Potential functions Potential functions arise frequently in physics and engineering. A potential function has the property that a field of interest (for example, an electric field, a gravitational field, or a velocity field) is the gradient of the potential (or sometimes the negative of the gradient of the potential). (Potential functions are considered in depth in Chapter 17.) 82. Gravitational potential The gravitational potential associated with two objects of mass M and m is φ = − GMm / r, where G is the gravitational constant. If one of the objects is at the origin and the other object is at P ( x, y, z), then r 2 = x 2 + y 2 + z 2 is the square of the distance between the objects. The gravitational field at P is given by F = − ∇ φ where ∇ φ is the gradient in three dimensions. Show that the force has a magnitude. | F | = GMm/ r 2. Explain why this relationship is called an inverse square law.
Potential functions Potential functions arise frequently in physics and engineering. A potential function has the property that a field of interest (for example, an electric field, a gravitational field, or a velocity field) is the gradient of the potential (or sometimes the negative of the gradient of the potential). (Potential functions are considered in depth in Chapter 17.) 82. Gravitational potential The gravitational potential associated with two objects of mass M and m is φ = − GMm / r, where G is the gravitational constant. If one of the objects is at the origin and the other object is at P ( x, y, z), then r 2 = x 2 + y 2 + z 2 is the square of the distance between the objects. The gravitational field at P is given by F = − ∇ φ where ∇ φ is the gradient in three dimensions. Show that the force has a magnitude. | F | = GMm/ r 2. Explain why this relationship is called an inverse square law.
Potential functions Potential functions arise frequently in physics and engineering. A potential function has the property that a field of interest (for example, an electric field, a gravitational field, or a velocity field) is the gradient of the potential (or sometimes the negative of the gradient of the potential). (Potential functions are considered in depth in Chapter 17.)
82. Gravitational potential The gravitational potential associated with two objects of mass M and m is φ = −GMm/r, where G is the gravitational constant. If one of the objects is at the origin and the other object is at P(x, y, z), then r2= x2 + y2 + z2 is the square of the distance between the objects. The gravitational field at P is given by F = − ∇φ where ∇φ is the gradient in three dimensions. Show that the force has a magnitude. |F| = GMm/r2.Explain why this relationship is called an inverse square law.
For the system consisting of the lines:
and
71 = (-8,5,6) + t(4, −5,3)
72 = (0, −24,9) + u(−1, 6, −3)
a) State whether the two lines are parallel or not and justify your answer.
b) Find the point of intersection, if possible, and classify the system based on the
number of points of intersection and how the lines are related. Show a complete
solution process.
3. [-/2 Points]
DETAILS
MY NOTES
SESSCALCET2 7.4.013.
Find the exact length of the curve.
y = In(sec x), 0 ≤ x ≤ π/4
H.w
WI
M
Wz
A
Sindax
Sind dy max
Утах
at 0.75m from A
w=6KN/M L=2
W2=9 KN/m
P= 10 KN
B
Make the solution handwritten and not
artificial intelligence because I will
give a bad rating if you solve it with
artificial intelligence
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