Saturn
Jupiter is a gas giant, consisting mostly of hydrogen and helium. Its outer layers are composed of gas, while its interior likely consists of a small rocky core surrounded by a thick layer of metallic hydrogen. The intense pressure and temperature near the core create Jupiter's powerful magnetic field.
The interiors of Jovian planets (Jupiter, Saturn, Uranus, Neptune) differ mainly in composition and structure. Jupiter and Saturn are predominantly composed of hydrogen and helium gases, with Jupiter having a metallic hydrogen layer. Uranus and Neptune have more icy compositions, including water, ammonia, and methane. The core sizes also vary, with Jupiter likely having a larger rocky core compared to Saturn, Uranus, and Neptune.
Scientists believe that Jupiter formed from the same gas and dust that made up the early solar system. Most of its mass is composed of hydrogen and helium, much like the composition of the sun. The planet likely accumulated this gas and dust over time as it orbited the young sun.
Good question. Jupiter is primarily made of elements that we consider gasses, like Hydrogen and Helium. However, the pressures deep within Jupiter's core are likely to have compressed it into something we cannot duplicate on Earth; liquid metallic hydrogen. We're not certain of this, of course, because we can only see the outer layers.
The magnetic compass reached Europe in the late 12th century, likely introduced by Italian merchants trading with the Arabs. Its use quickly spread among European sailors for navigation at sea.
It is believed that both Jupiter and Saturn contain metallic hydrogen in their interiors due to the extreme pressure and temperature conditions. Uranus and Neptune are not thought to have metallic hydrogen in their interiors.
Jupiter is a gas giant, consisting mostly of hydrogen and helium. Its outer layers are composed of gas, while its interior likely consists of a small rocky core surrounded by a thick layer of metallic hydrogen. The intense pressure and temperature near the core create Jupiter's powerful magnetic field.
No. Liquid metallic hydrogen only forms when hydrogen is subjected to extreme pressure. Hydrogen is present in trace amounts in Earth's atmosphere in gas form, under low pressure. The core is composed primarily of iron. Liquid metallic hydrogen likely exists in the gas giants Jupiter and Saturn.
Increasing the number of turns in the coil of wire will most likely increase the strength of the magnetic field produced by an electromagnet. More turns of wire will result in a stronger magnetic field due to the increased current flowing through the coil.
Jupiter, being a gas giant, lacks any landmasses. It is a gaseous ball of mostly hydrogen and helium, with trace amounts of hydrocarbons and other heavier elements and compounds. Most likely the center of Jupiter is a core of metallic hydrogen: hydrogen compressed so much that it has taken on similar properties of metal. This is similar to the liquid iron and nickel core as the Earth; both planets have magnetic fields, but Jupiter's is many times more powerful.
A metallic taste in your mouth will very likely come and go. The metallic taste most likely comes from blood in the mouth and will heal quickly.
Hydrogen metal is malleable and ductile, meaning it can be hammered or stretched into different shapes without breaking. However, hydrogen gas is not malleable as it is a non-metallic element that exists in a gaseous state.
Depends on the hydrogen gradient. If hydrogen is still flowing down it's concentration gradient through the ATP synthase then some ATP will be made, at least until equilibrium is reached.
Canyons are formed by flowing water.
Elements in the d-block usually form metallic bonds with high strength.
the amount of energy the flowing H+ ions have
Nonmetals are unlikely to have metallic bonding because they do not have the free-flowing electrons necessary for this type of bonding. Metallic bonding involves delocalized electrons moving freely throughout a lattice of metal cations, which nonmetals do not possess. Instead, nonmetals are more likely to form covalent or ionic bonds depending on their electronegativity.