一种改进的间歇性电刺激疗法用于青霉素诱导的癫痫抑制

Long-Bin Liu, Jiacheng Zhang, Shuming Ye, Kedi Xu
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引用次数: 0

摘要

神经调节是治疗耐药癫痫的一种很有前途的治疗方法。研究表明,电刺激可以诱导刺激后神经活动的抑制,使其可用于中止癫痫发作。考虑到长期的安全性,间歇开环电刺激在实验研究和临床试验中都是常用的。通常应用的刺激是在刺激on和off之间交替序列,在此过程中刺激脉冲序列和间隔时间都持续几分钟。长时间的刺激可能导致组织和电极本身的损伤。为了优化治疗效果,本研究设计了一种新的刺激模式。为了减少电荷积累,植入了两对交叉位置的电极,以交错传递刺激。此外,采用短间隔脉冲序列代替较长的刺激周期。测试关键刺激参数进行疗效比较。并通过LFP信号监测和评估长期癫痫发作抑制效果。结果表明,在急性青霉素致癫痫模型中,新刺激疗法可使癫痫发作时间明显缩短80.3%。检获毒品的数目亦减少了80.7%。这些结果表明,缩短刺激序列仍然可以有效地抑制癫痫发作,为癫痫发作治疗提供了一种新的可能的刺激范式。
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An Improved Intermittent Electrical Stimulation Therapy for Penicillin-induced Seizure Suppression
Neuromodulation is a promising treating therapy for drug-resistant epilepsy. Studies have shown that electrical stimulation could induce post-stimulus inhibition of neural activity, making it available for aborting seizure. Considering the long-term safety, intermittent open loop electrical stimulations are commonly employed in both experimental studies and clinical trials. Commonly applied stimulations were alternation sequences between stimulation ONs and OFFs, during which both stimulation pulse trains and interval periods lasted several minutes. The long periods of stimulations may lead to damage to both tissue and electrode itself. To optimize treatment efficacy, in current study, a new stimulation paradigm was designed. To reduce charge accumulation, two pairs of cross-located electrodes were implanted for interleaved stimulation delivering. Besides, brief pulse trains with short intervals were applied instead of relatively long stimulation cycle. Key stimulation parameters were tested for efficacy comparison. And long-term seizure suppression effects were monitored and estimated by LFP signals. The results showed that in acute Penicillin-induced seizure model, the new stimulation therapy could significantly reduce seizure durations by 80.3%. The counts of seizure were also found to be reduced by 80.7%. These results demonstrated that with shortened stimulation sequences, seizures could still be suppressed efficiently, providing a new possible stimulation paradigm for seizure treatment.
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