Linked from

The 12 pages that link to Saltatory conduction, each with the reason it gives.

• Action potentialBroader topic: Myelinated axons regenerate spikes mainly at nodes of Ranvier.

• MyelinRelated: Myelin confines regenerative electrical activity to exposed gaps, making impulses appear to leap along the axon.

• AxonRelated: It explains how myelinated axons transmit signals faster than unmyelinated ones.

• DemyelinationRelated: Myelin loss interrupts the efficient node-to-node signaling this process enables.

• OligodendrocyteRelated: Myelin made by oligodendrocytes enables this rapid mode of impulse propagation.

• White matterRelated: Myelinated white-matter axons use this mode of signaling to transmit impulses quickly.

• Schwann cellRelated: Schwann-cell myelin enables impulses to travel between nodes of Ranvier.

• Nerve conductionBroader topic: Myelin makes conduction appear to leap between exposed axon segments.

• Andrew HuxleyCompared with: This mode of propagation differs from the continuous axonal conduction modeled in Huxley’s squid experiments.

• Nervous tissueRelated: This conduction pattern explains how myelinated fibers transmit impulses rapidly.

• GliaRelated: Myelin enables impulses to travel efficiently between exposed gaps in an axon.

• Refractory period (neurophysiology)Related: Refractory membrane behind each advancing spike helps keep propagation directed forward.