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Organoid Intelligence | Dr. Thomas Hartung | XPANSE 2024

Delve into the fascinating world of organoid intelligence at XPANSE 2024 in Abu Dhabi. Presented by Dr. Thomas Hartung, Professor of Medical Microbiology at Johns Hopkins University, this session explores the cutting-edge research and potential of lab-grown organoids to revolutionize computing, medicine, and neuroscience.

XPANSE, the world’s first visioning of the future with exponential technologies, is an Abu Dhabi-based global initiative and an invitation-only forum for exponential technology. XPANSE 2024, hosted by ADQ, convened 3,000 world’s brightest minds, technology trailblazers, Nobel Laureates, industry leaders, CEOs, ministers and scientists to set the horizons of exponential technologies spanning quantum, genomics, exotic computing, embodied intelligence, next-gen 2D matter, AGI, Brain-Machine Interfaces, Future G and beyond.

Be the first one to know about XPANSE 2025 ►► https://mailchi.mp/xpanse.world/sign–… connected with our community & get insider insights ►► / xpanse-world Follow XPANSE on Instagram ►► / xpanseworld Follow XPANSE on X ►► https://twitter.com/XPANSEWORLD
Stay connected with our community & get insider insights ►► / xpanse-world.
Follow XPANSE on Instagram ►► / xpanseworld.
Follow XPANSE on X ►►https://twitter.com/XPANSEWORLD

Redefining Matter | Why Matter Is Not What We Think It Is?

What is matter, really? Is matter an independent substance, or is reality fundamentally relational? In this episode, we explore some of the deepest questions in philosophy, metaphysics, and modern science, including Quantum Physics, Relativity, Quantum Field Theory, Dark Matter, Consciousness, Space, Time, Cosmology, and the Nature of Reality itself.

From atoms and particles to galaxies and the Universe, modern science increasingly points toward a world of processes, relationships, and dynamic structures rather than isolated objects. Could Matter and Consciousness be different expressions of the same underlying Reality? What can Systems Thinking, Complexity Theory, Nonduality, Taoism, Buddhism, and Vedanta contribute to our understanding of existence?

Let us examine the Nature of Matter, the mystery of Dark Matter, the meaning of Space-Time, and the interconnected fabric of the cosmos. This exploration may challenge the way you think about Reality, Existence, Consciousness, and your place within the Universe.

#QuantumPhysics #Consciousness #NatureOfReality #WhatIsMatter #Relativity #QuantumFieldTheory #DarkMatter #Universe #Cosmology #Philosophy #Metaphysics #ScienceAndPhilosophy #NonDuality #Taoism #Buddhism #Vedanta #SystemsThinking #ComplexityTheory #Interconnectedness #meaningoflife.

0:00 Intro.
0:55 A Necessary Correction of Attitude.
4:39 What is Matter?
8:09 Rethinking Properties.
10:34 An Important Question.
14:11 Redefining Matter.
17:43 Outro.

If you love my content, you can support me here: https://buymeacoffee.com/philosophydi… For inquiries: philosophydivinity@gmail.com ============================= 🎬Suggested videos for you: ▶️ • 3 Quantum Entanglement ▶️ • 2 Wave-Particle Duality ▶️ • 1 Observer Effect ▶️ • Food and Your Mind | How What You Eat Shap… ▶️ • Indian Vegetarian Cooking | How to Make De… ▶️ • Merry Christmas 🎄 ▶️ • 2 What does addiction feel like? ▶️ • Quickly cooking Chinese food😋 ▶️ • 1 Do we really need the “shortcut” to spi… ▶️ • 4 Re-understanding Manifestation ▶️ • 3 Re-understanding Matter ▶️ • 2 Re-understanding Energy ▶️ • 7 Where Does Existence Come From? Final An… ▶️ • 6 There was no “Creation” =================================.

US Army’s breakthrough sensor to pinpoint radio signals on battlefield

US Army scientists have demonstrated a new quantum sensor that can measure the full 3D direction of radio-frequency electromagnetic fields, a milestone that could reshape how signals are detected on the battlefield.

The breakthrough was achieved by scientists at the U.S. Army Combat Capabilities Development Command, known as DEVCOM, Army Research Laboratory.

According to the researchers, the sensor could improve situational awareness, strengthen secure communications, and help soldiers make faster, better-informed decisions in complex battlefield environments.

Nanoparticle Motion Measured Beyond Quantum Limit

Researchers boosted the sensitivity for measurements of the motion of a levitated nanoparticle, with potential uses in dark matter searches.

Researchers have a bold plan to detect unknown fundamental particles: Levitate a nanoscale object in a vacuum and watch for a microscopic recoil caused by a collision with an exotic particle. Precision measurements of macroscopic objects have been a challenge, but now a research team has demonstrated a significant sensitivity improvement with a levitated object some 6 orders of magnitude larger than in previous experiments [1]. The team hopes the method will find use in experimental searches in the next few years.

Searching for particles not accounted for by the standard model of particle physics requires experiments with unprecedented sensitivity. One method is to use laser light to levitate a small object in a vacuum, isolating it from surrounding noise. Researchers can monitor its motion and potentially detect minuscule recoils caused by rare collisions with exotic particles, such as those of dark matter.

Scientist creates ‘mini‑universe’ to measure time without a clock

A University of Birmingham scientist has built a “mini-universe” that takes a step toward answering one of science’s biggest questions: “What is time?” Publishing his findings in Physical Review Research, Professor Giovanni Barontini shows how it is possible to measure the flow of time without using a clock at all. The new findings provide a scientific model in which a version of time emerges from the experiment itself.

Some theories of physics, such as the Wheeler–DeWitt equation, suggest that, at its deepest level, the universe has no built-in time but exists as a single, unchanging quantum state in which particles exhibit both wave-like and particle-like properties. It treats the universe as a whole with no external clock, and any sense of time must emerge from internal relationships between parts.

Nuclear clocks tick for the first time

Two independent research teams have achieved a longstanding goal in physics: building a working nuclear clock. The devices, developed by Beichen Huang and colleagues at Tsinghua University and by Luca Toscani De Col and colleagues at the Vienna Center for Quantum Science and Technology in Austria, exploit the nucleus of a thorium-229 atom to keep time with extraordinary precision—possibly surpassing even the best atomic clocks available today.

The Chinese and European studies have both been published in preprint on arXiv.

Engineering quantum Hall stripes in 2D materials inside electromagnetic cavities

Quantum materials, materials with properties that are governed by the laws of quantum mechanics, have proved to be highly promising for the development of ultra-efficient electronic devices, quantum processors, highly precise sensors and various other technologies. Reliably controlling these materials’ quantum phases would be highly advantageous, as it would enable engineers to tailor and optimize their properties for specific applications.

Researchers at ETH Zurich, in the Quantum Optoelectronics Group led by Prof. Dr. Jérôme Faist and Prof. Dr. Giacomo Scalari, have uncovered a new strategy to stabilize self-organized electronic patterns known as quantum Hall stripes in two-dimensional (2D) electron systems.

Their approach, outlined in a paper published in Nature Physics, entails creating high-quality 2D electron systems, embedding them into carefully designed cavities (i.e., structures that confine electromagnetic fields) and cooling them to ultralow temperatures.

Quantum friction causes light to slow down nanoworld movements

A research team in Bochum, Germany has unexpectedly found that light can slow down movements in the nanoworld. This is due to quantum friction, a phenomenon that has been poorly understood until now. The findings are published in the journal Nature.

Light is expected to heat particles up or set them in motion. However, the interdisciplinary team at Ruhr University Bochum, Germany, has now proven the opposite. In aqueous solution, fluorescent carbon nanotubes move much slower once they are irradiated with light. During this process, the diffusion constant decreases with light intensity, an effect linked to direct coupling between electrons in the solid and the molecules of the liquid.

“This discovery of light-induced quantum friction fundamentally changes our understanding of interfacial processes,” says researcher Sebastian Kruss, who led the work with Marialore Sulpizi and Martina Havenith.

One-way quantum synchronization could make quantum computers more reliable

Scientists at RIKEN have proposed a new way to make quantum systems synchronize in only one direction—like a one-way street for sound particles known as phonons. The breakthrough combines two quantum effects to create a form of one-way quantum synchronization that remains surprisingly stable even when exposed to manufacturing flaws and environmental noise, two major obstacles that have long hindered real-world quantum technologies.

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