心血管毒素引起的高血糖和低觉醒病理相关的认知障碍:计算机和体内验证

Q4 Medicine
S. Sundari, Mansour S Alturki, Ian Steinke, J. Deruiter, S. Ramesh, Manoj Govindarajulu, M. Almaghrabi, Suhrud Pathak, A. M. Rassa, K. M. Shafeeq, Payton Lowery, Rishi M. Nadar, R. Babu, Jun Ren, K. Rani, Forrest Smith, Timothy Moore, M. Dhanasekaran
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引用次数: 0

摘要

背景与目的:药物性心脏毒性是药物在临床前和临床开发过程中损耗的重要因素。糖尿病(高血糖)患者发生心力衰竭的可能性是糖尿病患者的两倍多。此外,2型糖尿病(T2D)患者经常表现出明显的高觉醒相关临床异常,如恐惧、恐慌、紧张、疼痛和癫痫发作。因此,代谢不良(高血糖)患者的过度觉醒通常用阻断钠/钙通道、增强抑制性(γ -氨基丁酸[GABA])神经传递和减少兴奋性(谷氨酸能)神经传递的药物治疗。这些危险的高血糖和低觉醒的临床病理结合状况可能导致严重的学习障碍和认知障碍。不幸的是,只有少数研究调查了低觉醒和高血糖对认知的协同作用。方法:采用一般行为评估,外加迷宫、y -迷宫自发交替、Hebb-Williams迷宫和被动回避范式。目前的研究使用Schrodinger和LigPrep软件评估了其药效学作用和与γ -氨基丁酸(GABA)和胰岛素受体相互作用的硅结构特性。结果:给药四氧嘧啶和苯妥英引起明显的学习和认知障碍。基于计算机研究,与公认的高血糖药物链脲佐菌素(STZ)相比,四氧嘧啶是一种更好的诱导高血糖的药物。结论:目前的研究表明,给药四氧嘧啶和苯妥英可以作为一个有效的动物模型来了解与低唤醒和高血糖介导的认知障碍相关的病理生理学,并为高血糖和低唤醒相关的学习和认知障碍确定新的治疗干预措施。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Cardiovascular toxin-induced hyperglycemic and hypoarousal pathology-associated cognitive impairment: an in silico and in vivo validation
Background and purpose: Medication-induced cardiotoxicity is a significant factor in the attrition of drugs during preclinical and clinical development processes. Patients with diabetes mellitus (hyperglycemic) are more than twice as likely to experience cardiac failure. Additionally, type 2 diabetes mellitus (T2D) patients often display significant hyperarousal-related clinical anomalies such as fear, panic, nervousness, pain, and seizures. Consequently, hyperarousal in patients with inadequate metabolic outcomes (hyperglycemic conditions) is usually treated with drugs that block sodium/calcium channels, augment inhibitory (gamma-aminobutyric acid [GABA]) neurotransmission, and reduce excitatory (glutamatergic) neurotransmission. These perilous combined clinical-pathological conditions of hyperglycemia and hypoarousal may result in severe learning disabilities and cognitive impairment. Unfortunately, only a few studies have investigated the synergistic effects of hypoarousal and hyperglycemia on cognition. Methods: General behavioral assessment, plus maze, Y-maze spontaneous alternation, Hebb-Williams maze and Passive avoidance paradigm were evaluated in this study. The current study assessed the in silico structural properties attributed to its pharmacodynamic actions and interaction with Gamma-aminobutyric acid (GABA) and insulin receptors using Schrodinger and LigPrep software. Results: The administration of alloxan and phenytoin induced significant learning and cognitive deficiencies. Based on the in silico studies, alloxan is a better drug to induce hyperglycemia as compared to the well-established hyperglycemic agent, streptozotocin (STZ). Conclusions: The current study indicated that administering alloxan and phenytoin to rodents can serve as a valid animal model to understand the pathophysiology associated with hypoarousal and hyperglycemia-mediated cognitive impairment and to identify novel therapeutic interventions for hyperglycemic and hypoarousal-related learning and cognitive deficiency.
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