Відео

Cell intelligence, a term increasingly used in biological research, refers to the ability of cells to process information, respond to stimuli, and adapt to changing environments. This concept highlights the remarkable capabilities of cells to make decisions that are essential for survival, growth, and differentiation. These abilities are seen in both physiological and morphological contexts, where cells dynamically regulate their internal and external environments. Physiological Space and Cellular Intelligence Physiological space refers to the internal environment of the cell-its biochemical processes, energy usage, signal transduction pathways, and interactions with other cellular components. Cells exhibit intelligence in how they interpret and respond to various signals from their surroundings. For example, cells in the immune system must detect pathogens, process information, and coordinate an effective response to defend the body. The brain cells exhibit complex intelligence through the synaptic connections they form, transmitting electrical signals and processing information that forms the basis of cognition and behavior. This type of cellular intelligence involves sophisticated signaling mechanisms, such as protein-protein interactions, ion gradients, and receptor-ligand binding. These interactions allow the cell to make decisions that influence its function and contribute to the organism’s overall health. Cells also possess the ability to "learn" from past experiences-often referred to as "epigenetic memory"-to adapt to recurring challenges, such as infection or environmental stress. Morphological Space and Cellular Intelligence In terms of morphological space, cellular intelligence extends to how cells sense and modify their physical shape in response to external factors. This can be seen in processes like cell migration, tissue formation, and morphogenesis. Cells are capable of altering their shape and behavior in response to mechanical forces, chemical gradients, and changes in the extracellular matrix. For example, during embryogenesis, cells differentiate into specialized types and organize into tissues with distinct architectures. This is a form of cellular intelligence in which individual cells "know" how to participate in complex developmental processes, ensuring proper tissue formation and organ development. Cells possess machinery that allows them to sense mechanical forces and change their morphology accordingly, such as extending pseudopodia for movement or contracting to enable tissue folding. Furthermore, the cellular cytoskeleton, composed of proteins like actin and tubulin, plays a key role in maintaining and altering cell shape. This dynamic structural network allows cells to respond to various environmental cues, ensuring that they can perform their physiological tasks effectively. Morphological plasticity enables cells to adapt to their environments, whether by changing shape to form new connections or rearranging their components to optimize function. Cellular Intelligence and Health The concept of cellular intelligence also extends to health and disease states. In cancer, for instance, cells exhibit a form of "intelligent" behavior by manipulating their internal and external environments to escape normal growth controls, invade surrounding tissues, and metastasize to distant organs. Cancer cells are capable of acquiring new mutations that allow them to bypass growth checkpoints, resist apoptosis (programmed cell death), and adapt to hostile environments, such as low oxygen or nutrient availability. Conversely, in healthy states, cellular intelligence helps maintain homeostasis. For example, in wound healing, cells at the wound site orchestrate an intelligent response to repair tissue damage. This involves detecting the wound, releasing signaling molecules that attract other cells, and coordinating cellular activities such as proliferation and migration to close the wound and restore tissue integrity. Conclusion Cell intelligence in both physiological and morphological spaces illustrates the complex, adaptive nature of cellular behavior. Cells not only react to their environment but also actively shape their environment through decision-making processes. Their ability to sense, adapt, and respond to both biochemical and mechanical stimuli allows them to function as intelligent units within the organism. Understanding this cellular intelligence could lead to significant advances in regenerative medicine, cancer therapies, and tissue engineering, where harnessing the principles of cellular adaptability and decision-making could enhance treatment outcomes and improve overall health.

A few questions for teachers and students- Symbolic representation of sound is a fun topic, but which systems do you, ultimately, use to compose, and/or to understand music? The variety of Tonnetz (and other symbolic representations for Western modern music notation) is interesting, but which compositional aid (or other mode of understanding the music [RN, Macro, etc.]) is most comprehensive and streamlined system to date? When do we NEED a Tonnetz?

What a nice man

He gets it. He. Gets. It. I've had the vaguest sense of this being how stuff worked back in undergrad. Watching this is beyond vindicating.

I tend to call the recipe of anatomy "The Template" which governs the organisation of all living things.

Happens with me. I am clearly a spatial thinker(doer). Even I can remember things better, if I put them in space. I use Memory Palace for storing important memories and ideas,etc. Crazy how puting an info in Memory Palace makes it easier for me to remember and UNDERSTAND. If I have to understand something, all I have to do is to put it in a space(in a Memory Palace), and boom. It become so easy for me understand! Crazy! My life and self confident just changed when I found I have to use SPACE for thinking, memorizing and understanding things.

Happens with me. I am clearly a spatial thinker(doer). Even I can remember things better, if I put them in space. I use Memory Palace for storing important memories and ideas,etc. Crazy how puting an info in Memory Palace makes it easier for me to remember and UNDERSTAND. If I have to understand something, all I have to do is to put it in a space(in a Memory Palace), and boom. It become so easy for me understand! Crazy! My life and self confident just changed when I found I have to use SPACE for thinking, memorizing and understanding things.

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Among all the word salad and other nonsense, let's pick out one that could be amusing to ponder. So allegedly, a 'typical' real number generated by an infinite sequence of random choices contains 'infinite' Shannon information. What is true is that when you have the first N bits, and you write them down as they appear, you have recorded the information about the first N bits, nothing more and nothing less. To collect 'infinite information', however, you would need to record the entire sequence of infinitely many bits, which you are obviously unable to do. Hence to collect 'infinite information' you need to perform an impossible task. And nothing actually changes if you consider an 'atypical' real number instead, like the number π, which is the ratio between circumference and diameter of a circle. Its bits contain only finite information, since there exists a particular algorithm to compute the n'th bit of the binary expansion of π, thus the entire bit sequence is computed deterministically and needs only the finite information contained in the coding of this algorithm. So now, what if some certain substring of the sequence of bits translates, using Utf-8 decoding say, to the sentence "your car parked outside has caught fire and is ablaze!" - do you then act on this 'information' and rush outside with a fire extinguisher in hand? Think about that.

Exactly! Real numbers don't exist! Infinity don't exist! #CaptureTheCosmos

If the EM field can generate morphospaces that have not existed, through mathematical transformation matrices, are all mutations random? Is DNA modified purposefully?

If the information comes from beyond DNA, where does it come from? How do the cells know what voltages they should have? And how is it transmitted from one generation to another?

Operationally ok. Philosophically this is nonsense. As soon as you talk about an "adaptive system" you have baked-in emergence by postulate. This is common in all talk about emergence, it is all circular upon close inspection. If there is effective Top Down causation there is only one way it can occur compatible with all known physics (which are CPT symmetric), which is at the spacetime boundaries. Initial/boundary conditions are the _only way_ CPT symmetry gets broken. BTW, that's not an argument against top-down causation. It is an argument in favour, but points to the proper origins of "mental" causes.

This a dozen years old science of mankind scale importance. How is that it is still unknown to the public and not yet teached from primary school up to high school ?!?

Is that cancer is a bioelectrical disorder at cellular level ? This would be the worst nightmare of BigPharma and old school cancer cure institutions...

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The purpose of the interlocuter is to represent the audience, to help by asking possible questions which might be asked by a naive audience, in case the speakers use technical jargon.

increíble y amena reflexión, me encantaría ver más contenido de Luis Cortés Briñol; saludos desde Ciudad de México ♡

So what part of the cell has intelligence? Where is the brain in a cell?

Don’t forget Rupert Sheldrake, a courageous pioneer, going beyond the random selection model.

Sounds is terrible 😢

Have you written books or research papers on these ideas? I’d like to read them

EYE AM VANESSA M FERGUSON AND EYE LOVE MY WIFE LOL (oh EYEM so TWIZTED! 😂🎉❤😂🎉😂❤ 🎉

Transferring to smart tv hold on hack me there.

Good morning class ❤😂🎉😂 😊😊

Is it fair to presume that computers proving new theorems on their own is as probable as AGI?

How far back does cell memory go? It begs the question whether time/evolution is relevant anymore while a language of bio electric signals may be pre-biotic? Thank you , yours sincerely Dr Fluffhead.

Hall Matthew Thomas Lisa Jones Richard

Perez Linda Hall Matthew Lewis Ruth

Young Margaret Robinson Steven Lewis Sharon

Moore Frank Thompson Steven Rodriguez Jennifer

Martinez Lisa Jackson Robert Wilson Karen

We are the transmuted bioplasma of the living cell that is the Universe that spun itself into the dynamic cocoon of its ideal natural form yet to complete its initial phase of development suffering the brunt of the toxicities of entropy calibrating itself accordingly sustaining its life as much as possible functioning at maximum efficiency against agents that resist it futilely, it has been an ever-present body that consciously instantly generated by its very nature traversing its established inherent memorial path being that of least resistance of its very aspects, its purpose to spawn building a nest to attract a mating partner pacing itself biorhythmically towards its destined goal having exotic qualities suggesting that it will become a perpetually generating paradise after all activities that are practiced that try to stunt its growth are eliminated being degenerate acts of infertility so ultimately will be successful being most fecund not firing a dud!

When i was a kid i taught myself extreme dexterity by training my hand eye coordination. I remember becoming incredibly frustrated that I couldnt draw a foot front-on without it looking like a stump...nor could the ancient Egyptians so feet were drawn side on. I had to overcome a basic mental image barrier. I did this by forgetting I was looking at a foot and just discerning the fine 3D shadings which my sight would then measure relative to each other, then copy them with pencil onto 2D. Gradually the drawing took on a front view 3D foot. With practice a basic map of it was then logged in my memory for easy rendering. Do cells have some kind of eyeless vision judging shapes shades and distances in order to repair or build a new function?

The concept of the "Continuum of Beings" highlights the idea that all intelligence, from the simplest microorganisms to complex human societies, can be understood as a form of collective intelligence. This perspective shifts our understanding of intelligence away from an individual-centric view, recognizing that intelligence emerges not just from solitary entities but through interconnected networks of interactions and cooperation. In nature, we see this collective intelligence in action: ant colonies, for instance, operate as a single organism, solving problems and adapting to challenges through the collective efforts of their members. Similarly, neural networks in the brain exemplify how individual neurons work together to create consciousness, memory, and learning. In human societies, collaboration and shared knowledge drive innovation, allowing us to tackle complex issues that no individual could solve alone. Expanding this idea across the continuum of beings invites us to appreciate the interconnectedness of all life. From the microbial communities that influence our health to the ecosystems that sustain our planet, each level of existence contributes to a greater tapestry of intelligence and adaptability. This holistic view encourages us to rethink our approach to knowledge, decision-making, and sustainability, recognizing that fostering collective intelligence both within and between species-could lead to more resilient and harmonious interactions with our environment. Ultimately, acknowledging that all intelligence is collective fosters a deeper appreciation for the diverse forms of life on Earth and the intricate relationships that bind us together in this grand continuum.

Bioelectricity and quantum biology represent two converging frontiers that challenge our understanding of life's most fundamental processes. Bioelectricity, the flow of electrical signals across cells and tissues, has long been recognized as a key player in development, regeneration, and cellular communication. However, when viewed through the lens of quantum biology, a deeper, more intricate picture emerges. At the quantum level, particles like electrons behave in ways that defy classical expectations, existing in superposition, entangling across distances, and tunneling through barriers. These quantum effects may play a significant role in how bioelectric signals are generated, transmitted, and interpreted by living cells. For instance, ion channels in cell membranes, which regulate the flow of charged particles, might be influenced by quantum tunneling, allowing ions to pass through in ways that classical physics cannot fully explain. This suggests that bioelectricity is not just a simple transfer of charge but a dynamic, quantum-influenced process that could enable cells to communicate and adapt with incredible sensitivity and precision. The intersection of bioelectricity and quantum biology opens up fascinating possibilities, suggesting that life itself operates at the edge of quantum phenomena. This could help explain how organisms achieve remarkable feats of coordination, regeneration, and even consciousness. By exploring this quantum-bioelectric connection, we may unlock new pathways for regenerative medicine, understand the true nature of cellular intelligence, and reveal the profound mysteries of life’s energy and organization.

Biological information extends far beyond the genetic code, and bioelectricity stands out as a powerful, yet often overlooked, medium through which life organizes and communicates. While genes provide the instructions for building proteins, it’s the bioelectric signals (tiny electrical currents generated by cells) that act as the conductor, orchestrating the symphony of cellular behavior, tissue formation, and regeneration. Bioelectricity operates like an invisible blueprint, guiding cells on where to grow, how to differentiate, and when to heal. It plays a crucial role in everything from embryonic development to wound healing, demonstrating that cells are not just passive responders to genetic instructions but active participants in an electrically charged dialogue. Recent breakthroughs have shown that by modulating bioelectric signals, scientists can influence how tissues develop, repair, and even transform into entirely new structures without altering the DNA itself. This opens up a revolutionary perspective: our biological potential isn’t solely locked within our genes but is also encoded in the electrical patterns that flow through us. Understanding and harnessing this bioelectric language could pave the way for advances in regenerative medicine, synthetic biology, and even the treatment of diseases, as we learn to tap into the electrical currents that power the very essence of life.

hahahahahahahahah, this guy is hilarious @32:41 . Man, it looks like he could use some peace of mind

My god i finally know where frank Herbert in his dune series got his name for Axlotl tanks 😂 The Greeks knew so much making machines 2,000 years ago. They made the antikythera mechanism a mechanical computer 2,000 years before the first one we made

At the time 41:35 Dmitri start to say about closed paths in Cohn's tonnetz(torus). After one example we can hear its tonal uncertainty. Next, professor say its path is homotopy trivial. But in the Cohn's tonnetz its, probably, a small circle. Small circles are not contractible loops, in other words - isn't trivial. Maybe, Dmitri propose a topological space model of musical structure where each "tonal inert" loop sequence of chords(or notes?) is homotopy trivial. And this is a definition or one of them. So, we can use it to create the space from pure data. All we needed is good characteristic for these loops and appropriate amount of data(may be a lot). In my opinion they can feel contractible parts of space, we search for. We can use theorys of orders and simplicial complexes, like in this paper about topology of poker: arxiv.org/abs/2305.02023

It's only a matter of time when big pharma swoops in takes all that research slaps a patent on it makes it unaffordable for the average person don't get your hopes up people

It's just a matter of time when big pharma swoops in takes all that research puts a patent on it jacks up the price out of reach for the average person

Truly amazing.

There is no such thing as objective truth

51:00 Numbers are quantical

Well, a rudimentary computational reactive system integrated In cellular tissues definitely sounds like a practical adaptation. But it seems the planarian example is an extreme example, where a single human neuron or immune cell are indeed conscious and reactive, even communicating to one another like a regulatory organization would situations as codes for policies-- this sort of adaptation is much more fascinating.

As a person with discalcula the first hypothesis definitely does not match my experience. I can't depend on basic math in my head, but I am extremely good with logic, advanced maths and make my living as a programmer. Weirdly, I am also very good at non symbolic math, like in baking.

41:55 - Now THAT is a question! ^.^

can't wait to watch !

48:35 - Groovy! ^.^