<u>Answer:</u>
<h3>As electric current is carried in a cable, around it, a magnetic field is created. The lines of the magnetic fields form concentric circles around the wire. The direction of the magnetic field hinges on the direction of the current. It can be calculated by pointing the thumb of your right hand in the direction of the moment, using the "right hand law." The position of your curled fingers is in the magnetic field lines. The magnetic field magnitude depends on the sum of current, and the distance from the wire carrying the charge.</h3>
<u></u>
<u>Explanation:</u>
Determine the direction of vector B magnitude B: ![B: B=\mu_{0} * 1 /(2 \pi r): r=d / 2 * \sqrt{2}](https://tex.z-dn.net/?f=B%3A%20B%3D%5Cmu_%7B0%7D%20%2A%201%20%2F%282%20%5Cpi%20r%29%3A%20r%3Dd%20%2F%202%20%2A%20%5Csqrt%7B2%7D)
![\cos \alpha=1 / 2 \Rightarrow \alpha=450](https://tex.z-dn.net/?f=%5Ccos%20%5Calpha%3D1%20%2F%202%20%5CRightarrow%20%5Calpha%3D450)
Resultant magnitude strength:
its direction is pointing to the left.
Note: Refer the image attached below
Answer:
I just noticd i dont speak this launguage
Explanation:
The acceleration due to gravity is given as:
g = GM/r²
<h3>
Derivation of gravitational acceleration:</h3>
According to Newton's second law of motion,
F = ma
where,
F = force
m = mass
a = acceleration
According to Newton's law of gravity,
F<em>g </em>= GMm/(r + h)²
F<em>g = </em>gravitational force
From Newton's second law of motion,
F<em>g </em>= ma
a = F<em>g</em>/m
We can refer to "a" as "g"
a = g = GMm/(m)(r + h)²
g = GM/(r + h)²
When the object is on or close to the surface, the value of g is constant and height has no considerable impact. Hence, it can be written as,
g = GM/r²
Learn more about gravitational acceleration here:
brainly.com/question/2142879
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1000 miles = 1610km = 1.61x10^6m
2 weeks = 14 days = 14x24x1440
V=d/t = 1.61x10^6/14x24x1440
= 3.33m/s