The neuroprotective mechanisms of ginkgolides and bilobalide in cerebral ischemic injury: a literature review.
Zili FengQian SunWang ChenYu BaiDaihua HuXin XiePublished in: Molecular medicine (Cambridge, Mass.) (2019)
The incidence and mortality of strokes have increased over the past three decades in China. Ischemic strokes can cause a sequence of detrimental events in patients, including increased permeability and dysfunction of the blood-brain barrier, brain edema, metabolic disturbance, endoplasmic reticulum stress, autophagy, oxidative stress, inflammation, neuron death and apoptosis, and cognitive impairment. Thrombolysis using recombinant tissue plasminogen activator (rtPA) and mechanical embolectomy with a retrievable stent are two recognized strategies to achieve reperfusion after a stroke. Nevertheless, rtPA has a narrow therapeutic timeframe, and mechanical embolectomy has limited rates of good neurological outcomes. EGb761 is a standardized and extensively studied extract of Ginkgo biloba leaves. The ginkgolides and bilobalide that constitute a critical part of EGb761 have demonstrated protective properties towards cerebral injury. Ginkgolides include Ginkgolide A (GA), Ginkgolide B (GB), Ginkgolide C (GC), Ginkgolide J (GJ), Ginkgolide K (GK), Ginkgolide L (GL), and Ginkgolide M (GM). This review seeks to elucidate the neuroprotective effects and mechanisms of ginkgolides, especially GA and GB, and bilobalide in cerebral injury following ischemic strokes.
Keyphrases
- cerebral ischemia
- oxidative stress
- endoplasmic reticulum stress
- subarachnoid hemorrhage
- induced apoptosis
- brain injury
- blood brain barrier
- ischemia reperfusion injury
- pulmonary embolism
- cognitive impairment
- pet ct
- risk factors
- dna damage
- diabetic rats
- cell death
- end stage renal disease
- multidrug resistant
- newly diagnosed
- ejection fraction
- case report
- prognostic factors
- inferior vena cava
- heat shock
- high resolution
- atrial fibrillation
- acute myocardial infarction
- adipose tissue
- cell proliferation
- cardiovascular events
- coronary artery disease
- skeletal muscle
- type diabetes
- cell cycle arrest