D1A蛋白突變被發現會造成自閉症侯群以及智能不全,但是CC2D1A蛋白突變是如何造成大腦功能改變仍是未知的。在此我們將利用兩個不同的基因系統去研究CC2D1A在不同的發育時期所扮演的角色。首先,我們使用Cre重組酶切除loxP序列的方式在小鼠出生後的大腦興奮性神經元裡剔除CC2D1A的基因去研究CC2D1A在海馬迴的神經突觸可塑性以及認知記憶學習能力中所扮演的角色。我們發現當缺少CC2D1A時,在海馬迴CA1區域會造成神經突觸長期增益現象的維持產生毀損,並且也能發現神經型態的簡化以及記憶學習能力的異常。接著我們更發現了CC2D1A的一個新角色,CC2D1A會調控SENP1以及SENP3的表現量,並藉由影響deSUMOylation的過程去造成Rac1的高度活化。給予Rac1抑制劑(NSC23766)能夠有效的改善長期增益現象的表現以及認知學習能力。因此推知Rac1高度活化與神經突觸可塑性以及認知功能異常有高度相關。接著我們利用一個在早期胚胎時期剃除CC2D1A更模擬真實自閉症病患的方式去研究CC2D1A的角色,與出生後剔除CC2D1A的動物相比,在胚胎時期剔除CC2D1A會造成更顯著的自閉症狀譬如社交能力不全以及反覆行為。除此之外,在前額葉皮質第五層的錐狀神經細胞會觀測到興奮性與抑制性的比例上的改變、神經型態簡化以及變少的抑制性訊號傳遞。給予Minocycline治療後,能夠有效的改善自閉症狀以及神經型態與抑制性訊號傳遞的異常。這些結果指出當CC2D1A的缺少所造成的神經傳遞以及形態上的異常與自閉症侯群的症狀有高度相關。整體而言,我們發現了CC2D1A的新角色,CC2D1A會經由影響Rac1的活性去影響神經突觸可塑性以及認知功能。在早期發育時期,CC2D1A會影響神經發育以及神經訊息傳遞,當突變時將造成神經發育疾病。
Coiled-coil and C2 domain containing 1A (CC2D1A) is an evolutionarily conserved protein. In a large-scale screening of human genes, it was first identified as a nuclear factor-B activator. CC2D1A mutations results in autism spectrum disorder and autosomal recessive nonsyndromic intellectual disability. However, how CC2D1A mutations leads to alteration in brain function remains elusive. To answer this question, we took advantage of two different model to identify the role of CC2D1A in different stages. First, we used Cre/loxP recombinase-based strategy to specific delete Cc2d1a gene in excitatory neuron postnatally to examine its role in hippocampal synaptic plasticity and learning memory function. We found that Cc2d1a deletion led to impaired LTP maintenance, decreased dendritic complexity and abnormal memory performance. We further identified a novel role of CC2D1A in regulating SENP1 and SENP3 expression, which further causing Rac1 hyperactivity due to its impaired de-SUMOylation process. Bilateral microinfusion of Rac1 inhibitor (NSC23766) successfully rescued the LTP maintenance and learning memory performance, which suggesting the correlation of Rac1 hyperactivity with impaired synaptic plasticity and abnormal cognitive function. To mimic more specifically to the realistic pathological condition of autism spectrum disorder, we then generate a novel ASD model that Cc2d1a deleted at early embryonic stage. We have found a significant difference compared to postnatal cKO model, a more apparent autistic-like features including social impairment and repetitive behaviors were observable. Also, we have found a significant elevated E/I ratio, reduced GABAergic transmission and decreased dendritic complexity in mPFC layer V pyramidal neurons. Minocycline treatment successfully restored the synaptic function and structural changes and finally rescued the sociability and repetitive behavior. These results suggest a strong correlation of Cc2d1a-deficeincy-induced impaired synaptic function and neural structure in mPFC layer V pyramidal neurons to ASD features. Overall, we have revealed a novel role of CC2D1A in mediating cognitive function and synaptic plasticity through regulating Rac1 activity, and confirmed the critical role of CC2D1A in embryonic neurodevelopmental in mediating the synaptic transmission and neural morphology.
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