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Quantum fields are conscious, says the inventor of the microprocessor

Quantum fields are conscious, says the inventor of the microprocessor

Seeing | Metaphysics | 2025-01-31

Abstract blue energy field background

CPU inventor and physicist Federico Faggin, together with Prof. Giacomo Mauro D’Ariano, proposes that consciousness is not an emergent property of the brain, but a fundamental aspect of reality itself: quantum fields are conscious and have free will. In this theory, our physical body is a quantum-classical ‘machine,’ operated by free will decisions of quantum fields. Faggin calls the theory ‘Quantum Information Panpsychism’ (QIP) and claims that it can give us testable predictions in the near future. If the theory is correct, it not only will be the most accurate theory of consciousness, it will also solve mysteries around the interpretation of quantum mechanics.

“Hard Problem and Free Will: an information-theoretical approach,” Giacomo Mauro D’Ariano and Federico Faggin:
https://arxiv.org/pdf/2012.06580

Federico’s book “Irreducible: Consciousness, Life, Computers, and Human Nature” can be ordered here:
https://www.collectiveinkbooks.com/essentia-books/our-books/irreducible-consciousness-life-computers-human-nature

Our previous videos with Federico Faggin:
https://www.youtube.com/watch?v=ssE4h70qKWk
https://www.youtube.com/watch?v=0nOtLj8UYCw
https://www.youtube.com/watch?v=SVS3-NDUC0M

00:00 Intro 03:20 Federico’s Personal Experience
09:03 The New Theory: Biology vs Computers
21:05 What is a particle?
22:11 The Quantum vs the Classical world
33:48 Can we explain quantum mechanics in a materialist worldview?
36:48 Free will an illusion? Why do we ask this question?
40:32 Joining Science & Spirituality
45:19 Reflections on Donald Hoffmanns Theory
47:40 Will You Prove This?
51:04 Will Al Be Better Than Us?
54:10 Where Could This Theory Lead Us?
57:34 If We Are All One, How Does Seperation Work?
1:03:10 What Happens When We Die?
1:11:26 How Quantum Information Panpsychism Is Fundamentally Different Then Classical Panpsychism
1:13:07 Is there An End-Point To The Universe?
1:13:55 Why Is Space Expanding Exponentially?
1:15:41 Resonance & Purpose

Consciousness without neurons? Evidence and implications of out of body experiences

Consciousness without neurons? Evidence and implications of out of body experiences

Seeing | Neuroscience | 2025-01-17

3D illustration of Interconnected neurons with electrical pulses.

In this wide-ranging interview with Natalia Vorontsova, Professor Marjorie Woollacott draws remarkable parallels between 9th-10th century Kashmiri Shaivism and modern idealism, pointing to the fundamental and irreducible nature of consciousness. Moreover, her study of near-death experiences empirically supports this very hypothesis of the existence of a fundamental consciousness without neurons and beyond our five senses. This is an open conversation about life, death, and who we really are as ‘points of consciousness.’

Reference literature and online resources:
https://marjoriewoollacott.com/
https://www.aapsglobal.com/
https://spiritual-awakenings.net/the-book/

Books:
Motor Control: Translating Research into Clinical Practice, by A. Shumway-Cook, M.H. Woollacott
Infinite Awareness: The Awakening of a Scientific Mind, by M.H. Woollacott
Spiritual Awakenings, ed. M.H. Woollacott, D.Lorimer
Irreducible: Consciousness, Life, Computers, and Human Nature, by F. Faggin
Return to Life: Extraordinary Cases of Children Who Remember Past Lives, by Jim B. Tucker
Twenty Cases Suggestive of Reincarnation, by Ian Stevenson

Papers:
Williams, B, Woollacott, MH. Conceptual cognitions and awakening: Insights from non-dual Saivism and neuroscience. Journal of Transpersonal Psychology, 53: 119-139, 2021.
Woollacott M, Peyton B. Verified account of near-death experience in a physician who survived cardiac arrest. Explore (NY). 2020 Mar 19: S1550-8307(20)30111-7. doi: 10.1016/j.explore.2020.03.005. Online ahead of print.PMID: 32245708.
Schwartz GE, Woollacott M, Schwartz SA, Baruss I, Beauregard M, Dossey L, Kafatos M, Miller L, Mossbridge J, Radin D, Tart C. The Academy for the Advancement of Postmaterialist Sciences: Integrating Consciousness into Mainstream Science. Explore (NY). 2018 Mar – Apr;14 ( 2):111-113. doi: 10.1016/j.explore.2017.12.006.
Woollacott M, Roe CA, Cooper CE, Lorimer D, Elsaesser E. Perceptual phenomena associated with spontaneous experiences of after-death communication: Analysis of visual, tactile, auditory and olfactory sensations. Explore (NY). 2021 Feb 23:S1550-8307(21)00042-2. doi: 10.1016/j.explore.2021.02.006.

Morphic fields: Nature’s hidden memory?

Morphic fields: Nature’s hidden memory?

Seeing | Biology | 2025-01-03

Glowing kirlian aura photography of a human male hand showing different signs and symbols

Can morphic resonance help explain the problem of missing heritability and why memories have not been found in the brain? And are ‘morphic fields’ the same thing as Michael Levin’s bioelectric ‘cognitive glue’? In this interview, Dr. Rupert Sheldrake discusses with Natalia Vorontsova his theory of morphic fields and its implications for our understanding of the mysteries of nature. Dr. Sheldrake is often called a most original thinker, perhaps because throughout his career he has managed to combine open-mindedness with critical scientific thinking.

They ‘told’ cancer to stop, and it did: The science and philosophical implications of bioelectric fields

They ‘told’ cancer to stop, and it did: The science and philosophical implications of bioelectric fields

Seeing | Biology | 2024-12-28

Modern Medical Research Laboratory: Two Scientists Wearing Face Masks Working Together Using Microscope, Analysing Samples, Talking. Advanced Scientific Lab for Medicine, Biotechnology.

‘Talking’ to cells without influencing genes or molecules: it can be done by influencing bioelectric fields. By manipulating the bioelectric fields in organisms like planaria and tadpoles, Prof. Michael Levin has shown how eyes and other organs can grow in unconventional locations, how planaria can be ‘told’ to grow two heads, and perhaps most importantly: how cancer cells can be ‘told’ to stop growing in frogs. These promising experiments might lead to groundbreaking new therapeutics. The importance of the pioneering empirical work of Prof. Michael Levin at Tufts University, on the intersection of bioelectricity, regeneration, and cognition, can hardly be overstated. Philosophically, his work has deep implications for how we think about evolution, cognition and consciousness.

In 2020, Levin’s Lab created so-called Zenobots, programmable, living organisms made from frog cells (Xenopus laevis), designed to perform specific tasks such as movement or carrying objects. They represent a fusion of biology and robotics, created by assembling cells into novel, self-organizing structures guided by bioelectric signals. In trying to make sense of what his work on Zenobots points to, Levin regards evolution as the process whereby nature explores a Platonic realm of possibilities, ‘hardware configurations’ that, in a sense, are pre-existing and waiting to be discovered. And when it comes to intelligence, Levin sees only collective intelligence, in the sense that all intelligent lifeforms we know of are structured as sets of cells. Therefore, we ourselves could also very well be part of a larger intelligence.

The beauty of bacteria: Discover the universe inside you

The beauty of bacteria: Discover the universe inside you

Seeing | Molecular Biology

Hans Busstra, MA | 2024-12-20

Coughing up mucus and phlegm from a chest infection from a virus and bacteria infection, looking at it under the microscope, with cells and microorganisms. Bacteria and skin cells in a human

Inside you there is a largely unexplored universe of 100 trillion bacteria. In this documentary, we embark on a journey into this microcosmos to discover the beauty and complexity of life’s origin at the nanoscale. In 2023 Essentia Foundation’s Hans Busstra created a documentary about bacteria that depicts our common ancestor in a never-before-seen manner. With the world’s leading artists in microscopy, like micro-photographer Wim van Egmond, SEM microscopist Jan Dijksterhuis, and a molecular cell biologist and his team at Digizyme Inc., he embarked on a unique mission: to capture the first moving images of a single bacterium at the molecular scale.

What bacteria taught me about metaphysics

What bacteria taught me about metaphysics

Seeing | Biology

Hans Busstra, MA | 2024-12-14

Protozoa seen under a microscope. high resolution image.

Documentary filmmaker Hans Busstra shares with us, with the aid of amazing and scientifically accurate animations of the molecular world, the background story of his journey from imaging the hardcore science of molecular biology to the fundamental insights of metaphysics.

Before I had joined the Essentia Foundation, my latest documentary film project was a commissioned film about bacteria. A company that specializes in probiotics had asked me to make a scientific documentary that shouldn’t be about branding their product, but just about creating awareness about the pivotal role bacteria play on our planet. I took the assignment and dove into the microcosmos.

As I lived near Delft in The Netherlands at that time, it was only half an hour drive to the exact spot where Antoni van Leeuwenhoek, one of the discoverers of the first microscope, had first seen bacteria through his small lens in 1676. Photography was not around, so he had to convince members of the Royal Society in London with numerous letters describing how exactly he managed to see ‘invisible’ creatures in water.

I met micro-photographer Wim van Egmond—an absolute pioneer in the field of photographing and filming bacteria—who is in possession of an exact replica of Van Leeuwenhoek’s first microscope. I asked him if we could film bacteria through that lens, to re-enact more or less exactly what Van Leeuwenhoek had seen: how ‘dead’ water suddenly comes alive if you magnify it 200 times optically.

I got a tiny sense of what scientific breakthroughs must feel like to the geniuses that make them: to see the previously unseen, know the previously unknown is a deeply ecstatic experience. For instance, to see a timelapse of cyano-bacteria producing oxygen—a process that 2 billion years ago caused ‘The Great Oxidation Event’ transforming the Earth’s atmosphere and making it ready for complex life—gives a sense of being present at the origin of life.

Though we tend to forget it, science and metaphysics go hand in hand. What I find an intriguing fact is that, more or less at the same time that Van Leeuwehoek was building microscopes and discovering bacteria, a famous thinker, residing only 60 kilometers north, in an Amsterdam Canal House, was bowing his head on the mind-body problem. How does mind, consciousness, relate to the material world we perceive?

This philosopher was called René Descartes and he would install ‘dualism’ in the Western mind. Applied to bacteria: what was the reality status of Van Leeuwenhoek’s discovery, those tiny building blocks of life, which in the end were not perceived through a lens, but ‘through’ consciousness—which we, in turn, don’t understand? Now, I’m not a philosopher but a filmmaker. To my knowledge, there are no records of Van Leeuwenhoek and Descartes ever exchanging ideas. But the link I see between them is that Descartes’ division of mind and matter would enable the Western mind to get lost in the microscope.

Microbiology, chemistry and medicine don’t benefit from casting metaphysical doubt on microscopic images; it’s much more functional to regard what is being perceived as fundamental. Cells exist and by understanding them we can cure people. In other words: suspending metaphysics can be very functional.

In the documentary I was making about bacteria, I wanted to portray them in a new way. The problem is that the scale of individual bacteria borders on the wavelength of visible light. Microscopy can beautifully show biofilms and collectives of bacteria, but if you really want to further zoom in, different techniques are necessary. Scanning Electron Microscopy is one of them. By firing electrons at a sample of bacteria an image can be created that easily gets a 100 times more magnified than the strongest light-based microscopes. In the documentary, we did that with a Lactobacillus bacterium, the one present in dairy products. Though much more magnified than other images I had seen, a SEM image of a Lactobacillus is still rather boring: you see what looks like a large grain of grey rice. That’s it.

Luckily, I came across a company called Digizyme, which had previously made one of the world’s first molecular animations of the inside of an Eukaryotic cell. This animation, which went viral, was created with software that used accurate biological structure data to render 3D images of proteins. I asked Digizyme if they could render moving images of the inside of a bacterium for me, not knowing what that question would get me into.

A Lactobacillus bacterium has around three million molecules inside it, largely consisting of proteins, and each one of them meets all other molecules once a second: nine trillion molecular interactions every second. It didn’t take me long to understand what no biology textbook tells you, because it’s not relevant information: that all the nice images you see of proteins are shot with a ‘shutter speed’ of around 1 millionth to 1 billionth of a second. At that speed you cannot see anything happening at the molecular level.

So what I asked Digizyme was not only to render a cross-section of 3 million molecules, but also to slow them down a billion-fold. Molecular Maya, the software that builds these images, in the end doesn’t find it so hard to render them. The hard work is mainly in putting in the right bio-data and in making the design choices. For instance: if you were to stick a nano-camera in an accurate model of a cell, your ‘lens’ would be completely covered by molecules. So we artificially left out 2,9 million proteins and rendered a cross section of a bacterium with 150 thousand proteins. All on the nanosecond timescale.

When I got the first 3D renders coming in from Digizyme, and started editing with them, I had an ecstatic feeling of experiencing truth. We had made one of the world’s first scientifically accurate moving animations of the inside of a single bacterium, a moving image of the mechanics that underlie all life. In my choices of music I usually try to be frugal with using masterpieces, but to underscore these images it felt completely appropriate to use Bach’s Prelude in C Major (BWV 846).

When we first screened the documentary in full 4K in a theatre, the combination of the molecular animation and Bach triggered an emotional response in many in the audience. When asked, people said that it felt as though they had really seen the birth of life. In a sense they did. These animations were as scientifically accurate as we could make them, and seeing a bacterium is indeed seeing the primordial cell that has led to the Eukaryotic cells that all plants, animals and humans are made of. But what fascinates me as a storyteller and filmmaker is how small a step it is for an audience—and for me as well—to think that we actually saw a bacterium, though clearly aware of the fact that we were watching but a 3D render of the bacterium.

Cinema of course relies on this form of ‘jump,’ which filmmakers call ‘the suspension of disbelief.’ Consciously or unconsciously, we agree to get ‘carried away,’ to accept what we know to be a fiction as a fact. Bach always helps.

But when it comes to Hollywood movies, we stop suspending the disbelief the moment the lights are turned on again. We then realize that it was all a fiction, and that we weren’t really witnessing a murder mystery, but paid ten bucks to watch great actors play a murder mystery on a screen.

Now, it feels tricky to compare science to Hollywood; fantasy and fact are not the same.
But metaphysically there is a similarity: science gives us accurate, high resolution images of reality that help us make sense of the world, and those images suspend our disbelief. We get carried away, thinking that science shows us the world as it is. Yet, also in science, the most accurate models and images are but maps of reality, not the territory.

To understand and accept this with regards to a 3D model is of course not so hard: the construction of it is obvious. Much tougher to swallow for the Western mind, is the idea that also Van Leeuwenhoek’s observation, empirically verified worldwide, was still just a model.

We are just so familiar with models based on photons hitting our retina and being processed by our brains that here we start suspending our disbelief around the age of two.

Yet somehow my journey into the microcosmos kicked me back. I found myself in the back of a theatre, entertaining an audience with a nice documentary about bacteria that I was proud of. But I could no longer suspend the disbelief: I hadn’t filmed bacteria and I wasn’t sitting in a theatre. I could no longer deny that I was trapped in images, in stories of language and mind, and instead of taking them literally, it was time to see them as symbols and to find out what they were pointing to. Even if this would be a painful exercise of not-knowing, and perhaps even doomed to fail—for if you’re trapped in a story, can you break out of it with a story?—I knew: it was time to join the Essentia Foundation full time.

Here you can watch a short video about how we managed to create images of the inside of bacterium. The full documentary, Micronauts, will premiere on our YouTube channel next week.

The end of physics as we know it?

The end of physics as we know it?

Seeing | Quantum Physics | 2024-11-15

Physics or mathematical equations on a universe decorative LED background give the impression of interstellar space travel.

We’re moving our main publication day from Sunday to Friday, so you can enjoy our material over the weekend. And to start well, today we have one of the most important videos we’ve produced thus far. We’re confident you will enjoy it!

The video features Prof. Dr. Caslav Brukner, Prof. Dr. Renato Renner and Dr. Eric Cavalcanti, who just won the Paul Ehrenfest Best Paper Award for Quantum Foundations. Their different no-go theorems make us reconsider the fundamental nature of reality. Bell’s theorem in quantum mechanics already confronted us with the fact that locality and ‘physical realism,’ in the sense that particles have predetermined physical properties prior to measurement, cannot both be true. But in certain variations of the Wigner’s Friend thought experiment an additional metaphysical assumption is now also put in question: the absoluteness of facts. In different words: can we safely assume that a measurement outcome for one observer is a measurement for all observers?

When even awareness stops: New meditation research

When even awareness stops: New meditation research

Seeing | Neuroscience | 2024-10-27

Hiker in squatting position on a rock, enjoy the scenery

Can we turn off our awareness (i.e., conscious metacognition) in meditation and then stay in that state for days without water, food, or going to the bathroom? A recent study by Dr. Ruben Laukkonen on the cessation of awareness in advanced meditation practitioners confirms this. In this interview, Natalia Vorontsova talks with Ruben about his research and its implications for our understanding of the nature of reality. This is a deep, yet light-hearted, conversation about mind, consciousness, time, AI, and the future of science, especially since Ruben is also an experienced meditation practitioner.

Editorial clarification: in our interpretation, this study shows only a cessation of meta-consciousness (the explicit, metacognitive awareness of what is experienced), not of phenomenal consciousness (the raw experience itself). The two are distinct, as empirical research has shown (see, e.g.,  this). Often, the lack of meta-consciousness leads the subject to concluding they had no experience, while in fact phenomenal consciousness was present, even during dreamless sleep (see, e.g., this). It is impossible to reliably infer the absence of phenomenal consciousness based on subjective reports. This is the case even for general anaesthesia, (see, e.g., “Anesthesia and Consciousness,” by John Kihlstrom and Randall Cork, published in The Blackwell Companion to Consciousness, 2007), this being the reason why one of the drugs in the anaesthesia cocktail is meant to prevent the subject from forming memories. All that can be ascertained with confidence is that a subject doesn’t remember having been conscious. Ascertaining that one was phenomenally unconscious is equivalent to stating, paradoxically, that one consciously remembers being unconscious. This fundamental ambiguity in subjective reporting is the reason why neuroscientist Nao Tsuchiya has proposed a no-report paradigm for consciousness research (see, e.g., this). Clinical psychologists and many neuroscientists use the word ‘consciousness’ in the sense of meta-consciousness. The cessation of meta-consciousness and/or the absence of memories of consciousness don’t contradict idealism at all. If phenomenal consciousness had ceased during meditation, meditators presumably wouldn’t know how/when to come back, for, unlike the wearing off of drugs in anaesthesia, here the state is induced by the meditator themselves.

Intelligence witnessed the Big Bang

Intelligence witnessed the Big Bang

Seeing | Philosophy | 2024-10-13

mind light effect

Could it be a coincidence that two founding fathers of modern day computing, independently from each other, are both coming with theories of consciousness that are idealist in nature? Or does a deep understanding of what computation is—and what it is not—inevitably lead away from physicalist ideas on consciousness?

Previously Essentia Foundation presented the work of Federico Faggin, and now a legendary contemporary of his, computer engineer Bill Mensch, presents his Theory of Embedded Intelligence (TEI) to us. Mensch was a major contributor to the Motorola 6800 and became famous for his work on the MOS Technology 6502 CPU, a chip that, because of it’s efficiency, completely revolutionized computing in the 80’s. From Arcade halls to the Apple II and Nintendo 8 bit consoles, 6502s could be found everywhere. Even to this day the chip is still used in children’s toys and even in pacemakers and satellites.

Looking back at his career, Mensch realizes that building computer chips is in essence a form of ‘embedding’ intelligence in technology, just as nature has embedded intelligence in biological systems, like humans. In his TEI model intelligence is fundamental. This raises the philosophical question of how consciousness relates to intelligence, and for this reason Bernardo Kastrup joined in on the conversation Mensch and Hans Busstra had.

The value of a theory like Mensch’s is perhaps exactly that it is not philosophically fine-tuned to the terminology commonly used in philosophy of mind. By not taking the human mind and phenomenal consciousness as its departure point, but intelligence instead, Mensch arrives at a position in which the distinction between living beings and abiotic systems is less distinct.

Mensch’s slides can be downloaded here.

Can we know the future? The science of precognition

Can we know the future? The science of precognition

Seeing | Parapsychology | 2024-09-22

High Resolution Mind

Mainstream science still tends to dismiss extrasensory phenomena (ESP). However, these so-called ‘anomalous phenomena’ are key to understanding the nature of reality, claims Dr. Julia Mossbridge: “We are beginning to change the way we think as science enters the ‘maybe we got it all wrong’ phase.” In this interview, Natalia Vorontsova talks to Julia about her research in fields ranging from neuroscience and psychology to physiology and physics, tackling questions of free will, the nature of time, the mind-body problem, and key metaphysical implications.