通过靶向JAK1(促癫痫基因网络的关键驱动因素)实现深度癫痫抑制和疾病修饰。

Olivia R Hoffman, Jennifer L Koehler, Jose Ezekiel Clemente Espina, Anna M Patterson, Emily S Gohar, Emanuel Coleman, Barry A Schoenike, Claudia Espinosa-Garcia, Felipe Paredes, Nicholas H Varvel, Raymond J Dingledine, Jamie L Maguire, Avtar S Roopra
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引用次数: 0

摘要

癫痫是第四大最常见的神经系统疾病,全球有超过5000万例1,2。虽然有许多药物可以抑制癫痫发作,但大约三分之一的患者仍然具有耐药性,目前没有任何治疗方法可以改变疾病。使用基于网络和系统的方法,我们发现组蛋白甲基化酶EZH2通过抑制海马神经元中的JAK1和STAT3信号,抑制癫痫发生并减缓疾病进展。经美国食品药品监督管理局批准的口服药物CP690550(托法替尼)4,5对JAK1的药理学抑制实际上消除了获得性癫痫的临床前啮齿动物模型中癫痫发作后的行为和电图发作。总的来说,以EZH2诱导的形式识别出对癫痫持续状态的内源性保护性反应,突出了JAK1激酶和STAT3在癫痫的启动和传播中在临床前啮齿动物模型和人类疾病中的关键作用。用CP690550靶向JAK1对自发性、复发性癫痫具有深远的治疗作用。
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Disease modification upon brief exposure to tofacitinib during chronic epilepsy.

All current drug treatments for epilepsy, a neurological disorder affecting over 50 million people( 1, 2 ) merely treat symptoms, and a third of patients do not respond to medication. There are no disease modifying treatments that may be administered briefly to patients to enduringly eliminate spontaneous seizures and reverse cognitive deficits( 3, 4 ). Applying network approaches to rodent models and human temporal lobectomy samples at both whole tissue and single-nuclei resolutions, we observe the well-characterized pattern of rapid induction and subsequent quenching exhibited of the JAK/STAT pathway within days of epileptogenic insult. This is followed by a resurgent activation weeks to months later with the onset of spontaneous seizures. Targeting the first wave of activation after epileptic insult does not prevent disease. However, brief inhibition of the second wave with CP690550 (Tofacitinib) ( 5, 6 ) enduringly suppresses seizures, rescues deficits in spatial memory, and alleviates epilepsy-associated histopathological alterations. Seizure suppression lasts for at least 2 months after the final dose. Using discovery-based transcriptomic analysis across models of epilepsy and validation of putative mechanisms with human data, we demonstrate a powerful approach to identifying disease modifying targets; this may be useful for other neurological disorders. With this approach, we find that reignition of inflammatory JAK/STAT3 signaling in chronic epilepsy opens a window for disease modification with the FDA-approved, orally available drug CP690550.

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