- #1
- 3,012
- 42
I'm looking for a published paper I can reference that indicates neurons interact classically (ie: no quantum entanglement between neurons). Is there any such reference?
Reference: http://en.wikipedia.org/wiki/Otto_LoewiBefore Loewi's experiments, it was unclear whether signalling across the synapse was bioelectrical or chemical. Loewi's famous experiment, published in 1921, largely answered this question. According to Loewi, the idea for his key experiment came to him in his sleep. He dissected out of frogs two beating hearts: one with the vagus nerve which controls heart rate attached, the other heart on its own. Both hearts were bathed in a saline solution (i.e. Ringer's solution). By electrically stimulating the vagus nerve, Loewi made the first heart beat slower. Then, Loewi took some of the liquid bathing the first heart and applied it to the second heart. The application of the liquid made the second heart also beat slower, proving that some soluble chemical released by the vagus nerve was controlling the heart rate. He called the unknown chemical Vagusstoff. It was later found that this chemical corresponded to acetylcholine (Kandel, et al 2000).
Neurons are specialized cells that make up the nervous system. They are responsible for receiving, processing, and transmitting information throughout the body.
Neurons interact through a process called synaptic transmission. This involves the release of neurotransmitters, which are chemical messengers, from one neuron to another.
Classical interaction refers to the exchange of information between neurons through the activation of specific pathways and the release of neurotransmitters. This is the traditional understanding of how neurons communicate.
Classical interaction between neurons is essential for normal brain function. It allows for the integration and processing of information, as well as the coordination of various bodily functions.
Yes, recent research has shown that neurons can also interact through non-classical pathways, such as through direct electrical connections or through the release of non-traditional neurotransmitters. This expands our understanding of how neurons communicate and process information.