In Search Of A Science Of Consciousness

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Any color you choose can be matched by a mixture of short, medium and long wavelength light (i.e., blue, green and red light).
This perceptual observation led to the formulation, early in the 19th century, of a neurophysiological hypothesis: The eye contains three kinds of distinct color-sensitive receptors (cones); just as colors themselves can be composed of lights of different spectral character, so we can see the vast range of visible color thanks to the joint operation of only three distinct kinds of receptors.

This is a beautiful example of the primacy of experience in the study of the brain-basis of consciousness.
Before you can even begin to think about how the brain enables us to see or feel or (more generally) experience what we do, you need to pay careful attention to what our experience is actually like.

And, so, it was further attention to the experience that led scientists to realize the shortcomings of what came to be known as the Trichromatic Theory of Color.
Consider: You get purple by mixing blue and red light.

Indeed, purple is just a reddish-blue or a bluish-red; you can actually see the red and blue in the purple, and you can imagine a purple becoming more and more blue until it is entirely blue.

The Trichromatic Theory tries to explain these phenomena by suggesting that we see purple when our red and blue sensitive cones (that is, our long wave- and short wave-sensitive cones) are activated at the same time.
Different purples correspond to different ratios of activation.

But now, consider the case of yellow.
You get yellow by mixing red and green light, just as you get purple by mixing red and blue.

But yellow isn't reddish-green or greenish-red in the way that purple is reddish-blue.
In fact, there is no such thing as reddish-green.

Moreover, you don't see red or green in yellow the way you see blue and red in purple.
Yellow, like blue and red, but not like purple, is unary, not binary.

The Trichromatic Theory has no resources to explain facts about color vision such as these.
In order to explain them, neurophysiologists were led to propose a totally different kind of theory of neural processing beyond the retina (the so-called Opponent Processing Theory).

I speak of the primacy of experience in order to bring out the fact that an investigation of what we see – a careful reflection on rules governing our experience – is a necessary preliminary to the neurophysiological study of how neural states support and enable consciousness.

But how do we study experience?
How do we carry out what is sometimes, in philosophical circles, called phenomenology?

There are three kinds of obvious obstacle.
First, most of the time, in daily life, we aren't interested in experience itself.

We are interested not so much in the experience of color, for example, as in such things as whether the tomato is ripe, or whether you should paint your living room this shade of off-white rather than one of the half-dozen other shades for sale at the same hardware store.

Paying attention to experience requires new skills, or at least new habits.

Second, so often when you do turn your attention to your experience, you change the experience.
When was the last time you compared the way your sweater looks in different conditions of illumination?

If you were to do that you'd probably notice features that had never been brought to your attention before.
Have you better appreciated how your sweater really looks?

Or do you now experience it differently?

Finally, our attitudes about experience are usually governed by familiar concepts, and those familiar concepts don't really do justice to the great variety we actually experience.

Take that red car parked out front.
You see it.

It's red.
You experience its color.

But there is so much more to be said about how it looks, even just confining our attention to color, than merely that it looks red.
At one end it is glowing white in the direct glare of the sun.

At the other end it is bathed in cool shadow and looks, really, almost gray.
Gaining access to the structure and quality of experience requires, it would seem, a better taxonomy of qualities and modes of awareness of those qualities.

It isn't obvious that ordinary language and thought provide us with this superior taxonomy.

One of the extraordinary and exciting claims advanced in Evan Thompson's new bookWaking, Dreaming, Being is that some meditative practices – for example the sorts of focused attention practices developed in some Buddhist traditions – can actually be thought of as techniques for attending to features of experience to which we usually pay no attention.

Like artists and designers who learn to notice and see what most of us tend to ignore or neglect, adept meditators can see and notice things we rarely ever do. For this reason, if Thompson is right, these expert practitioners can play a special role not as guinea pigs, but as collaborators in the development of a better, more adequate neuroscience of human experience.

Now, Thompson's book has a much broader focus than this. He advances a specific philosophical claim – that the self is a process, not a thing or an entity – and he examines and develops this claim in the light cast not only by contemporary cognitive science but also traditional Indian philosophy and contemplative practices that are descendent from those philosophical traditions (but are not identical to them).

The book takes a cross-cultural, historical and trans-disciplinary look at the self as it is treated in these different settings.
Along the way, Thompson thinks about death and dying and whether consciousness can be explained in neural terms alone, as well as much else.

He also participates in an open and genuinely critical dialog between science and religion.

But the thing to which I want to call attention now – I'll try to come back to other topics in the book in later posts – is Thompson's claim that Buddhist contemplative practices, religion and spirituality aside, can be thought of as a kind of phenomenological training – one that can serve the scientific study of mind.

This is related to a second claim advanced in the book.
I mentioned before that our reflection on experience tends to be governed by concepts that do not always do justice to the full range of qualities that we experience.

Thompson argues that there is an ancient Indian philosophical tradition (which comes down to us in the text of the Upanishads, and to which Thompson offers an accessible introduction) that aimed, with rigor and precision, among other things, at the development of a taxonomy of modes of human consciousness.

As Thompson notes, in the Western tradition we tend to think of consciousness as something that is present or absent.
You have it when you are awake.

You lose it when you are knocked out.
But ancient Indian philosophers – writing thousands of years before Socrates – thought it was crucial to distinguish modes of consciousness within the range of what, in the Western tradition, we call unconsciousness.

Dreaming, lucid dreaming, deep and dreamless sleep, and so-called pure awareness – the awareness that is always present beneath or behind waking, dreaming, and peaceful, dreamless sleep – are examples of such modes.

I won't pursue these in any detail here.
My present point is more general.

One of the beautiful ideas, or maybe it would be better to say challenges, in Thompson's book is that Western science has not yet framed for itself an adequate phenomenology of experience (maybe, by the way, not even an adequate phenomenology of color).

What is needed, then, according to Thompson, is not so much an opportunity to put monks in the scanner to see what makes them special but, rather, an opportunity to collaborate with them – and with the philosophical tradition that informs their practices – to understand better the character of experience and, so, take the necessary preliminary steps toward a better science of consciousness.
 
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Well, at least they aren't claiming the red-eye effect as possession by the devil...


Or is it...clever devil...

It’s most likely a fake photo…but even I thought it was cleverly done and ended up looking pretty cool.
If it’s not a fake then it’s scary as hell.
 
You’re powered by quantum mechanics.
No, really…


For years biologists have been wary of applying the strange world of quantum mechanics, where particles can be in two places at once or connected over huge distances, to their own field. But it can help to explain some amazing natural phenomena we take for granted


According to quantum biology, the European robin has a 'sixth sense' in the form of a protein in its eye sensitive to the orientation of the Earth's magnetic field, allowing it to 'see' which way to migrate.



Every year, around about this time, thousands of European robins escape the oncoming harsh Scandinavian winter and head south to the warmer Mediterranean coasts.
How they find their way unerringly on this 2,000-mile journey is one of the true wonders of the natural world.

For unlike many other species of migratory birds, marine animals and even insects, they do not rely on landmarks, ocean currents, the position of the sun or a built-in star map. Instead, they are among a select group of animals that use a remarkable navigation sense – remarkable for two reasons.

The first is that they are able to detect tiny variations in the direction of the Earth’s magnetic field – astonishing in itself, given that this magnetic field is 100 times weaker than even that of a measly fridge magnet.

The second is that robins seem to be able to “see” the Earth’s magnetic field via a process that even Albert Einstein referred to as “spooky”.
The birds’ in-built compass appears to make use of one of the strangest features of quantum mechanics.

Over the past few years, the European robin, and its quantum “sixth sense”, has emerged as the pin-up for a new field of research, one that brings together the wonderfully complex and messy living world and the counterintuitive, ethereal but strangely orderly world of atoms and elementary particles in a collision of disciplines that is as astonishing and unexpected as it is exciting.

Welcome to the new science of quantum biology.

Most people have probably heard of quantum mechanics, even if they don’t really know what it is about.
Certainly, the idea that it is a baffling and difficult scientific theory understood by just a tiny minority of smart physicists and chemists has become part of popular culture.

Quantum mechanics describes a reality on the tiniest scales that is, famously, very weird indeed; a world in which particles can exist in two or more places at once, spread themselves out like ghostly waves, tunnel through impenetrable barriers and even possess instantaneous connections that stretch across vast distances.

But despite this bizarre description of the basic building blocks of the universe, quantum mechanics has been part of all our lives for a century.
Its mathematical formulation was completed in the mid-1920s and has given us a remarkably complete account of the world of atoms and their even smaller constituents, the fundamental particles that make up our physical reality.

For example, the ability of quantum mechanics to describe the way that electrons arrange themselves within atoms underpins the whole of chemistry, material science and electronics; and is at the very heart of most of the technological advances of the past half-century.

Without the success of the equations of quantum mechanics in describing how electrons move through materials such as semiconductors we would not have developed the silicon transistor and, later, the microchip and the modern computer.


However, if quantum mechanics can so beautifully and accurately describe the behaviour of atoms with all their accompanying weirdness, then why aren’t all the objects we see around us, including us – which are after all only made up of these atoms – also able to be in two place at once, pass through impenetrable barriers or communicate instantaneously across space?

One obvious difference is that the quantum rules apply to single particles or systems consisting of just a handful of atoms, whereas much larger objects consist of trillions of atoms bound together in mindboggling variety and complexity.

Somehow, in ways we are only now beginning to understand, most of the quantum weirdness washes away ever more quickly the bigger the system is, until we end up with the everyday objects that obey the familiar rules of what physicists call the “classical world”.

In fact, when we want to detect the delicate quantum effects in everyday-size objects we have to go to extraordinary lengths to do so – freezing them to within a whisker of absolute zero and performing experiments in near-perfect vacuums.

Quantum effects were certainly not expected to play any role inside the warm, wet and messy world of living cells, so most biologists have thus far ignored quantum mechanics completely, preferring their traditional ball-and-stick models of the molecular structures of life.

Meanwhile, physicists have been reluctant to venture into the messy and complex world of the living cell; why should they when they can test their theories far more cleanly in the controlled environment of the lab where they at least feel they have a chance of understanding what is going on?



Erwin Schrödinger, whose book What is Life? suggested that the macroscopic order of life was based on order at its quantum level.

Yet, 70 years ago, the Austrian Nobel prize-winning physicist and quantum pioneer, Erwin Schrödinger, suggested in his famous book, What is Life?, that, deep down, some aspects of biology must be based on the rules and orderly world of quantum mechanics.

His book inspired a generation of scientists, including the discoverers of the double-helix structure of DNA, Francis Crick and James Watson.
Schrödinger proposed that there was something unique about life that distinguishes it from the rest of the non-living world.

He suggested that, unlike inanimate matter, living organisms can somehow reach down to the quantum domain and utilise its strange properties in order to operate the extraordinary machinery within living cells.

Schrödinger’s argument was based on the paradoxical fact that the laws of classical physics, such as those of Newtonian mechanics and thermodynamics, are ultimately based on disorder.

Consider a balloon.
It is filled with trillions of molecules of air all moving entirely randomly, bumping into one another and the inside wall of the balloon.

Each molecule is governed by orderly quantum laws, but when you add up the random motions of all the molecules and average them out, their individual quantum behaviour washes out and you are left with the gas laws that predict, for example, that the balloon will expand by a precise amount when heated.

This is because heat energy makes the air molecules move a little bit faster, so that they bump into the walls of the balloon with a bit more force, pushing the walls outward a little bit further.

Schrödinger called this kind of law “order from disorder” to reflect the fact that this apparent macroscopic regularity depends on random motion at the level of individual particles.

But what about life?

Schrödinger pointed out that many of life’s properties, such as heredity, depend of molecules made of comparatively few particles – certainly too few to benefit from the order-from-disorder rules of thermodynamics.

But life was clearly orderly.
Where did this orderliness come from?

Schrödinger suggested that life was based on a novel physical principle whereby its macroscopic order is a reflection of quantum-level order, rather than the molecular disorder that characterises the inanimate world.
He called this new principle “order from order”.

But was he right?

Up until a decade or so ago, most biologists would have said no.

But as 21st-century biology probes the dynamics of ever-smaller systems – even individual atoms and molecules inside living cells – the signs of quantum mechanical behaviour in the building blocks of life are becoming increasingly apparent.

Recent research indicates that some of life’s most fundamental processes do indeed depend on weirdness welling up from the quantum undercurrent of reality.
Here are a few of the most exciting examples.

Enzymes are the workhorses of life.
They speed up chemical reactions so that processes that would otherwise take thousands of years proceed in seconds inside living cells.

Life would be impossible without them.
But how they accelerate chemical reactions by such enormous factors, often more than a trillion-fold, has been an enigma.

Experiments over the past few decades, however, have shown that enzymes make use of a remarkable trick called quantum tunnelling to accelerate biochemical reactions. Essentially, the enzyme encourages electrons and protons to vanish from one position in a biomolecule and instantly rematerialise in another, without passing through the gap in between – a kind of quantum teleportation.

And before you throw your hands up in incredulity, it should be stressed that quantum tunnelling is a very familiar process in the subatomic world and is responsible for such processes as radioactive decay of atoms and even the reason the sun shines (by turning hydrogen into helium through the process of nuclear fusion).

Enzymes have made every single biomolecule in your cells and every cell of every living creature on the planet, so they are essential ingredients of life.
And they dip into the quantum world to help keep us alive.

Another vital process in biology is of course photosynthesis.
Indeed, many would argue that it is the most important biochemical reaction on the planet, responsible for turning light, air, water and a few minerals into grass, trees, grain, apples, forests and, ultimately, the rest of us who eat either the plants or the plant-eaters.

The initiating event is the capture of light energy by a chlorophyll molecule and its conversion into chemical energy that is harnessed to fix carbon dioxide and turn it into plant matter.

The process whereby this light energy is transported through the cell has long been a puzzle because it can be so efficient – close to 100% and higher than any artificial energy transport process.




Sunlight shines through chestnut tree leaves. Quantum biology can explain why photosynthesis in plants is so efficient.

The first step in photosynthesis is the capture of a tiny packet of energy from sunlight that then has to hop through a forest of chlorophyll molecules to makes its way to a structure called the reaction centre where its energy is stored.

The problem is understanding how the packet of energy appears to so unerringly find the quickest route through the forest.
An ingenious experiment, first carried out in 2007 in Berkley, California, probed what was going on by firing short bursts of laser light at photosynthetic complexes.

The research revealed that the energy packet was not hopping haphazardly about, but performing a neat quantum trick.
Instead of behaving like a localised particle travelling along a single route, it behaves quantum mechanically, like a spread-out wave, and samples all possible routes at once to find the quickest way.

A third example of quantum trickery in biology – the one we introduced in our opening paragraph – is the mechanism by which birds and other animals make use of the Earth’s magnetic field for navigation.

Studies of the European robin suggest that it has an internal chemical compass that utilises an astonishing quantum concept called entanglement, which Einstein dismissed as “spooky action at a distance”.

This phenomenon describes how two separated particles can remain instantaneously connected via a weird quantum link.
The current best guess is that this takes place inside a protein in the bird’s eye, where quantum entanglement makes a pair of electrons highly sensitive to the angle of orientation of the Earth’s magnetic field, allowing the bird to “see” which way it needs to fly.

All these quantum effects have come as a big surprise to most scientists who believed that the quantum laws only applied in the microscopic world.

All delicate quantum behaviour was thought to be washed away very quickly in bigger objects, such as living cells, containing the turbulent motion of trillions of randomly moving particles.

So how does life manage its quantum trickery?
Recent research suggests that rather than avoiding molecular storms, life embraces them, rather like the captain of a ship who harnesses turbulent gusts and squalls to maintain his ship upright and on course.

Just as Schrödinger predicted, life seems to be balanced on the boundary between the sensible everyday world of the large and the weird and wonderful quantum world, a discovery that is opening up an exciting new field of 21st-century science.


Life on the Edge: The Coming of Age of Quantum Biology by Jim Al-Khalili and Johnjoe McFadden will be published by Bantam Press on 6 November.




 
[MENTION=5045]Skarekrow[/MENTION]

It's amazing all the quantum things which happen without our input or awareness. This is exactly why I deride the idea that we're somehow special and that our mere act of observing does anything at all - we're not that special, we are just along for the ride.

There does some times seem to be a broad consciousness or awareness at times but to think that WE are somehow central to it is quite mistaken, especially considering that even birds seem to have a better quantum awareness than we do.
 
@Skarekrow

It's amazing all the quantum things which happen without our input or awareness. This is exactly why I deride the idea that we're somehow special and that our mere act of observing does anything at all - we're not that special, we are just along for the ride.

There does some times seem to be a broad consciousness or awareness at times but to think that WE are somehow central to it is quite mistaken, especially considering that even birds seem to have a better quantum awareness than we do.
Well, you could say their quantum awareness is on an instinctual level…there probably ins’t a lot of decision making by the brain while they fly in such patterns…or perhaps there is more…maybe they all form a sort of “localized quantum consciousness”?
We probably have such instinctual things that we do that are quantum processes…some think, just the idea that we can visualize things in our mind (which the mind sees the same as the real deal I might add) is a quantum action.
My view is that we have limited power over our environment, through observation or not.
If there is some sort of universal consciousness then we have a grand observer holding reality in place and such experiments like the double slit would not mean the same thing that people think it can.
But that still leaves us with limited interactive abilities.
 
Well, you could say their quantum awareness is on an instinctual level…there probably ins’t a lot of decision making by the brain while they fly in such patterns…or perhaps there is more…maybe they all form a sort of “localized quantum consciousness”?
We probably have such instinctual things that we do that are quantum processes…some think, just the idea that we can visualize things in our mind (which the mind sees the same as the real deal I might add) is a quantum action.
My view is that we have limited power over our environment, through observation or not.
If there is some sort of universal consciousness then we have a grand observer holding reality in place and such experiments like the double slit would not mean the same thing that people think it can.
But that still leaves us with limited interactive abilities.

Well the double slit most likely doesn't mean what people think it does. Look at it this way - to observe the experiment and watch light act like a wave, you need an apparatus. If you keep the apparatus itself but remove the observer, the effect probably still happens so it is not the thought or the awareness which causes it. Conscious awareness by itself is probably even irrelevant for the most part.

People think too much and surely think too much of themselves.
 
Well the double slit most likely doesn't mean what people think it does. Look at it this way - to observe the experiment and watch light act like a wave, you need an apparatus. If you keep the apparatus itself but remove the observer, the effect probably still happens so it is not the thought or the awareness which causes it. Conscious awareness by itself is probably even irrelevant for the most part.

People think too much and surely think too much of themselves.

Let me get back to you on this….but I remember them having success with a variation that just involved the intention of the person, but it was quite fascinating…let me find it for you in a day or so.
I think our minds do participate in the reality around us more than we give it credit for…I adhere to the idea that the mind can reach out past our skulls.
 
Let me get back to you on this….but I remember them having success with a variation that just involved the intention of the person, but it was quite fascinating…let me find it for you in a day or so.
I think our minds do participate in the reality around us more than we give it credit for…I adhere to the idea that the mind can reach out past our skulls.

I have no doubt that the circumstances which arise with intention could cause a variation but I do doubt that it results from the intention itself.

There could be a quantum field which arises with a particular thought pattern that might change something. I'm mainly skeptical about it because there have been experiments where a small unconscious device effects the outcome which seems to suggest that there's nothing special about intentionality.

So sure. I might accept the position that a thought might be sufficient to change things. It is however probably not necessary in order to change things, it is merely one of many things which is sufficient to do so, and probably not because of its 'thought-ness' but more likely because of the mechanics surrounding what makes a thought be unique and be able to happen at all.

i.e. it's not the fire, it's the heat.
 
I have no doubt that the circumstances which arise with intention could cause a variation but I do doubt that it results from the intention itself.

There could be a quantum field which arises with a particular thought pattern that might change something. I'm mainly skeptical about it because there have been experiments where a small unconscious device effects the outcome which seems to suggest that there's nothing special about intentionality.

So sure. I might accept the position that a thought might be sufficient to change things. It is however probably not necessary in order to change things, it is merely one of many things which is sufficient to do so, and probably not because of its 'thought-ness' but more likely because of the mechanics surrounding what makes a thought be unique and be able to happen at all.

i.e. it's not the fire, it's the heat.

I understand what you are saying….and I understand what you were saying the other day.
It’s mainly unprovable theoretical stuff.
Some of it you can tell has been highjacked by folks who are really out to just fill up their speaking appearances at various New Age conferences around the world.
But not all of it is like that…I do my best to avoid such things on this thread.
If there is nothing to substantiate it whatsoever then I tend to lean away from posting such articles.
 
I understand what you are saying….and I understand what you were saying the other day.
It’s mainly unprovable theoretical stuff.
Some of it you can tell has been highjacked by folks who are really out to just fill up their speaking appearances at various New Age conferences around the world.
But not all of it is like that…I do my best to avoid such things on this thread.
If there is nothing to substantiate it whatsoever then I tend to lean away from posting such articles.

I don't think it's unprovable, I just think we need to stop individuating things so much and take a more holistic approach. If you can't find the answer within one thing then it might be time to change your boundaries which define what a 'one' and a 'thing' is.

We don't exist in isolation and in all probability we are not self contained nor reducible to parts.
 
I don't think it's unprovable, I just think we need to stop individuating things so much and take a more holistic approach. If you can't find the answer within one thing then it might be time to change your boundaries which define what a 'one' and a 'thing' is.

We don't exist in isolation and in all probability we are not self contained nor reducible to parts.
I agree…it’s funny but medical science is so sure that we will eradicate cancer and other such diseases that they said children born this year will be the first generation to live past 150 years old…I don’t know how I feel about that, other than I am not going to keep working to retire at age 120…please just let me die. hahahaha
I think we will find the answers too…and I think some of these folks are on the right track.
 
Science Beyond the Superstitions of Materialism -
Rupert Sheldrake & Deepak Chopra


[video=youtube;l1CcOQnG0uM]https://www.youtube.com/watch?feature=player_detailpage&v=l1CcOQnG0uM[/video]

Deepak Chopra is having a conversation with Rupert Sheldrake, the bestselling author of Dogs That Know When Their Owners Are Coming Home offers an intriguing new assessment of modern day science that will radically change the way we view what is possible.

In Science Set Free (originally published to acclaim in the UK as The Science Delusion), Dr. Rupert Sheldrake, one of the world's most innovative scientists, shows the ways in which science is being constricted by assumptions that have, over the years, hardened into dogmas.

Such dogmas are not only limiting, but dangerous for the future of humanity.
According to these principles, all of reality is material or physical; the world is a machine, made up of inanimate matter; nature is purposeless; consciousness is nothing but the physical activity of the brain; free will is an illusion; God exists only as an idea in human minds, imprisoned within our skulls.

But should science be a belief-system, or a method of enquiry?
Sheldrake shows that the materialist ideology is moribund; under its sway, increasingly expensive research is reaping diminishing returns while societies around the world are paying the price.

In the skeptical spirit of true science, Sheldrake turns the ten fundamental dogmas of materialism into exciting questions, and shows how all of them open up startling new possibilities for discovery.

Science Set Free will radically change your view of what is real and what is possible.
 
The Extended Mind:
Recent Experimental Evidence


[video=youtube;JnA8GUtXpXY]https://www.youtube.com/watch?feature=player_detailpage&v=JnA8GUtXpXY[/video]

ABSTRACT

We have been brought up to believe that the mind is located inside the head.
But there are good reasons for thinking that this view is too limited.

Recent experimental results show that people can influence others at a distance just by looking at them, even if they look from behind and if all sensory clues are eliminated.

And people's intentions can be detected by animals from miles away.
The commonest kind of non-local interaction mental influence occurs in connection with telephone calls, where most people have had the experience of thinking of someone shortly before they ring.

Controlled, randomized tests on telephone telepathy have given highly significant positive results.
Research techniques have now been automated and experiments on telepathy are now being conducted through the internet and cell phones, enabling widespread participation.
 
The Extended Mind:
Recent Experimental Evidence


[video=youtube;JnA8GUtXpXY]https://www.youtube.com/watch?feature=player_detailpage&v=JnA8GUtXpXY[/video]

ABSTRACT

We have been brought up to believe that the mind is located inside the head.
But there are good reasons for thinking that this view is too limited.

Recent experimental results show that people can influence others at a distance just by looking at them, even if they look from behind and if all sensory clues are eliminated.

And people's intentions can be detected by animals from miles away.
The commonest kind of non-local interaction mental influence occurs in connection with telephone calls, where most people have had the experience of thinking of someone shortly before they ring.

Controlled, randomized tests on telephone telepathy have given highly significant positive results.
Research techniques have now been automated and experiments on telepathy are now being conducted through the internet and cell phones, enabling widespread participation.

The universe is one big cloud of intermingled particles so it's not surprising. Influencing someone with your mind is not that different from sending them a letter or an email.

Imagine how fish in the ocean can sense the vibrations of other fish transferring through the water. They live in a fluid and even the tiniest of changes gets reflected all around them, like if you drop a pebble in a pond it will make ripples. We also live in a fluid - air. Air is a fluid just like water is. We swim in an ocean of air. Aside from an ocean of air though, the entire universe is an ocean of quantum particles.

We're all connected in a field. Literally. This is not an abstraction, the universe is one organic whole and you're a part of it, not metaphorically but physically and actually.

So when you align the electrical energies of your body to align the fibers of your muscles to move your bones to deposit carbon particles in between cellulose fibers and then cause the whole to move through some air molecules to arrive at another sack of meat, this is not very different at all than using the same energies to alter the ubiquitous quantum ocean that surrounds you at all times.

The main reason we probably can't detect it easily or influence others as easily as writing a letter is likely thresholds vs. potentiality. Just like if you have a heavy boulder, a small amount of force does basically nothing to it, but the same amount of force can move a feather.

So the main difference between communication with quantum particles and macro particles is that we're only highly attuned to the latter.
 
The universe is one big cloud of intermingled particles so it's not surprising. Influencing someone with your mind is not that different from sending them a letter or an email.

Imagine how fish in the ocean can sense the vibrations of other fish transferring through the water. They live in a fluid and even the tiniest of changes gets reflected all around them, like if you drop a pebble in a pond it will make ripples. We also live in a fluid - air. Air is a fluid just like water is. We swim in an ocean of air. Aside from an ocean of air though, the entire universe is an ocean of quantum particles.

We're all connected in a field. Literally. This is not an abstraction, the universe is one organic whole and you're a part of it, not metaphorically but physically and actually.

So when you align the electrical energies of your body to align the fibers of your muscles to move your bones to deposit carbon particles in between cellulose fibers and then cause the whole to move through some air molecules to arrive at another sack of meat, this is not very different at all than using the same energies to alter the ubiquitous quantum ocean that surrounds you at all times.

The main reason we probably can't detect it easily or influence others as easily as writing a letter is likely thresholds vs. potentiality. Just like if you have a heavy boulder, a small amount of force does basically nothing to it, but the same amount of force can move a feather.

So the main difference between communication with quantum particles and macro particles is that we're only highly attuned to the latter.
Yes…interestingly enough too…the smaller something gets, the more power it contains.
I get what you mean.
I think that our minds are not contained within our head so to speak…that there are senses that we haven’t yet detected or figured out the mechanism of, that could sense things like being stared at…or precognition…or telekinesis, etc.
I think that the idea of the brain as sort of a junction box for the soul…it can still effect who “we” are personally…perhaps that is the sole goal of the mind - to give consciousness an egotistical view of reality?
 
'Tuning the Brain'


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Treating Cognitive Disorders and Mental States with Transcranial Ultrasound (TUS)

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TuningTheBrain.pdf (181.63 KB)



Mood disorders, Alzheimer’s disease, traumatic brain injury (TBI) and post-traumatic stress disorders (PTSD) are enormous problems for those afflicted, their families, caregivers and society in general.

Current treatments for these disorders are modestly effective at best, and new, more effective and inexpensive approaches are needed. A major hurdle in treatment is the lack of understanding in mainstream approaches as to how the brain works normally, how mood, cognition, memory and consciousness derive from synaptic computation among neurons.

However evidence now suggests mental states may depend, to some extent at least, on vibrations, e.g. sound wave solitons in neuronal membranes,1 and megahertz (‘MHz’, 106 to 107 Hz) resonances in microtubule networks inside neurons.

2,3
In TBI and Alzheimer’s disease, microtubules are disrupted and release ‘tau’, a microtubule-associated protein.
Under normal circumstances, microtubules are directly responsible for neuronal and synaptic growth, repair and plasticity.


Ultrasound (US) consists of mechanical oscillations, e.g. in MHz. ‘Transcranial ultrasound’ (‘TUS’) passes low intensity, sub-thermal US through the skull into the brain, safely and painlessly.

In clinical trials, TUS improves human mood and cognition, and in lab studies megahertz stimulation promotes microtubule assembly.
We propose to determine safety and efficacy of inexpensive and potentially portable TUS technology for improving recovery from TBI, Alzheimer’s disease.


Hypothesis or Objective:
High intensity US can heat, cavitate and ablate kidney stones, brain tumors and other tissue.
Mid-intensity US (‘diathermy’) causes mild heating, useful for musculoskeletal problems.

Low intensity, ‘sub-thermal’ US (<720 mW/cm2 by FDA guidelines) excites peripheral neurons,4 and promotes their regeneration after injury.

5,6
Applied at the scalp, low intensity TUS is FDA-approved for brain imaging, though supplanted by CT, MRI etc.
TUS is still used to image brains of newborn babies through boneless fontanelles, and can be focused anywhere in the adult brain.

WJ Tyler and others7-9 first showed low intensity TUS caused behavioral and electrophysiological changes in animals, and more recently cognitive enhancement in humans.10



In the first TUS study on human mental states,11 our group showed that 15 seconds of 8 MHz TUS to fronto-temporal cortex from temporal scalp at 150 mW/cm2 resulted in 40 minutes of improved mood compared to sham exposure.

Further studies12 have shown optimal mood improvement with 2 MHz TUS for 30 seconds to right fronto-temporal cortex. In some cases, vertex stimulation (targeting cingulate cortex) resulted in uncontrolled laughter, "out of body" experiences and feelings of being "more in the moment".

High frequency (gamma synchrony) EEG was increased near the TUS stimulation site.


Regarding cellular and molecular level mechanisms, Tyler13 suggested TUS promotes vibrations in a mechanical continuum of extracellular, intra-membrane and intra-neuronal structures.

Among these are microtubules, self-assembling polymers of tubulin, the brain’s most prevalent protein.
TUS might act by tuning or enhancing endogenous microtubule megahertz resonances.2,3


Cellular damage in TBI is attributed to biochemical cascades, apoptosis, inflammation, free radicals, glutamate excitotoxicity, blood brain barrier breakdown, axon shearing, and cytoskeletal disruption.

Regardless, neuronal recovery and synaptic formation require microtubule-dependent extension of axonal and dendritic ‘neurites’.



Control Neurons Ultrasound-Treated Neurons


We’ve recently studied low intensity US effects on neurite sprouting in rat embryonic cortical neurons.
Compared to sham exposures, 90 seconds of low intensity 2 MHz US resulted in a significant increase in neurite sprouting after 4 hours.

And brief US exposure prevents microtubule disassembly compared to sham exposure.14 TUS may stimulate neuronal repair (e.g. for TBI) and memory turnover (PTSD).

TUS warrants clinical trials for TBI and PTSD.


Research Strategy:
TUS Device:

Our previous TUS studies have used a clinical GE Logiq US imaging device, and the U+ single transducer TUS headset from Thync, Tyler’s company (formerly NeuroTrek).

Both devices are limited in range of MHz frequencies for testing.
We are collaborating with Sterling Cooley (Berkeley Ultrasound, Berkeley, California) who has developed a TUS device called the NeuroResonator 1 (NR1) which we tested and calibrated in October, 2014.

Proposed modifications will upgrade to the battery-powered NeuroResonator 2 (‘NR2’) for use in EEG caps with 4 US piezo transducer/emitters with 32 possible lead placements, each emitter controlled individually, able to be aimed at particular brain areas, driven synchronously, sequentially, in any combination and/or pulse modulated, e.g. by music.

The NR2 will be calibrated, tested, and reviewed and approved by our Bioengineering and Institutional Review Board.
Stimulation sites will be selected based on injured brain area, right fronto-temporal and other areas.

We plan pilot studies commencing early spring 2015 and will search for optimal techniques.
With the NR2 fitting in an EEG cap, we will also study TUS effects on simultaneous EEG.




References Cited:



  1. [*=center]Heimburg T, Jackson AD. On soliton propagation in biomembranes and nerves Proc. Natl. Acad. Sci. U.S.A. 2005, 102 (2): 9790
    [*=center]Sahu S, Ghosh S, Ghosh B, Aswani K, Hirata K, Fujita D, Bandyopadhyay A. Atomic water channel controlling remarkable properties of a single brain microtubule: correlating single protein to its supramolecular assembly. Biosens Bioelectron. 2013 Sep 15;47:141-8. doi: 10.1016/j.bios.2013.02.050. Epub 2013 Mar 15.
    [*=center]Sahu S, Ghosh S, Hirata K, Fujita D, Bandyopahyay A. Multi-level memory-switching properties of a single brain microtubule, Applied Physics Letters (Impact Factor: 3.79). 03/2013; 102(12). DOI: 10.1063/1.4793995
    [*=center]Harvey EN, The effect of high frequency sound waves on heart muscle and other irritable tissues. American Journal of Physiology, 91. 1929 December 1, pp. 284—290
    [*=center]Raso, VVM, Barbieri CH, Mazzer N, Fazan VPS. Can therapeutic ultrasound influence the regener ation of peripheral nerves? Journal of Neuroscience Methods, v. 142, n.1, p. 185-192, 2005. DOI: 10.1016/j.jneumeth.2004.08.016
    [*=center]Park SC, Oh SH, Seo TB, Namgung U, Kim JM, Lee JH. Ultrasound-stimulated peripheral nerve regeneration within asymmetrically porous PLGA/Pluronic F127 nerve guide conduit. J Biomed Mater Res B Appl Biomater. 2010 Aug;94(2):359-66. doi: 10.1002/jbm.b.31659.
    [*=center]Tyler WJ, Tufail Y, Finsterwald M, Tauchmann ML, Olson EJ, et al. (2008) Remote Excitation of Neuronal Circuits Using Low-Intensity, Low-Frequency Ultrasound. PLoS ONE 3(10): e3511. doi:10.1371/journal.pone.0003511
    [*=center]Pearse A. Keane, Adnan Tufail, Praveen J. Patel. Management of Neovascular Age-Related Macular Degeneration in Clinical Practice: Initiation, Maintenance, and Discontinuation of Therapy, J Ophthalmol. 2011; 2011: 752543. Published online 2011 November 22. doi: 10.1155/2011/752543 PMCID: PMC3228281
    [*=center]Yoo SS, Bystritsky A, Lee JH, Zhang Y, Fischer K, Min BK, McDannold NJ, Pascual-Leone A, Jolesz FA. Focused ultrasound modulates region-specific brain activity. Neuroimage. 2011 Jun 1; 56(3):1267-75. Doi: 10.1016/j.neuroimage.2011.02.058. Epub2011 Feb 24.
    [*=center]Legon W, Sato TF, Opitz A, Mueller J, Barbour A, Williams A, Tyler WJ. Transcranial focused ultrasound modulates the activity of primary somatosensory cortex in humans , Nature Neuroscience 17, 322-329 doi:10.1038/nn.3620
    [*=center]Hameroff S, Trakas M, Duffield C, Annabi E, Gerace MB, Boyle P, Lucas A, Amos Q, Buadu A, Badal JJ. Transcranial ultrasound (TUS) effects on mental states: a pilot study, Brain Stimul. 2013 May;6(3):409-15. doi: 10.1016/j.brs.2012.05.002. Epub 2012 May 29.
    [*=center]Sanguinetti, JL, Smith E, Allen JJB, Hameroff, S (2014). Transcranial Ultrasound (TUS) Affects Mood in Healthy Human Volunteers. Brain Stimulation. [in preparation]
    [*=center]Tyler, WJ (2011). Ultrasound for Neuromodulation? A Continuum Mechanics Hypothesis. The Neuroscientist 17(1), 25-36.
    [*=center]Raman, U, Gupta S, Parker S , Gupta N, Gupta AK, Duffield C, Ghosh S, Hameroff S. Low-intensity ultrasound (US) stabilizes microtubules and promotes neurite outgrowth. 2014. [in preparation]








 
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