Korostovtseva Lyudmila S, Kolomeichuk Sergey N
Sleep Laboratory, Research Department for Hypertension, Almazov National Medical Research Centre, 2 Akkuratov Str., St Petersburg, 197341, Russia.
Laboratory of Genetics Institute of Biology, Karelian Research Centre, Russian Academy of Sciences, Almazov National Medical Research Centre, St Petersburg, Russia.
Cardiol Ther. 2023 Jun;12(2):275-295. doi: 10.1007/s40119-023-00313-w. Epub 2023 May 16.
Stroke remains one of the leading causes of mortality and long-term and permanent disability worldwide despite technological innovations and developments in pharmacotherapy. In the last few decades, the growing data have evidenced the role of the circadian system in brain vulnerability to damage, the development and evolution of stroke, and short-term and long-term recovery. On the other hand, the stroke itself can affect the circadian system via direct injury of specific brain structures involved in circadian regulation (i.e., hypothalamus, retinohypothalamic tracts, etc.) and impairment of endogenous regulatory mechanisms, metabolic derangement, and a neurogenic inflammatory response in acute stroke. Moreover, the disruption of circadian rhythms can occur or exacerbate as a result of exogenous factors related to hospitalization itself, the conditions in the intensive care unit and the ward (light, noise, etc.), medication (sedatives and hypnotics), and loss of external factors entraining the circadian rhythms. In the acute phase of stroke, patients demonstrate abnormal circadian variations in circadian biomarkers (melatonin, cortisol), core body temperature, and rest-activity patterns. The approaches aimed at the restoration of disrupted circadian patterns include pharmacological (melatonin supplementation) and non-medication (bright light therapy, shifting feeding schedules, etc.) interventions; however, their effects on short- and long-term recovery after stroke are not well understood.
尽管药物治疗方面有技术创新和发展,但中风仍然是全球范围内导致死亡以及长期和永久性残疾的主要原因之一。在过去几十年中,越来越多的数据证明了昼夜节律系统在大脑易损性、中风的发展和演变以及短期和长期恢复中的作用。另一方面,中风本身可通过直接损伤参与昼夜节律调节的特定脑结构(如下丘脑、视网膜下丘脑束等)以及损害内源性调节机制、代谢紊乱和急性中风中的神经源性炎症反应来影响昼夜节律系统。此外,昼夜节律的紊乱可能由于与住院本身、重症监护病房和病房的环境(光线、噪音等)、药物治疗(镇静剂和催眠药)以及导致昼夜节律的外部因素丧失等外源性因素而发生或加剧。在中风急性期,患者在昼夜节律生物标志物(褪黑素、皮质醇)、核心体温和休息 - 活动模式方面表现出异常的昼夜变化。旨在恢复紊乱的昼夜节律模式的方法包括药物治疗(补充褪黑素)和非药物治疗(强光疗法、调整进食时间等)干预措施;然而,它们对中风后短期和长期恢复的影响尚不清楚。