Consider two particles: p at the origin (0,0,0) E R³ with mass M > 0, and q at the point/position vector 7=(x, y, z) = R³ with mass m > 0. Let G be the universal gravitational constant. (We will assume the MKS system of units.) The force F (7) felt by the particle q due to its gravitational interaction with particle p is: GMm ||7|3 = 7 (7) = =- , for all 7 = (x, y, z) = R³\{J} . Also consider the function f: R³\{} → R given by GMm f(x, y, z) := "या Fix an arbitrary point/position vector = (x, y, z) in R³\{♂}. late the for all 7 = (x, y, z) = R³\{7} . E " of the vector F(7). (4) Calculate the direction of the vector (5) Assume that is the total force on the particle q. Calculate the instantaneous acceleration, d, of the particle q when it is at the point 7=(x, y, z).
Consider two particles: p at the origin (0,0,0) E R³ with mass M > 0, and q at the point/position vector 7=(x, y, z) = R³ with mass m > 0. Let G be the universal gravitational constant. (We will assume the MKS system of units.) The force F (7) felt by the particle q due to its gravitational interaction with particle p is: GMm ||7|3 = 7 (7) = =- , for all 7 = (x, y, z) = R³\{J} . Also consider the function f: R³\{} → R given by GMm f(x, y, z) := "या Fix an arbitrary point/position vector = (x, y, z) in R³\{♂}. late the for all 7 = (x, y, z) = R³\{7} . E " of the vector F(7). (4) Calculate the direction of the vector (5) Assume that is the total force on the particle q. Calculate the instantaneous acceleration, d, of the particle q when it is at the point 7=(x, y, z).
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![Consider two particles: p at the origin (0,0,0) = R³ with mass M > 0,
and q at the point/position vector 7 = (x, y, z) = R³ with mass m > 0. Let
G be the universal gravitational constant. (We will assume the MKS system
of units.)
The force F = F (7) felt by the particle q due to its gravitational
interaction with particle p is:
GMm
7(7)=
==
7, for all 7 = (x, y, z) € R³\{0} .
17
Also consider the function ƒ : R³\{♂} → R given by
GMm
f(x, y, z) :=
TT
, for all 7 = (x, y, z) € R³\{0} .
Fix an arbitrary point/position vector = (x, y, z) in R³\{♂}.
2, calculate the
(3) Calculat
cade of the vector
(4) Calculate the direction of the vector ₹(7).
(5) Assume that is the total force on the particle q. Calculate the
instantaneous acceleration, d, of the particle q when it is at the point
7 = (x, y, z).](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F4c49c29d-b734-4891-8a07-7c122a77a78d%2Fe80e8ef9-a7e5-4a04-ac7a-a8bd8d452f0a%2Fr0o3cs58_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Consider two particles: p at the origin (0,0,0) = R³ with mass M > 0,
and q at the point/position vector 7 = (x, y, z) = R³ with mass m > 0. Let
G be the universal gravitational constant. (We will assume the MKS system
of units.)
The force F = F (7) felt by the particle q due to its gravitational
interaction with particle p is:
GMm
7(7)=
==
7, for all 7 = (x, y, z) € R³\{0} .
17
Also consider the function ƒ : R³\{♂} → R given by
GMm
f(x, y, z) :=
TT
, for all 7 = (x, y, z) € R³\{0} .
Fix an arbitrary point/position vector = (x, y, z) in R³\{♂}.
2, calculate the
(3) Calculat
cade of the vector
(4) Calculate the direction of the vector ₹(7).
(5) Assume that is the total force on the particle q. Calculate the
instantaneous acceleration, d, of the particle q when it is at the point
7 = (x, y, z).
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