6.5.2 Draw and label 1 Include a diagram of dendrites, cell the structure of body with a motor nucleus, axon, neuron. myelin sheath, nodes of Ranvier and motor end plates. 6.5.3 State that 1 nerve impulses are conducted from receptors to the CNS by sensory neurons, within the CNS by relay neurons, and from the CNS to effectors by motor neurons. 6.5.4 Define resting 1 potential and action potential (depolarization and repolarization). 6.5.5 Explain how a 3 Include the nerve impulse movement of passes along a Na+ and K+ ions to create a resting potential neuron. and an action potential. 6.5.6 Explain the 3 Include the principles of release, synaptic diffusion and transmission. binding of the neurotransmitter, initiation of an action potential in the membrane, and subsequent removal of the neurotransmitter. Aim 7: Data logging can be used to measure changes in conductivity in distilled as
6.5.2 Draw and label a diagram of the structure of a motor neuron. 1 Include dendrites, cell body with nucleus, axon, myelin sheath, nodes of Ranvier and motor end plates. 6.5.3 State that nerve impulses are conducted from receptors to the CNS by sensory neurons, within the CNS by relay neurons, and from the CNS to effectors by motor neurons. 1 6.5.4 Define resting potential and action potential (depolarization and repolarization). 1 6.5.5 Explain how a nerve impulse passes along a neuron. 3 Include the movement of Na+ and K+ ions to create a resting potential and an action potential. 6.5.6 Explain the principles of synaptic transmission. 3 Include the release, diffusion and binding of the neurotransmitter, initiation of an action potential in the membrane, and subsequent removal of the neurotransmitter. Aim 7: Data logging can be used to measure changes in conductivity in distilled as
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