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The notion that the speed of thought could be measured, just like the density of a rock, was shocking. Yet that is exactly what scientists did. In 1850 German physiologist Hermann von Helmholtz attached wires to a frog’s leg muscle so that when the muscle contracted it broke a circuit. He found that it took a tenth of a second for a signal to travel down the nerve to the muscle. In another experiment he applied a mild shock to people’s skin and had them gesture as soon as they felt it. It took time for signals to travel down human nerves, too. In fact, Helmholtz discovered it took longer for people to respond to a shock in the toe than to one at the base of the spine because the path to the brain was longer.
Helmholtz’s results clashed with people’s gut instinct that they experienced the world as it happened, with no lag between sensation and awareness. “This is altogether a delusion,” German physiologist Emil Du Bois-Reymond declared in 1868. “It appears that ‘quick as thought’ is, after all, not so very quick.”
With their simple tools, Helmholtz and others could manage only crude measures of the speed of thought. Some of them came up with rates that were twice as fast as others. Researchers have been trying to get more precise results ever since. Today it is clear why they have had such a hard time. Our nerves operate at many different speeds, reflecting the biological challenges of wiring all the parts of the body together. In some ways evolution has fine-tuned our brains to run like a digital superhighway, but in other ways it has left us with a Pony Express.
In one common experiment for studying the speed of thought, researchers briefly show test subjects a lopsided, upside-down U and then ask them which leg of the figure is longer. It turns out that the subjects’ reaction times say a lot about their lives in general. People with faster responses tend to score higher on intelligence tests. Some psychologists have argued that a high processing speed in the brain is a vital ingredient for intelligence. Responses slow down when people suffer certain psychological disorders like depression. More puzzling, people with sluggish reaction times are more likely to die of incidents like strokes or heart attacks.
In principle, our thoughts could race far more efficiently if all the axons in our brains were thick. But the human brain has at least a quarter of a million miles of wiring—more than enough to reach from Earth to the moon—and is already packed tight. Sam Wang, a Princeton University neuroscientist, calculated how big our brain would be if it were built with thick axons. “Making an entire brain out of them would create heads so large that we couldn’t fit through doorways,” he concluded. Such a brain would also consume a tremendous amount of energy.
For more than 100 years scientists have attempted to determine the truth or falsity of claims that some people are able to describe and experience events or information blocked from ordinary perception. For the past 25 years, the authors of this paper—together with researchers in laboratories around the world—have carried out experiments in remote viewing. The evidence for this mode of perception, or direct knowing of distant events and objects, has convinced us of the validity of these claims. It has been widely observed that the accuracy and reliability of this sensory awareness do not diminish with either electromagnetic shielding, or with increases in temporal or spatial separation between the percipient and the target to be described. Modern physics describes such a time and space independent connection between percipient and target as nonlocal.
For more than 100 years scientists have attempted to determine the truth or falsity of claims that some people are able to describe and experience events or information blocked from ordinary perception. For the past 25 years, the authors of this paper—together with researchers in laboratories around the world—have carried out experiments in remote viewing. The evidence for this mode of perception, or direct knowing of distant events and objects, has convinced us of the validity of these claims. It has been widely observed that the accuracy and reliability of this sensory awareness do not diminish with either electromagnetic shielding, or with increases in temporal or spatial separation between the percipient and the target to be described. Modern physics describes such a time and space independent connection between percipient and target as nonlocal.
For example, our model is in good agreement with the ideas presented in the recent physics book The Nonlocal Universe, where we read, “…the universe on a very basic level could be a vast web of particles, which remain in contact with one another over any distance, [and] in no time” (Stapp, 1999).
...even if experiments could somehow be conducted in which the distance between the detectors was halfway across the known universe, the results would indicate that interaction or communication between the photons would be instantaneous...
Scientific Understanding and Mathematical Modeling of Emotions of the Spiritually Sublime
Leonid I. Perlovsky
LINK
Bar et al concentrated on three brain areas: visual cortex, object recognition area, and long-term object-information storage area (memory). They demonstrated that memory is activated 130 ms after the visual cortex, but 50 ms before the object recognition area. This confirmed that memory of an object is activated before the object is recognized.
Bar et al concentrated on three brain areas: visual cortex, object recognition area, and long-term object-information storage area (memory). They demonstrated that memory is activated 130 ms after the visual cortex, but 50 ms before the object recognition area. This confirmed that memory of an object is activated before the object is recognized.
Your Brain Can Process Only Positive Information The language of brain are pictures, sounds, feelings, tastes and smells, i.e. inputs from your senses. Your brain cannot work with negative information, i.e. inputs you haven't experienced. It can work only with positive information, i.e. "information from the experiences of your five senses, which it then manipulates in the emotional blender we call the imagination.
Can You Reflect and Act at the Same Time? Well... sort of. Reflecting and acting at the same time is very difficult as our mind can only hold one thought at a time. You can be going through periods of reflection and action at the same time but at any specific moment in time you are only spending energy in one of these two areas. You need to be focused on either reflection or action at one point and then be able to switch quickly and effortlessly to the other polarity when required. This is an important point to remember when you are considering focus and balance your life.
Research on brain theory helps you understand why some people are excellent inventors but poor producers or good managers but weak leaders. The research indicates that the brain is divided into two hemispheres, the left and the right, and that each hemisphere specializes in different functions, processes different kinds of information, and deals with different kinds of problems. The left brain works more with logic and analysis, the right works more with emotions and imagination.
Plants, scientists say, transmit information about light intensity and quality from leaf to leaf in a very similar way to our own nervous systems. These "electro-chemical signals" are carried by cells that act as "nerves" of the plants.
Originally posted by Jean Paul Zodeaux
...While recognition certainly constitute thought, is all thought nothing more than recognition?
...Doesn't it require thought to process what is being said while we are thinking of how bored with what is being said and the multitude of thoughts that come with being bored?
...Plants 'can think and remember'?...
it reminds me of the story of the american indians on the shoreline at chris columbus' arrival. as the story goes, they couldnt see the ships because they had no categorical reference for them.
likewise, i think that all thought processes must be referenced backward....back in time...back to the very first indivisible whole unit. and thus recognition of an object requires the invocation of a memory of a previous similar object. so, yeah, i guess i am agreeing with the argument that *thought* and *time* go hand in hand.
the moment of apprehension (aha!), however, is timeless. and a shocking amount of information can be downloaded into a brain (from the cosmos?) at any single instant).
this, again, is apprehension vs. thought. i really see them as two different things. the founder of modern hypnosis, Milton Erickson, has worked very effectively with the notion of apprehension. he used the The Magical Number Seven, Plus or Minus Two as the basis of all his hypnotic methods.
it is the static which does the processing. all statics are relevant only in relation to other statics of similar size and type. likewise, all minds are only relevant with relation to other minds of similar size and type.
just like einstein said: stillness and motion are relative. from one perspective, you have a static. from another perspective, you have a motion. what you are looking for IRT the root of consciousness is, i think, the moving part and not the static part. does that make any sense?
Originally posted by Jean Paul Zodeaux
...but it also strikes me that it is more than just memory at play when it comes to imagining a boat...
...what confuses me is that you are seemingly separating thought from understanding.
...there is a universal consciousness.
...does that make sense?
We do not normally think of plants as having brains. Yet, if this article is to be taken seriously then we must either start looking for that place in a plant where there brain exists, or possibly consider thinking outside of the brain, as it were.
en.wikipedia.org...
In quantum mechanics, the Heisenberg uncertainty principle states by precise inequalities that certain pairs of physical properties, such as position and momentum, cannot be simultaneously known to arbitrarily high precision. That is, the more precisely one property is measured, the less precisely the other can be measured.
Published by Werner Heisenberg in 1927, the principle means that it is impossible to determine simultaneously both the position and the momentum of an electron or any other particle with any great degree of accuracy or certainty. This is not a statement about researchers' ability to measure the quantities. Rather, it is a statement about the system itself. That is, a system cannot be defined to have simultaneously singular values of these pairs of quantities. The principle states that a minimum exists for the product of the uncertainties in these properties that is equal to or greater than one half of the reduced Planck constant (ħ = h/2π).