The mass of a magnet can vary depending on its size and composition. A typical small refrigerator magnet may have a mass of a few grams, while larger magnets used in industrial applications can weigh several kilograms.
Yes, gravity does have an effect on a magnet, but it is typically very small compared to other forces acting on the magnet, such as magnetic forces. Gravity affects the entire mass of the magnet, pulling it towards the Earth, but the magnet's magnetic properties are typically more noticeable in everyday interactions.
Because the only metallic part of a pencil is the extremely thin part at the end that holds the eraser in. It does have enough mass to be attracted by a magnet. Furthermore, pencils don't really has "lead", per se; it is really graphite, a carbon-based compound that is not metallic.
The magnet on the refrigerator is holding up the shopping list.
A temporary magnet.
Tagalog translation of MAGNET: batubalani
Earth attracts a magnet because both Earth and the magnet have mass. The force of gravity acts between any objects that have mass.
The center of gravity of a magnet is typically in the middle of the magnet, where the mass is evenly distributed. For a coin, the center of gravity is near the geometrical center as long as the mass is evenly distributed.
Whales have a much lower density than a magnet. Or another way of putting it, whales are more buoyant. Density is like a mixture of mass and volume. Lets say you have a 1000 pound whale, and a 1000 pound magnet. Their weight(mass) is the same, but the amount of the space they are taking up(volume) is different. Just think of it like there are more air pockets in a whale than in a magnet, causing the magnet to sink but the whale to float.
No, a magnet is not more dense than water. Density is the measure of how much mass is contained in a given volume, and the density of water is greater than that of most metals, including magnets.
Yes, gravity does have an effect on a magnet, but it is typically very small compared to other forces acting on the magnet, such as magnetic forces. Gravity affects the entire mass of the magnet, pulling it towards the Earth, but the magnet's magnetic properties are typically more noticeable in everyday interactions.
Please note that a magnetic field is not measured in units of acceleration (or the equivalent force / mass), like gravity is. What exactly happens when a bar magnet falls through a metal ring will depend on the details of the situation - for example, how strong the magnetic field is, and the mass of the bar magnet.
place a magnet on a scale and measure the mass. then make the two magnets same sides in and put one above each other and read mass.
cause thats what ur supposed to do
No, that statement is false. The strength of a magnet affects the magnetic field it generates but not necessarily the change in motion it causes. The change in motion is determined by factors such as mass, distance, and the magnetic field's influence on an object.
The magnet exerts a magnetic force on the paper clip in the downward direction. The force experienced by the paper clip will depend on the strength of the magnetic field, the mass of the paper clip, and the distance between the magnet and the paper clip. The force can be calculated using the formula for magnetic force, which involves the strength of the magnetic field, the charge of the particle, and the velocity of the particle.
When a mass(the magnet) falling with the potential energy of inertia strikes the ground, the Newtonian equal and opposite reaction occurs sending that potential energy backward through the mass(the magnet) as a kinetic shock wave that disrupts the... Ionic polarity? Subatomic spin? Oscillating relationships within the crystal lattice? Somebody help me here... An Iron bar rubbed in one direction with a magnet of any direction yields an Iron bar magnet of one direction. The direction you rub the magnet will be north and somehow all the atoms of the Iron lean that way. Here's the thing: The force of the shock wave is greater than the force of the magnetic alignment.
Technicly a black hole doesnt have weight it is a rip in the space time continuum. You have to think of it like this if you put iron shavings on a piece of paper they will stay where you put them however if you put a magnet under the paper the shavings will go towards the magnet, this represents gravity but if you cut a hole in the paper where the magnet is the iron shavings will get sucked off of the paper and stuck to the magnet. This is representative of the tiny fraction of th cosmos around any one black hole