Beyond Recanalization: Neurovascular Unit Protection and Precision Adjunctive Therapy for Ischemic Stroke in the Reperfusion Era

Intravenous thrombolysis and endovascular thrombectomy (EVT) have increased large-vessel recanalization in acute ischemic stroke, yet macrovascular reopening does not ensure tissue reperfusion or functional recovery. Microvascular no-reflow, blood–brain barrier failure, oxidative injury, thromboinflammation, edema, and hemorrhagic transformation sustain a recanalization-to-recovery gap. Classical neuroprotection failed because of mismatches in models, timing, brain exposure, patient selection, and endpoints, and because ischemic injury was reduced to a single neuronal pathway. Cerebroprotection in the reperfusion era should target the neurovascular unit: delaying penumbral collapse before recanalization, limiting oxidative and vascular injury during thrombectomy, and restoring microcirculatory and barrier function afterwards. Recent trials show a differentiated landscape. ESCAPE-NEXT and RODIN were neutral; TASTE-2 suggested a borderline overall effect and imaging-defined heterogeneity for edaravone dexborneol; BAST supported potential benefit from butylphthalide; and the positive EMPHASIS trial contrasted with neutral EVT-specific MIST-A findings for minocycline. We organize mechanisms and interventions along the macrovascular recanalization–tissue reperfusion–neurovascular-unit preservation–functional recovery continuum, stratify evidence across pharmacological, physiological, delivery, natural-product, and cell/extracellular-vesicle strategies, and propose a precision framework integrating tissue and target windows, reperfusion status, and measurable treatment response. Next-generation trials should combine target engagement, imaging enrichment, prespecified biomarker interactions, and adaptive designs. Current evidence supports redesigning cerebroprotection, not adopting any candidate as a universal adjunct to reperfusion.

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Publication Details

Journal
Biomolecules
Published
2026-09-16
DOI
https://doi.org/10.3390/biom16091346
Primary Topic
Neurological Disease Mechanisms and Treatments
Type
article
Field-Weighted Citation Impact
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article

Beyond Recanalization: Neurovascular Unit Protection and Precision Adjunctive Therapy for Ischemic Stroke in the Reperfusion Era

Jing Ma, 熊兴江, Xusheng Wu, Yue Xing et al.
Biomolecules
Neurological Disease Mechanisms and Treatments
article

Beyond Recanalization: Neurovascular Unit Protection and Precision Adjunctive Therapy for Ischemic Stroke in the Reperfusion Era

Jing Ma, 熊兴江, Xusheng Wu, Yue Xing, Xianhui Wang
article en

Abstract

Intravenous thrombolysis and endovascular thrombectomy (EVT) have increased large-vessel recanalization in acute ischemic stroke, yet macrovascular reopening does not ensure tissue reperfusion or functional recovery. Microvascular no-reflow, blood–brain barrier failure, oxidative injury, thromboinflammation, edema, and hemorrhagic transformation sustain a recanalization-to-recovery gap. Classical neuroprotection failed because of mismatches in models, timing, brain exposure, patient selection, and endpoints, and because ischemic injury was reduced to a single neuronal pathway. Cerebroprotection in the reperfusion era should target the neurovascular unit: delaying penumbral collapse before recanalization, limiting oxidative and vascular injury during thrombectomy, and restoring microcirculatory and barrier function afterwards. Recent trials show a differentiated landscape. ESCAPE-NEXT and RODIN were neutral; TASTE-2 suggested a borderline overall effect and imaging-defined heterogeneity for edaravone dexborneol; BAST supported potential benefit from butylphthalide; and the positive EMPHASIS trial contrasted with neutral EVT-specific MIST-A findings for minocycline. We organize mechanisms and interventions along the macrovascular recanalization–tissue reperfusion–neurovascular-unit preservation–functional recovery continuum, stratify evidence across pharmacological, physiological, delivery, natural-product, and cell/extracellular-vesicle strategies, and propose a precision framework integrating tissue and target windows, reperfusion status, and measurable treatment response. Next-generation trials should combine target engagement, imaging enrichment, prespecified biomarker interactions, and adaptive designs. Current evidence supports redesigning cerebroprotection, not adopting any candidate as a universal adjunct to reperfusion.

BiomoleculesVol. 16(9)
Qinghai University (CN), Chinese Academy of Medical Sciences & Peking Union Medical College (CN), Guang’anmen Hospital (CN)
Openalex Percentile: Top 13%
Neurological Disease Mechanisms and Treatments
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