The answer depends on whether the five magnets are all the same! But assuming they are, the answer is yes.
Household items: paperclip scissors knife another magnet steel fridge (not)
55 = 3125
Normally nickel plating is applied to base metals that aren't attracted to a magnet. At the atomic level the plating itself is attracted but it's such a small amount of the total composition that the entire item won't stick to a magnet. The nickel component of US nickels (and nickel-clad coins such as dimes, quarters, and half-dollars) is so low that the coins aren't attracted for the same reason. Nickel metal makes up only 25% of a nickel coin and 8% of the other coins.
Copper, aluminum, gold, silver, and chromium are five metals that cannot easily be made into magnets because they do not have magnetic properties.
No, damage caused by a magnet to a computer's hardware components cannot be reversed. Magnets can disrupt the magnetic fields within a computer's storage devices, leading to permanent data loss or hardware damage. It is important to keep magnets away from computers and electronic devices to prevent such issues.
Five to the fifth power, or five times five times five times five times five.
Iron Cobalt Nickel Neodymium Alnico
Five times five is 25 . You count five five times and you get the answer 25.
The one peso coin is made of material that contains ferromagnetic elements, like iron, which are attracted to magnets. The five peso coin does not contain these elements, so it is not attracted to magnets.
The five properties of magnets are: Attraction and repulsion: Magnets can attract and repel other magnets or magnetic materials. Pole orientation: Magnets have two poles, north and south, that determine their orientation. Magnetic field: Magnets create a magnetic field around them that exerts a force on nearby objects. Retentivity: Magnets can retain their magnetic properties once magnetized. Induction: Magnets can induce magnetism in nearby materials without direct contact.
The duration of Five Times Five is 1200.0 seconds.
Heating the magnet above its Curie temperature to randomize the magnetic domains. Applying a strong external magnetic field in the opposite direction to the magnetization. Mechanical shock or vibration to disrupt the alignment of magnetic domains. Exposing the magnet to alternating current or an alternating magnetic field. Degaussing using a degausser machine that generates a powerful, alternating magnetic field to reset the magnetization to zero.