Understanding the biological effects of hypoxia in ischemic stroke: implications for rehabilitation and recovery

被引:0
作者
Nicholas Aderinto [1 ]
Gbolahan Olatunji [2 ]
Emmanuel Kokori [3 ]
Bonaventure Ukoaka [4 ]
Adetola Emmanuel Babalola [5 ]
Ikponmwosa Jude Ogieuhi [6 ]
Abdulrahmon Moradeyo [1 ]
Ismaila Ajayi Yusuf [7 ]
Apampa Oluwatobiloba Oluwatomisin [8 ]
Adefusi Temiloluwa Oluwakorede [9 ]
Oluwatobi Omoworare [10 ]
Yewande Abigail Adebayo [11 ]
机构
[1] Ladoke Akintola University of Technology,Department of Medicine and Surgery
[2] Johns Hopkins Bloomberg School of Public Health,Department of Internal Medicine
[3] University of Ilorin,Faculty of Dentistry, College of Medicine
[4] Asokoro District Hospital,Department of Medicine & Surgery
[5] University of Ibadan,Department of Medicine & Surgery
[6] Siberian State Medical University,Department of Medicine and Surgery
[7] Obafemi Awolowo University Teaching Hospitals Complex,undefined
[8] Obafemi Awolowo University,undefined
[9] College of Health Sciences,undefined
[10] Bowen University,undefined
[11] Lagos State University,undefined
[12] Glangwili General Hospital,undefined
来源
Discover Medicine | / 1卷 / 1期
关键词
Ischemic stroke; Rehabilitation; Hypoxia exposure therapy;
D O I
10.1007/s44337-024-00161-0
中图分类号
学科分类号
摘要
Ischemic stroke can leave patients with lasting disabilities. Rehabilitation is crucial, but new approaches are needed. One promising avenue is hypoxia exposure therapy. This involves controlled exposure to low oxygen levels. While it may sound counterintuitive, this approach triggers the brain to adapt. Studies suggest hypoxia stimulates the growth of new blood vessels, boosting oxygen delivery to the damaged area. Additionally, it may promote neuroplasticity, the brain's ability to reorganize and form new connections. This can lead to the creation of new nerve cells, potentially replacing those lost in the stroke. Furthermore, hypoxia exposure might help regulate inflammation, a key contributor to stroke damage. Early research, particularly with intermittent hypoxia training, shows promise for improved motor function recovery. However, challenges remain. Stroke severity, location, and individual health vary greatly, requiring personalized treatment plans. Determining the optimal dose, timing, and frequency of hypoxia exposure is crucial for maximizing benefits. Additionally, the precise mechanisms by which hypoxia aids recovery need further investigation. Future research will focus on tailoring protocols to individual patients, exploring combinations with other rehabilitation methods, and conducting large-scale trials to solidify the safety and effectiveness of hypoxia therapy.
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