Vertically Oriented Dipole magnetism

In summary, the distance between the zero crossings of Bz for a vertical dipole at y=0 is equal to 2d√2 and the distance between maximum and minimum values of Bx is equal to d. This is found using the equations Bz=[μo/(4∏(xp2+d2)3/2)](3dzp/(xp2+d2)) and Bx=[μo/(4∏(xp2+d2)3/2)](-3dxp/(xp2+d2)), with x=xp at y=0.
  • #1
dp182
22
0
Now assume you are taking a profile in the x-direction along y=0. Show that the distance between the zero crossings of Bz for this vertical dipole is equal to 2d√2
2, and that the distance between maximum and
minimum values of Bx is equal to d


Homework Equations


Bx=[μo/(4∏((x2p+y2p+d2)3/2)](-3dxp/(x2p+y2p+d2))
rp=[xp,yp,0] position of observer
rq=[0,0,d] vertically downward dipole
x=xp-xq

The Attempt at a Solution


I'm not entirely sure how to go about solving this problem any tips on what to start with would be helpful
 
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  • #2
. Assuming the dipole is along the z-direction, the equation for Bz isBz=[μo/(4∏((x2p+y2p+d2)3/2)](3dzp/(x2p+y2p+d2)) At y=0, x=xp so Bz becomes Bz=[μo/(4∏(xp2+d2)3/2)](3dzp/(xp2+d2)) The distance between two zero crossings is equal to 2d√2, therefore, 2d√2 = 2*abs(Bz) and d = abs(Bz). For Bx, the equation is Bx=[μo/(4∏((x2p+y2p+d2)3/2)](-3dxp/(x2p+y2p+d2)) At y=0, x=xp so Bx becomes Bx=[μo/(4∏(xp2+d2)3/2)](-3dxp/(xp2+d2)) Therefore, the distance between maximum and minimum values of Bx is equal to d.
 

FAQ: Vertically Oriented Dipole magnetism

What is a Vertically Oriented Dipole Magnet?

A vertically oriented dipole magnet is a type of magnet that is oriented in a vertical direction, meaning that its north and south poles are aligned in a vertical axis.

How does a Vertically Oriented Dipole Magnet work?

A vertically oriented dipole magnet works by creating a magnetic field that is strongest at its poles. This causes objects with magnetic properties to be attracted to or repelled by the magnet, depending on their orientation.

What are the applications of Vertically Oriented Dipole Magnets?

Vertically oriented dipole magnets have a wide range of applications, including in medical imaging equipment, particle accelerators, and magnetic levitation trains. They are also used in various industrial processes such as separating magnetic materials from non-magnetic ones.

How are Vertically Oriented Dipole Magnets different from other types of magnets?

Vertically oriented dipole magnets are different from other types of magnets due to their specific orientation and the strength of their magnetic field at the poles. This allows them to be used in unique applications and have different effects on objects compared to other types of magnets.

Can Vertically Oriented Dipole Magnets be manipulated or controlled?

Yes, it is possible to manipulate and control the strength and orientation of vertically oriented dipole magnets using various techniques such as changing the current flowing through them or using other magnets to influence their field. This makes them versatile tools in scientific research and industrial processes.

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