A regular hexagon shaped wire loop with a side length of a = 41.0 cm carries an electric current of I = 12.0 A as shown in the figure.
Determine the size of the magnetic field at point Q, one of the vertices of the hexagon.

given
a = 41.0 cm
= 0.41 m
I = 12.0 A
r = ( a/2 ) / tan30
r = ( 0.41/2 ) / tan30
r = 0.355 m
using equation magnetic field due to the rectangular of the hexagon is
B = n
o i sin (
/n ) / 2
r
B = 6 X 4 X 3.14 X 10-7 X 12 X sin (
/6 ) / 2 X 3.14
X 0.355
B = 2.028 X 10-5 T
the size of the magnetic field at point Q, one of the vertices of the hexagon is B = 2.028 X 10-5 T
A regular hexagon shaped wire loop with a side length of a = 41.0 cm carries...
A regular hexagon shaped wire loop with a side length of a = 30.6 cm carries an electric current of I = 11.9 A as shown in the figure. Determine the size of the magnetic field at point P, the center of the hexagon. 2.69 times 10^-5 T Determine the size of the magnetic field at point Q, one of the vertices of the hexagon.
A regular hexagon shaped wire loop with a side length of a =
52.4 cm carries an electric current of I = 18.4 A as shown in the
figure.
Determine the size of the magnetic field at point P, the center of
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An equilateral triangle shaped wire loop with a side length of a = 40.6 cm carries an electric current of I = 19.7 A as shown in the figure.Determine the size of the magnetic field at point P, the center of the triangle.Determine the size of the magnetic field at point Q, one of the vertices of the triangle.
A square shaped wire loop with a side length of a = 30.8 cm carries an electric current of I = 13.4 A as Determine the size of the magnetic field at point P, the center of the square. 3.92e8 Wb/m*2 Submit Answer Incorrect. Tries 1/12 Previous Tries Determine the size of the magnetic field at point Q, one of the vertices of the square. Submit Answer Tries 0/12
The figure below displays a thin conducting loop shaped as an
equilateral triangle with the edge length
L=5.55 cm. It carries current
I=21 A.
What is the magnitude
BO of the magnetic
field produced by this current loop at point O in the center of the
triangle?:
BO= ______ G.
What is the magnitude
BP of the magnetic
field produced by this current loop at point P outside the triangle
as shown in the figure?:
BP= _______ G.
The figure...
The figure below displays a thin conducting loop shaped as an
equilateral triangle with the edge length
L=4.05 cm. It carries current
I=18 A.
What is the magnitude
BO of the magnetic
field produced by this current loop at point O in the center of the
triangle?:
BO= _____ G.
What is the magnitude
BP of the magnetic
field produced by this current loop at point P outside the triangle
as shown in the figure?:
BP= _____ G.
P L...
. A rectangular coil of wire (a = 20.0 cm, b = 41.0 cm)
containing a single turn is placed in a uniform 7.80 T magnetic
field, as the drawing shows. The current in the loop is 19.0 A.
Determine the magnitude of the magnetic force on the bottom side of
the loop.
A thin straight wire of length 32 cm carries a 5.0-A current along its length as shown. Determine the magnitude and direction of the magnetic field at a point 14 cm from the wire. Express your answer in microtesla (uT). r P Answer: Check
An
indefinitely long wire carries current (I). Across the entire
length, there is a single loop of wire, as shown below, with radius
R.
a.) calculate the magnetic field at the center of the loop due
to the current.
b.) what direction does the field point?
The figure below displays a thin conducting loop shaped as an equilateral triangle with the edge length L=6.05 cm. It carries current 1=12 A. A P L L What is the magnitude Bo of the magnetic field produced by this current loop at point o in the center of the triangle?: Bo= G. What is the magnitude Bp of the magnetic field produced by this current loop at point P outside the triangle as shown in the figure?: Bp=