The Physics of Moving Charges and Magnetic Fields 🧲✨

🧲🖼️NEW ARTWORK RELEASE 🖼️🧲 My latest physical art is... going to be auctioned at Christie's NYC, December 3 - 18, 2024. I created a 🧲magnetic 3D portrait 🖼️that can be customized and live on by the collector as they move the magnetic pieces around and change the 3D height of all the pieces.show more

This physics experiment visualizing the lines of a magnetic field

a magnetic field simulation between the fingers 🧲🤏

One of my studies on electromagnetic sculpting from a... couple of years ago. Exploring magnetic fields and the emergent interaction between matter and electricity.show more

More evidence of the unbreakable magnetic attraction that White... women have towards Black men!👸🏼🧲🤴🏿💪🏿show more

Quantum states split under magnetic fields (Zeeman effect)—the same... physics fusion relies on to control charged particles. Here, color shows wave phase, brightness its strength. Microscopic rules, macroscopic power.show more

🚨 CHINA JUST ACTIVATED A MAGNET 700,000× STRONGER THAN... EARTH’S MAGNETIC FIELD Chinese scientists have powered up a superconducting research magnet reaching 35.6 tesla one of the strongest sustained magnetic fields ever created. For comparison: • Earth’s magnetic field ≈ 0.00005 tesla • Hospital MRI ≈ 1.5–3 tesla • This new system = 35.6 tesla And it can reportedly maintain that field for over 200 hours continuously. Why this matters: Extreme magnetic fields allow scientists to explore matter under conditions almost impossible to reproduce naturally. This could help advance: • superconductors • quantum materials • fusion research • next-generation electronics • exotic states of matter • ultra-precise molecular imaging At these field strengths, materials can begin behaving in completely unexpected ways. Electrons reorganize. Quantum effects dominate. Normal physics starts looking abnormal. The race for stronger magnetic fields is becoming a race to unlock entirely new physics. Humanity is no longer just observing extreme conditions in the universe. We’re beginning to manufacture them on Earth. Follow for more future science and technology breakthroughs.show more

Short demo of FluxPose's Metal Distortion Correction feature🧲 I... live in an apartment, so my floors are packed with rebar and would normally wreck magnetic tracking. This just... works✨show more

WELCOME TO THE MAGNETIC 🧲 💖#WilliamEstFanconD1 Buy Live Streaming... Tickets 👉🏻 #GMMTV @williamjkp1 est_rvpshow more

🚨 BREAKING Magnetic fields usually destroy superconductivity. But in... a new Nature Physics paper, researchers found a 2D crystal where a magnetic field actually helps superconductivity appear. That’s wild. By doping ultrathin LaSb₂ with magnetic Ce impurities, the field suppresses disruptive spin fluctuations allowing a superconducting dome to emerge. So the field isn’t only breaking order. It’s removing the noise that prevents order. That feels like a deeper principle: Sometimes stability appears when the right disturbance cancels the wrong disturbance. Could future superconductors be tuned by controlling magnetic disorder itself? Follow me I track where physics starts breaking its own rules.show more

🚨 SCIENTISTS MAY HAVE FINALLY SOLVED ONE OF THE... BIGGEST UNSOLVED PROBLEMS IN BLACK HOLE PHYSICS. For years, astrophysicists have struggled with the “final parsec problem”: even after two supermassive black holes get relatively close, they struggle to shed enough angular momentum to merge within the age of the universe. New 3D simulations reveal that magnetic fields in the gas disk surrounding a binary system can solve this. The fields trigger powerful outflows and jets that efficiently carry away angular momentum, allowing the two objects to spiral much closer together. The same mechanism also explains how some binary stars end up in extremely tight orbits. In the simulations, binaries without magnetic fields actually moved farther apart. With magnetic fields present, they rapidly lost angular momentum and migrated inward. Why this matters: • It provides a physically motivated solution to one of the biggest open problems in black hole astrophysics • Magnetic fields appear to be far more effective at removing angular momentum than previously modeled effects • The mechanism works for both star formation and black hole mergers • It shows that the environment around binaries (not just the objects themselves) plays a decisive role in their evolution The deeper implication: We often think of black holes and stars as isolated objects governed purely by gravity. But these simulations show that the magnetic fields threading the gas around them can fundamentally change their fate. By removing angular momentum through jets and outflows, magnetic fields act like a cosmic brake, allowing binaries to reach the tight configurations we observe. This doesn’t just help explain star formation it may finally tell us how the universe’s most massive black holes manage to merge and create the gravitational wave signals we’re now detecting. Sometimes the key to cosmic mergers isn’t gravity alone. It’s magnetism. How important do you think magnetic fields are in shaping the final stages of black hole mergers and binary star evolution? Follow for more frontier astrophysics and the hidden forces that govern the universe.show more

WWE NFL 🤡... Look at the fakest kick you'll... see all week... Nothing but magnetometers 🧲 and a magnetic field to steal the hard working man's money #NFLRiggedshow more

The ethereal beauty of the living sculptures, moving gracefully... to the silent music of artificial magnetic forces. Digital realms in their boundless variety of magnificence.show more

At the heart of our Milky Way lies Sagittarius... A*, the supermassive black hole with a mass of about 4.3 million suns. Recent observations from the Event Horizon Telescope have revealed something remarkable: the magnetic fields surrounding it are not the turbulent, disordered chaos scientists once expected, but instead form a strong, coherent spiral structure.These organized, twisted magnetic fields thread through the swirling hot plasma near the event horizon, acting like invisible guides that regulate how matter flows inward. They help control the acceleration and heating of gas, determine the intensity of emitted radiation, and stabilize the chaotic environment just outside the point of no return.This discovery, achieved by imaging polarized light from the accretion disk, shows striking similarities to the magnetic geometry seen around the much larger black hole in M87—despite vast differences in size and activity level. It suggests that powerful, ordered magnetic fields are a universal feature of supermassive black holes, playing a central role in how they feed, influence their surroundings, and potentially launch jets.The findings deepen our understanding of extreme plasma physics under intense gravity, test general relativity in its strongest regime, and highlight the profound interplay between magnetic forces and spacetime itself. Even in our relatively quiet galactic center, these fields reveal a hidden capacity for dynamic, powerful behavior—reminding us that black holes are not just gravitational sinks, but complex engines shaped by electromagnetism on cosmic scales.Future observations promise even sharper views and time-lapse sequences, offering deeper insights into the fundamental processes driving the hearts of galaxies.show more

Explain using physics: The truck and the person are... already moving forward at 80 km/h 👀show more

Keyboard reveal in 3…2…🤯 Split design. Magnetic precision. Built... for control. 🧲 The #ROG Falcata has landed at #COMPUTEX2025.show more

The Crazy physics of launching at 80 km/h from... a truck already moving 80km/hshow more

In the National High Magnetic Field Laboratory in the... U.S. sits "Little Big Coil", the most powerful continuous magnetic field ever created by humans - reaching 48.7 tesla, over 1 million times stronger than Earth's magnetic field. This record-breaking magnet uses a hybrid design, combining superconducting coils with a resistive magnet to push matter into regimes never seen before. Backed by $195M from the NSF and ongoing state funding, NHMFL scientists use it to study quantum materials, extreme superconductivity, fusion-relevant physics, and exotic states of matter. Under fields this intense, atoms distort, electrons behave strangely, and materials reveal secrets that could redefine quantum technology, energy systems, and medical science.show more

By taking advantage of physics-driven gameplay, you can get... the ball rolling on pushing, toppling and moving objects, opening up all kinds of predictable unpredictability! Show us how you're using physics on your islands👇show more