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What else can I help you with?
How you can stop or divert magnetic lines of force?
To stop or divert magnetic lines of force, you can use magnetic shields made of materials with high magnetic permeability such as iron or steel. These materials can redirect or absorb magnetic fields, preventing them from reaching a certain area. Alternatively, you can use electromagnetic coils to create opposing magnetic fields that cancel out or weaken the original magnetic field.
How do Transrapid Maglevs Slow and Stop?
Transrapid Maglevs slow down and stop using a combination of electromagnetic brakes and eddy-current brakes. Electromagnetic brakes work by applying a magnetic field to the track, which induces a current in the moving magnets of the train, creating a force that opposes the motion. Eddy-current brakes work by creating a magnetic field that interacts with the conducting track, generating eddy currents which create an opposite magnetic field that slows down the train. These braking systems work together to gradually slow down and bring the Transrapid Maglev to a stop.
What can cause the earth's electromagnetic field to cease?
The Earth's electromagnetic field is generated by the movement of molten iron in its outer core. If this movement were to stop due to the core solidifying, the Earth's magnetic field could weaken or possibly cease altogether. Another possibility could be a significant disruption caused by a massive asteroid impact or a geomagnetic reversal.
Can a person magnetic field cause their watch to stop?
No, a person's magnetic field is not strong enough to stop a watch. However, strong magnetic fields from devices like speakers or magnetic clasps in bags can affect the accuracy of a watch. Specialized watches with anti-magnetic features are designed to withstand such interference.
Can lead stop electromagnetic waves?
Lead is effective at blocking or attenuating electromagnetic waves, particularly in the form of X-rays and gamma rays. Its high density and atomic number make it an efficient shield against these types of radiation. However, lead may not be as effective for lower-energy electromagnetic waves like visible light or radio waves.
When and magnetic fields exist its called an electromagnetic field?
A temporary magnetic field created by a flowing electrical current is an electromagnetic field. Stop the current from flowing, it goes away.
How you can stop or divert magnetic lines of force?
To stop or divert magnetic lines of force, you can use magnetic shields made of materials with high magnetic permeability such as iron or steel. These materials can redirect or absorb magnetic fields, preventing them from reaching a certain area. Alternatively, you can use electromagnetic coils to create opposing magnetic fields that cancel out or weaken the original magnetic field.
Will aluminum and bronze stop magnetic field as a magnetic shield?
Not at all well
How do Transrapid Maglevs Slow and Stop?
Transrapid Maglevs slow down and stop using a combination of electromagnetic brakes and eddy-current brakes. Electromagnetic brakes work by applying a magnetic field to the track, which induces a current in the moving magnets of the train, creating a force that opposes the motion. Eddy-current brakes work by creating a magnetic field that interacts with the conducting track, generating eddy currents which create an opposite magnetic field that slows down the train. These braking systems work together to gradually slow down and bring the Transrapid Maglev to a stop.
Is there a material that will stop a magnetic pull but is not magnetic itself and will stop a computer phone or TV from breaking if a magnet is brought near it?
I don't believe there is.Ferromagnetic materials concentrate magnetic fields within themselves, but they are, as you might have guessed from the name, magnetic.A Faraday cage can be nonmagnetic (you could make it out of, say, copper) and will keep out electromagnetic radiation, but does nothing against a static magnetic field.
What can cause the earth's electromagnetic field to cease?
The Earth's electromagnetic field is generated by the movement of molten iron in its outer core. If this movement were to stop due to the core solidifying, the Earth's magnetic field could weaken or possibly cease altogether. Another possibility could be a significant disruption caused by a massive asteroid impact or a geomagnetic reversal.
Which metal is stop the magnetic field no effect in other side?
nothing can disrupt a magnetic feild
Can a person magnetic field cause their watch to stop?
No, a person's magnetic field is not strong enough to stop a watch. However, strong magnetic fields from devices like speakers or magnetic clasps in bags can affect the accuracy of a watch. Specialized watches with anti-magnetic features are designed to withstand such interference.
Can lead stop electromagnetic waves?
Lead is effective at blocking or attenuating electromagnetic waves, particularly in the form of X-rays and gamma rays. Its high density and atomic number make it an efficient shield against these types of radiation. However, lead may not be as effective for lower-energy electromagnetic waves like visible light or radio waves.
What does the Earth's magnetic field stop from hitting the Earth's surface?
Solar Winds
What material blocks a magnetic field?
There are no materials that STOP magnetic fields. Some have proposed that a faraday cage will stop magnetic fields, but this is not true because magnetism is a field, not a wave. The most effective way to block a magnetic field is to put a bunch of space between it and whatever's in trouble. Ideally, you could encase a magnet in a large plexiglass bubble to keep distance.
What do electromagnetic waves travel through?
To understand how electromagnetic (EM) waves propagate, you first need to know some background information. The most important piece of information that you need to understand is that a time-varying electric field produces a magnetic field, and a time-varying magnetic field produces an electric field. Additionally, both of these produced fields are perpendicular (900 apart) to each other.The last thing to understand may be a little difficult, so pay attention. If either time-varying field, the magnetic or the electric, is always changing in the same manner, the field produced from that change will either be constant, or will itself be changing in one particular way over time.For example:Say an electric field continuously gains 1 unit of strength for every 1 unit of time; i.e., its strength is 1 after 1 unit of time, 2 after 2 units of time, 3 after 3 units of time, etc. The magnetic field produced from this change will be constant, or uniform; i.e., not changing at all, or better yet, it will be a number, like 1. And, since this magnetic field isn't changing, it won't produce an electric field.Now let's say that this electric field was gaining strength proportional to the cube of the unit of time; i.e., its strength is 1 after 1 unit of time, 8 after 2 units of time, 27 after 3 units of time, 64 after 4 units of time, etc. The magnetic field produced from this change will be proportional to the square of the unit of time; i.e., its strength will be proportional to 1 after 1 unit of time, 4 after 2 units of time, 9 after three units of time, etc. Continuing further, that magnetic field will produce an electric field proportional to the one I first described, where it's gaining 1 unit of strength for every 1 unit of time.The point to gain from all this is that were EM waves described as above, they wouldn't be able to indefinitely propagate through space, because they would eventually stop producing fields. However, were the fields produced changing, not in the same fashion over time, but in a variable manner, the fields produced by those fields would be changing in a variable manner as well, and so on, and so on. Well, since we know that EM waves do in fact exist, we have to figure out a way to mathematically describe these field changes in such a way that the fields produced from them can perpetually continue producing other fields.The way this is done is by describing these waves using the sine function. The reason being that the field produced from a field changing proportionally to a sine function is proportional to the cosine function, whose field produced is once again proportional to the sine function. Thus the field keeps varying from sine to cosine to sine to cosine, and so on, indefinitely.All of that above was basically an explanation as to how EM waves are able to propagate in the first place. Now, the direction in which they propagate is a much shorter explanation.As stated above, the fields produced by time-varying electric or magnetic fields are perpendicular to each other. Additionally, the field produced from this previously produced field is perpendicular to it, but it remains in the same 2-dimensional plane as the other two fields. Similarly, the next field produced is in the same 2-dimensional plane, and so on, and so on. Well, fortunately, we live in a 3-dimensional universe, which leaves us a spare dimension for the EM wave to use, which it does. In other words, the oscillating electric field, the oscillating magnetic field, and the direction of propagation for an EM wave are all perpendicular to each other. Thus, an EM wave travels in a single direction.Two quick notes:When an EM wave travels from one medium to another, like say from air to glass, it changes its direction of propagation at the boundary of the two mediums, and then continues moving in a straight line. This is known as refraction, and I've added a related link below if you want to read more about that.Also, there is an effect from the General Theory of Relativity, called gravitational lensing, in which a powerful gravitational field can bend EM waves towards it. I linked a website about that below as well.
