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  1. Khan Academy | Khan Academy

    Learn about synapses, the connections between neurons in the nervous system, and how they transmit signals efficiently on Khan Academy.

  2. Neuronal synapses (chemical) (video) | Khan Academy

    There actually are certain neurons where there isn't any gap--electrical synapses connect directly because electrical signals cannot travel through a gap. Chemical synapses need the synaptic cleft so …

  3. Neurotransmitters and receptors (article) | Khan Academy

    In the article on synapses, we discussed how synaptic transmission works. Here, we’ll focus on neurotransmitters, the chemical messengers released from neurons at synapses so that they can …

  4. The synapse (article) | Human biology | Khan Academy

    A single axon can have multiple branches, allowing it to make synapses on various postsynaptic cells. Similarly, a single neuron can receive thousands of synaptic inputs from many different …

  5. Neuronal synapses questions (practice) | Khan Academy

    MCAT Course: MCAT > Unit 8 Lesson 4: Neuronal synapses Neuronal synapses questions Mini MCAT passage: Neurotransmitter removal from the synapse Mini MCAT passage: Manipulating synaptic …

  6. Signal propagation: The movement of signals between neurons

    Synapses between neurons are either excitatory or inhibitory – and that all comes down to the neurotransmitter released. Excitatory neurotransmitters cause the signal to propagate - more action …

  7. La synapse (leçon) | Influx nerveux | Khan Academy

    Comment les neurones communiquent entre eux au niveau des synapses. Synapses chimiques versus électriques.

  8. Overview of neuron structure and function - Khan Academy

    These connections, known as synapses, are the sites at which information is carried from the first neuron, the presynaptic neuron, to the target neuron (the postsynaptic neuron).

  9. Khan Academy

    Khan Academy ... Khan Academy

  10. Neuroplasticity (video) | Khan Academy

    This process involves changes in synapses and neurons, leading to potentiation or depression of information flow. It's most active during development, but continues throughout life, with research …