"The experiment has three steps. You start by showing two of these puzzle pictures to a group of test subjects to establish a base line for how easily the hidden picture in each can be recognized. Next, on TV so that you can reach large numbers of people, you teach the TV viewers how to see one of the hidden images, but do not show the other. Finally, you get a new group of test subjects who did not see or hear about the TV show, and again test their ability to recognize the hidden images. The experimental question is, if lots of people learn to spot the hidden image in the puzzle picture, then does that make it easier for other people to spot it as well?" -- Sheldrake The people who saw the television show and were shown how to interpret the image in the pictures (i.e. looking at the negative, white space) are like the critical number (the "100 monkeys") who learned to wash their sweet potatoes. This knowledge then goes in to the morphogenetic field and becomes assessable to large numbers of people who did not watch the televised show and were not shown how to interpret the pictures. You compare the successful results of a groups, before and after the method of interpretation was taught, to see the effect. Below are the two images shown to BBC viewers in the experiment. Try to guess what the picture is in each puzzle. After you click on the first picture, the hidden image will be revealed. Using that knowledge, can you "see" the image in the second picture? Click after you have made a guess. How did you do?
 Figure 1 [above]
 Figure 2 [above] The first of these TV experiments was done in Britain in 1983 with 2 million viewers. Several thousand people were then tested in different parts of the world and the result was very positive and significant.
"This was then done on a larger scale on BBC television in 1984 with 8 million viewers. It was on one of the popular science programs calledTomorrow's World. Now in that one, the image to be shown was selected at random, live, at the moment of broadcast. Post-broadcast tests were then carried out in North America, in Western Europe, and in the Southern Hemisphere, particularly South Africa ... The percentage of people recognizing the hidden image in the picture that was shown on television increased very significantly in Western Europe, but not in North America, and in neither case was there a change in the control picture. So there seems to have been an effect, but the effect was confined to Western Europe. Now at first this looks as if it might be a distance effect but I don't expect distance effects ... one possibility is that this has to do with people being in similar time zones, being more in phase. South Africa and Western Europe are only one hour different from Britain, whereas America is 5 to 8 hours different." -- Sheldrake
The Plastic Brain
When we speak of the brain being "plastic" we are speaking about its ability to reorganize the neurons to perform different functions, as needed. If one part of the brain is injured, it is possible for other parts of the brain to be mobilized to compensate for the lost tissue. As we age, it is possible for individual neurons to regenerate and be revitalized. More evidence is suggesting that electrical fields play an important role in this "plasticity".
Neurons are continually born from endogenous stem cells and added to the brain throughout our lives. But as we get older, the development of new neurons declines dramatically. A study reported in the Annals of Neurology in 2002 described how aged mice with minimal new neuron development were revitalized and their neurons made to regenerate up to five times that of the control group merely by subjecting them to robust mental stimuli.
"Could this plastic response be relevant for explaining the beneficial effects of leading 'an active life' on brain function and pathology? Adult hippocampal neurogenesis in mice living in an enriched environment from the age of 10 to 20 months was fivefold higher than in controls. This cellular plasticity occurred in the context of significant improvements of learning parameters, exploratory behavior, and locomotor activity. Enriched living mice also had a reduced lipofuscin load in the dentate gyrus, indicating decreased nonspecific age-dependent degeneration. Therefore, in mice signs of neuronal aging can be diminished by a sustained active and challenging life, even if this stimulation started only at medium age. Activity exerts not only an acute but also a sustained effect on brain plasticity." -- [2]
It seems probable that by activating existing paths and stimulating electric field activity, neurogenesis -- the revitalization of neurons -- can be achieved. There seems to be some kind of mechanism that switches on the genes, making them behave as if they were younger. The good news is that this revitalization does not need to be intellectual. Brain stimulation from ordinary physical exercise appears to have the same effect.
In UCLA's Division of Neurosurgery, researchers found that rodents who were exercised regularly had greater neurogenesis and neuroplasticity compared to a control group that was not able to exercise. [3] So it seems that multi-path stimulation is key to maintaining a healthy brain. And this plasticity again appears related to the electric fields that are generated when a collection of neural pathways are stimulated simultaneously.
Can we mould our own brain?
Yes. The extent to which we can reconfigure our own brain is truly amazing. In the following video, 9 year old Jodi Miller can be seen attending school, playing with her friends and living a normal life. Her intellect and emotions remain intact despite the fact that surgeons removed one half of her brain.
Jodi suffered from brain siezures that could not be controlled by medication. To save her life, an entire hemisphere had to be disected. The empty half of her cranium has since been replaced by cerebral fluid. The remaining half of her brain reconfigured and reassigned the tasks of her missing hemisphere almost completely.
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