Solutions to the differential equation = xy also satisfy = y'(1 + 3x²y²). Let y = f(x) be a particular dr? dx solution to the differential equation = xy with f(1) = 2. dy dx (a) On the axes provided, sketch a slope field for the given differential equation at the twelve points indicated. Draw a solution curve through the point (0,1). 2 (b) Describe all points where the particular solution to the differential equation y = f(x) has a horizontal tangent. d²y (c) Verify that = y°(1+ 3x?y²). Does y = f(x) have a point of inflection at the point (1,2)? Explain.

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I need answer and explanation for #c-g. Thanks

dy
Solutions to the differential equation
= xy' also satisfy = y' (1 + 3x?y²). Let y = f(x) be a particular
dx
dx
dy
xy with f(1) = 2.
dx
solution to the differential equation
%3D
(a) On the axes provided, sketch a slope field for the given differential equation at the twelve points
indicated. Draw a solution curve through the point (0,1).
(b) Describe all points where the particular solution to the differential equation y = f(x) has a
horizontal tangent.
d?y
(c) Verify that = y°(1 + 3x?y²). Does y = f(x) have a point of inflection at the point (1,2)?
Explain.
Transcribed Image Text:dy Solutions to the differential equation = xy' also satisfy = y' (1 + 3x?y²). Let y = f(x) be a particular dx dx dy xy with f(1) = 2. dx solution to the differential equation %3D (a) On the axes provided, sketch a slope field for the given differential equation at the twelve points indicated. Draw a solution curve through the point (0,1). (b) Describe all points where the particular solution to the differential equation y = f(x) has a horizontal tangent. d?y (c) Verify that = y°(1 + 3x?y²). Does y = f(x) have a point of inflection at the point (1,2)? Explain.
(d) Does y=f(x) have a relative minimum, relative maximum, or neither at (1,2)? Explain.
(e) Write the equation of the line tangent to y = f(x) at x =1. Use this tangent to approximate the
value of f(1.5).
() For the approximation found in (d), determine whether it was an underestimate or overestimate
of the actual value of f(1.5).
(g) Find the solution y f(x) to the given differential equation with the initial condition f(1) = 2.
Use your solution to find f(0).
Transcribed Image Text:(d) Does y=f(x) have a relative minimum, relative maximum, or neither at (1,2)? Explain. (e) Write the equation of the line tangent to y = f(x) at x =1. Use this tangent to approximate the value of f(1.5). () For the approximation found in (d), determine whether it was an underestimate or overestimate of the actual value of f(1.5). (g) Find the solution y f(x) to the given differential equation with the initial condition f(1) = 2. Use your solution to find f(0).
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