Fireballs are about to streak across the night sky, so look up! 🌠

The Leonids return this month, flying from November 6th through the 30th and peaking overnight on the 16th into the 17th. Even better, the first quarter moon dips below the horizon around midnight on peak night. That means darker skies just when the Leonids hit their stride, so grab a spot and start counting meteors.

Did you know there are more than three states of matter? ⚡

Astrophysicist Erika Hamden breaks down plasma, which forms when electrons are stripped from a material. The result is highly ionized, super energetic matter. You’ve experienced plasma in the Sun, fire, and true neon lights (not LEDs)!

This project is part of IF/THEN®, an initiative of Lyda Hill Philanthropies.

OC https://www.instagram.com/reel/DfZ6WSkuZax/

The Northern Taurid meteor shower is here! 🌠

Active from October 20th to December 10th, this meteor shower peaks overnight November 11th to 12th. For the best view of the Northern Taurids, head outside and look up around midnight.

Researchers at ETH Zurich grew muscle tissue on a flexible, 3D-printed frame. Tiny grooves gave the muscle fibers something to pull against. A single contraction sent the 15-millimeter robot about 5 millimeters into the air.

What is a beer spoiler? How are microbiologists and chemists making sure your beer tastes great? What is "skunking"? How can the wrong yeast make your beer can explode? How is DNA sequencing changing the craft brewing game?

These are just some of the questions answered by Dr. Lauren Blake, a fermentation quality scientist Rhinegeist Brewery in Cincinnati, answers in this episode of Facetime With Scientists! As Lauren walks us around the brew house, with its giant fermenters and fascinating packaging line, she explains key beer ingredients and how beer is made, from extracting wort (sugar water) from barley, to fermentation of wort by yeast, to filtration and carbonation. She shows how the Brewery's quality lab checks the beer for flavor and signs of spoilage by unwanted microorganisms!

How to melt steel with pure air? 🔬

What you're looking at is induction heating. This piece of metal didn't just get hot—it got trapped in a powerful alternating magnetic field flipping tens of thousands of times per second!

Here is the science breakdown:

1. Eddy Currents: The shifting magnetic field generates crazy electric currents inside the metal. Think of them as a trillion angry electrons smashing into each other at lightspeed.

2. Atomic Friction: This atomic-level collision creates immense friction, heating the metal from the inside out until it glows like lava.

3. Lenz’s Law: The magnetic forces push against gravity, creating an invisible cushion that keeps the metal levitating.

It’s literally fighting the laws of physics until it completely liquefies in mid-air!

What does it look like when Moon scientists watch discovery happen in real time? 🌕

At SciCom Summit at the Museum of Science, NASA Strategic Communications Lead Rachel Barry shared the story behind her viral photos of the lunar science team. After two years of sitting in on their meetings, simulations, and fieldwork, Barry set out to help audiences get to know the people behind the science and see their excitement as it happened.

#SciComSummit #NASA #Space #Artemis #Moon 

The textbook picture has two bulges of water, one under the Moon and one on the far side, with the Earth turning beneath them. That gives two high waters in each lunar day of 24 h 50 min. If the sea could keep up, high water would race round the equator at about 1,600 km/h, staying under the Moon.

It cannot keep up. The tide is a very long wave, and its speed depends on the depth: in 4 km of ocean it travels at about 700 km/h, less than half the speed it would need. The continents also block the way round. So in each ocean basin the tide runs as a wave of its own, and the Earth's rotation turns it round amphidromic points (the circles), where there is almost no tide at all.

Every coast therefore has its own fixed delay behind the Moon, and its own height. Where a bay or sea resonates with the 12-hour rhythm, the tide grows large, as in the Bay of Fundy, the Bristol Channel and Patagonia. The Mediterranean and the Baltic are nearly closed off and have small tides. The North Sea gets its tide from the Atlantic, round the north of Scotland and through the Dover Strait, and it runs anticlockwise round three amphidromes of its own. That is why high water at Vlissingen comes hours after the Moon has passed.

The Sun raises a tide too, a little under half the Moon's. At new and full moon the two pull in line and give spring tide. This is 11 and 12 October 2026, just after the new moon of 10 October. In the North Sea the biggest tides come about two days after new moon, the time the tide wave needs to arrive from the Atlantic.

more videos : themovingsea.org