提出了一种避免因换流阀阀基电子设备触发脉冲丢失而造成控制保护系统(control and protection,CCP)误动作的控制策略。该策略的核心是同时算法设计,在控制保护系统经过以太网向门级单元(gate unit,GU)发出的触发信号出现脉冲丢失的情况...提出了一种避免因换流阀阀基电子设备触发脉冲丢失而造成控制保护系统(control and protection,CCP)误动作的控制策略。该策略的核心是同时算法设计,在控制保护系统经过以太网向门级单元(gate unit,GU)发出的触发信号出现脉冲丢失的情况下,VBE检测到回报信号后不做任何处理,根据运行经验和数理统计得出,当检测到连续丢4个周波(80 ms)的脉冲时才向控制保护系统发送请求切换系统信号。基于这种控制策略设计的阀基电子系统已经在实时数字仿真器联调试验中应用,试验结果表明,这种控制策略有效消除了现有保护方法产生的危险现象,避免了系统误动作的概率。展开更多
Neural damage or degeneration is at the crux of many diseases,and treatment of these diseases will require the development of therapeutics to enhance and guide neural regeneration.Both intrinsic and extrinsic factors ...Neural damage or degeneration is at the crux of many diseases,and treatment of these diseases will require the development of therapeutics to enhance and guide neural regeneration.Both intrinsic and extrinsic factors dictate a neuron’s ability to regenerate,and the combination of these factors results in the great regenerative capacity of the peripheral nervous system(PNS)and the poor regenerative capacity of the central nervous system(CNS)following injury.At the core of a neuron’s function is its ability to relay electrochemical signals,and a neuron’s excitability is a key factor in its ability to regenerate.Recent works have focused on the changes in neuronal electrophysiological properties,firing patterns,and ion flux after injury,which differentially activate signaling pathways at the core of regeneration.The role of glia in neuron regeneration has long been studied.展开更多
文摘提出了一种避免因换流阀阀基电子设备触发脉冲丢失而造成控制保护系统(control and protection,CCP)误动作的控制策略。该策略的核心是同时算法设计,在控制保护系统经过以太网向门级单元(gate unit,GU)发出的触发信号出现脉冲丢失的情况下,VBE检测到回报信号后不做任何处理,根据运行经验和数理统计得出,当检测到连续丢4个周波(80 ms)的脉冲时才向控制保护系统发送请求切换系统信号。基于这种控制策略设计的阀基电子系统已经在实时数字仿真器联调试验中应用,试验结果表明,这种控制策略有效消除了现有保护方法产生的危险现象,避免了系统误动作的概率。
文摘Neural damage or degeneration is at the crux of many diseases,and treatment of these diseases will require the development of therapeutics to enhance and guide neural regeneration.Both intrinsic and extrinsic factors dictate a neuron’s ability to regenerate,and the combination of these factors results in the great regenerative capacity of the peripheral nervous system(PNS)and the poor regenerative capacity of the central nervous system(CNS)following injury.At the core of a neuron’s function is its ability to relay electrochemical signals,and a neuron’s excitability is a key factor in its ability to regenerate.Recent works have focused on the changes in neuronal electrophysiological properties,firing patterns,and ion flux after injury,which differentially activate signaling pathways at the core of regeneration.The role of glia in neuron regeneration has long been studied.
