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Theoretical warp technology exists in what we know as the Alcubierre drive. In this video, I will explain how this theoretical warp technology works and the problems that we face in developing it.
You will also get to see some mathematically accurate simulations of a spaceship using an Alcubierre drive, travelling at 1,000 light years per second!

In Star Trek, Star Wars, Dune and many other sci-fi stories where space travel exists, the common question that viewers have is: how do these humans achieve faster than light travel? The term “Warp travel” and “Warp speed” were originally coined by the Star Trek franchise. It is also known by other franchises as “Jump” or “folding of space” and the engines that cause this to happen are the “warp drive” or the “hyper drive”
Ultimately, the idea of bending space is embedded within all of these sci-fi stories, and with good reason.

It is impossible to travel faster than light within space. But space itself can bend, fold, move, expand at any speed or rate.

The alcubierre drive uses the principals in general relativity to bend space around a spaceship in such a way, that the space itself begins to move, carrying along anything within it. So although the spaceship is not technically moving within the space it occupies, the space around the spaceship allows motion to occur.

Dr. Simon Stringer. Obtained his Ph.D in mathematical state space control theory and has been a Senior Research Fellow at Oxford University for over 27 years. Simon is the director of the Oxford Centre for Theoretical Neuroscience and Artificial Intelligence, which is based within the Oxford University Department of Experimental Psychology. His department covers vision, spatial processing, motor function, language and consciousness — in particular — how the primate visual system learns to make sense of complex natural scenes. Dr. Stringers laboratory houses a team of theoreticians, who are developing computer models of a range of different aspects of brain function. Simon’s lab is investigating the neural and synaptic dynamics that underpin brain function. An important matter here is the The feature-binding problem which concerns how the visual system represents the hierarchical relationships between features. the visual system must represent hierarchical binding relations across the entire visual field at every spatial scale and level in the hierarchy of visual primitives.

We discuss the emergence of self-organised behaviour, complex information processing, invariant sensory representations and hierarchical feature binding which emerges when you build biologically plausible neural networks with temporal spiking dynamics.

00:00:00 Tim Intro.
00:09:31 Show kickoff.
00:14:37 Hierarchical Feature binding and timing of action potentials.
00:30:16 Hebb to Spike-timing-dependent plasticity (STDP)
00:35:27 Encoding of shape primitives.
00:38:50 Is imagination working in the same place in the brain.
00:41:12 Compare to supervised CNNs.
00:45:59 Speech recognition, motor system, learning mazes.
00:49:28 How practical are these spiking NNs.
00:50:19 Why simulate the human brain.
00:52:46 How much computational power do you gain from differential timings.
00:55:08 Adversarial inputs.
00:59:41 Generative / causal component needed?
01:01:46 Modalities of processing i.e. language.
01:03:42 Understanding.
01:04:37 Human hardware.
01:06:19 Roadmap of NNs?
01:10:36 Intepretability methods for these new models.
01:13:03 Won’t GPT just scale and do this anyway?
01:15:51 What about trace learning and transformation learning.
01:18:50 Categories of invariance.
01:19:47 Biological plausibility.

Pod version: https://anchor.fm/machinelearningstrehttps://en.wikipedia.org/wiki/Simon_S / simon-stringer-a3b239b4 “A new approach to solving the feature-binding problem in primate vision” https://royalsocietypublishing.org/do… James B. Isbister, Akihiro Eguchi, Nasir Ahmad, Juan M. Galeazzi, Mark J. Buckley and Simon Stringer Simon’s department is looking for funding, please do get in touch with him if you can facilitate this. #machinelearning #neuroscience.

Researchers at Karolinska Institutet, in collaboration with teams from Lund University and the Center for Regenerative Therapies Dresden (CRTD), have mapped the genome of the Iberian ribbed newt and revealed how the composition and organization of the DNA are linked to its ability to regenerate entire body parts.

The paper is published in the journal Cell Genomics.

Salamanders are known for their unique ability to regenerate entire body parts and for their resistance to tumor development. The behind these traits have been difficult to study due to a lack of knowledge about the composition of their genome. Researchers at Karolinska Institutet have now succeeded in mapping the genome of the Iberian ribbed newt, providing new insights into these fascinating processes.

When astronomers detected the first long-predicted gravitational waves in 2015, it opened a whole new window into the universe. Before that, astronomy depended on observations of light in all its wavelengths.

We also use light to communicate, mostly . Could we use gravitational waves to communicate?

The idea is intriguing, though beyond our capabilities right now. Still, there’s value in exploring the hypothetical, as the future has a way of arriving sooner than we sometimes think.

MIT physicists, in collaboration with colleagues, have measured the geometry—or shape—of electrons in solids at the quantum level for the first time. GOOD. Ask the MIT physicists: 1. What is the physical reality of quantum physics? 2. How is your quantum level defined? 3. What is the spacetime background of your quantum level?

What one researcher see or touch about an elephant will be different, and what different researchers see or touch will be even more different. It is a scientific phenomenon, not the essence of nature. Scientific research guided by correct theories can enable researchers to think more.

According to the Topological Vortex Theory (TVT), spins create everything, spins shape the world. There are substantial distinctions between Topological Vortex Theory (TVT) and traditional physical theories. Grounded in the inviscid and absolutely incompressible spaces, TVT introduces the concept of topological phase transitions and employs topological principles to elucidate the formation and evolution of matter in the universe, as well as the impact of interactions between topological vortices and anti-vortices on spacetime dynamics and thermodynamics.