Studies show that electromagnetic fields from televisions, computers, wireless devices, and even exercise machines can interfere with
brain and nervous system signals, disrupting slumber.
Not exact matches
The research team discovered leptin
and insulin interact with proopiomelanocortin (POMC) neurons in the
brain's hypothalamus, causing them to send
signals through the
nervous system promoting the conversion of white fat into brown fat.
With the Human
Brain Project, researchers will use supercomputers to reproduce how
brains form — basically, growing them in an virtual vat — then seeing how they respond to input
signals from simulated senses
and nervous system.
Sophisticated neuroimaging machines
and brain - computer interfaces detect the electrical activity of neurons, enabling us to decode
and even alter the
nervous system signals that accompany mental processes.
Axons, the long projections of neural cells which form the nerves of our peripheral
nervous system, are like electrical cables: they have thick electrical insulation so that they can quickly relay stimuli from the body
and signals from the
brain to a toe, for example.
The retina sits at the back of the human eye,
and contains protein cells that convert light into electrical
signals that travel through the
nervous system, triggering a response from the
brain, ultimately building a picture of the scene being viewed.
In the course of this work, he has pioneered several new approaches in the fruit fly that have had important implications for mammalian neurobiology, including: the demonstration that the fruit fly has a sleep - like behavior similar to that of mammals, studies of physiological
and behavioral consequences of mutations in a neurotransmitter
system affecting one of the
brain's principal chemical
signals, studies making highly localized genetic alterations in the
nervous system to alter behavior,
and molecular identification of genes causing naturally occurring variation in behavior.
It means recording the
signals that the
brain is trying to send via the spinal cord, translating them into an electrical stimulus pattern that the
nervous system understands,
and then providing that pattern of electrical stimulation at some point below the level of the injury.
Their crisscrossing paths
and collective efforts have nonetheless led to a clear - eyed understanding of how neurons — the
brain's cellular building blocks — form
and function
and how ion - conducting channels control the flow of electrical
signals through the
nervous system.
Neuropeptides comprise a large class of
signaling molecules which are secreted from neurons
and transmit messages within the
brain and across the
nervous system.
Garrison is interested in a large class of
signaling molecules called neuropeptides which are secreted from neurons
and transmit messages within the
brain and across the
nervous system.
Finally, the strategy applied here for selective delivery of MK801 can be extended to other small molecules for use in
brain tissue (Tian et al., 2012), allowing for an approach that combines chemistry, molecular genetics,
and neurobiology to dissect cell
signaling pathways in specific cell types in the central
nervous system.
Most painkillers (or analgesics, from the Greek term for the absence of pain) work on the central
nervous system — the
brain and the spinal cord —
and the peripheral
nervous system, which connects the rest of the body to them, sending
signals back
and forth.
The cell membranes within the
brain, spinal cord, &
nervous system are especially dependent upon fluid based membranes for proper
signaling and neurotransmitter dynamics (2).
It is found in the
brain and spinal cord
and is associated with inflammatory processes
and pain — it acts as a neurotransmitter to carry pain
signals to the
nervous system.
These «afferent
signals», or
signals that flow to the
brain, have a regulatory influence on many aspects of your
nervous system, including most of your glands
and organs.
These neurotransmitters are the
signals that carry thoughts, feelings,
and commands around our
brains and throughout our
nervous system.
The basic sensations of hunger, pain
and satiety are examples of
signals that require efficient bidirectional communication between the enteric
nervous system and the
brain.
The enteric
nervous system is responsible for initiating the rhythmic peristaltic movement of the gut, as well as relaying important
signals to
and from the
brain.
If you've ever come back after lunch
and felt tired, nauseous, or a little «fuzzy,» your enteric
nervous system may be reacting to something you ate —
and sending
signals to your
brain.
The term «microbiota - gut -
brain axis» is used to describe the complex bidirectional
signaling that occurs between the GI tract
and the
nervous system,
and emphasizes the newly recognized role of intestinal microbes in these interactions.
These processes are facilitated by the instantaneous delivery of electrical
signals that are transmitted, via the peripheral
nervous system, from tissues throughout a cat's entire body to its spinal cord
and brain.
These injuries disrupt the
signals that are carried back
and forth between the body
and the
brain, which comprises the central
nervous system (CNS).