11 Other formulas that you can solve using the same Inputs

Gravitational potential of a thin circular disc
Gravitational Potential=-(2*[G.]*Mass*(sqrt((Distance from center to a point)^2+(radius)^2)-Distance from center to a point))/(radius)^2 GO
Field of a Bar Magnet at equatorial position
Field at the equitorial position of a bar magnet=[Permeability-vacuum]*Magnetic Moment/(4*pi*Distance from center to a point)^3 GO
Gravitational field of a ring
Gravitational Field=-([G.]*Mass*Distance from center to a point)/((Radius of ring)^2+(Distance from center to a point)^2)^(3/2) GO
Gravitational potential when point p is inside of non conducting solid sphere
Gravitational Potential=-([G.]*Mass*((3*(Radius)^2)-(Distance from center to a point)^2))/(2*(radius)^3) GO
Gravitational field of a ring when cosθ is given
Gravitational Field=-([G.]*Mass*cos(Theta))/((Distance from center to a point)^2+(Radius of ring)^2)^2 GO
Gravitational potential of a ring
Gravitational Potential=-([G.]*Mass)/sqrt((Radius of ring)^2+(Distance from center to a point)^2) GO
Gravitational field when point P is inside of non conducting solid sphere
Gravitational Field=-([G.]*Mass*Distance from center to a point)/(radius)^3 GO
Gravitational potential when point P is outside of non-conducting solid sphere
Gravitational Potential=-([G.]*Mass)/Distance from center to a point GO
Gravitational field when point P is outside of non conducting solid sphere
Gravitational Field=-([G.]*Mass)/(Distance from center to a point)^2 GO
Gravitational potential when point p is outside of conducting solid sphere
Gravitational Potential=-([G.]*Mass)/Distance from center to a point GO
Gravitational field when point P is outside of conducting solid sphere
Gravitational Field=-([G.]*Mass)/(Distance from center to a point)^2 GO

Field of a Bar Magnet at axial position Formula

Field at the axial position of a bar magnet=[Permeability-vacuum]*2*Magnetic Moment/(4*pi*(Distance from center to a point)^3)
More formulas
Magnetic Field Due to a Straight Conductor GO
Magnetic Field Due to an Infinite Straight Wire GO
Magnetic Field on the Axis of a Ring GO
Force Between Parallel Wires GO
Field at the Center of an Arc GO
Field Inside a Solenoid GO
field at the center of the ring GO
Field of a Bar Magnet at equatorial position GO
Angle of Dip GO
Magnetic Field for a Tangent Galvanometer GO
Electric Current for a Tangent Galvanometer GO
Current for a Moving Coil Galvanometer GO
Time Period of Magnetometer GO
Magnetic Permeability GO

how to calculate Magnetic field strength at a point due to a bar magnet on the axial line....?

Let NS be a bar magnet of magnetic length 2l and having each pole of magnetic strength m . O is the center of magnet and P is a point on axial line at a distance r from the center O of magnet , at which magnetic field has to be measured . B=mu_naught*2*M/4*Pi*d^3 Similarly at the south pole the force exerted would be as in equation, Thus the strength at point B will be difference in force experienced at north pole and south pole But dipole moment m = 2l.qm

How to Calculate Field of a Bar Magnet at axial position?

Field of a Bar Magnet at axial position calculator uses Field at the axial position of a bar magnet=[Permeability-vacuum]*2*Magnetic Moment/(4*pi*(Distance from center to a point)^3) to calculate the Field at the axial position of a bar magnet, Field of a Bar Magnet at axial position is calculated as B=mu_naught*2*M/4*Pi*d^3 where M is magnetic moment and d is distance form center. Field at the axial position of a bar magnet and is denoted by B symbol.

How to calculate Field of a Bar Magnet at axial position using this online calculator? To use this online calculator for Field of a Bar Magnet at axial position, enter Distance from center to a point (a) and Magnetic Moment (M) and hit the calculate button. Here is how the Field of a Bar Magnet at axial position calculation can be explained with given input values -> 0.0002 = [Permeability-vacuum]*2*1/(4*pi*(0.1)^3).

FAQ

What is Field of a Bar Magnet at axial position?
Field of a Bar Magnet at axial position is calculated as B=mu_naught*2*M/4*Pi*d^3 where M is magnetic moment and d is distance form center and is represented as B=[Permeability-vacuum]*2*M/(4*pi*(a)^3) or Field at the axial position of a bar magnet=[Permeability-vacuum]*2*Magnetic Moment/(4*pi*(Distance from center to a point)^3). Distance from center to a point is the length of line segment measured from the center of a body to a particular point and Magnetic Moment is a determination of its tendency to get arranged through a magnetic field.
How to calculate Field of a Bar Magnet at axial position?
Field of a Bar Magnet at axial position is calculated as B=mu_naught*2*M/4*Pi*d^3 where M is magnetic moment and d is distance form center is calculated using Field at the axial position of a bar magnet=[Permeability-vacuum]*2*Magnetic Moment/(4*pi*(Distance from center to a point)^3). To calculate Field of a Bar Magnet at axial position, you need Distance from center to a point (a) and Magnetic Moment (M). With our tool, you need to enter the respective value for Distance from center to a point and Magnetic Moment and hit the calculate button. You can also select the units (if any) for Input(s) and the Output as well.
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