To solve this differential equation, we can use the method of separation of variables.
Given:
у' = 2 cos(x/2 + 1) у' = 4/(3x-1)^2
We can set the derivatives equal to each other:
2 cos(x/2 + 1) = 4/(3x-1)^2
Now, we can separate the variables by joining like terms:
2 cos(x/2 + 1) dx = 4/(3x-1)^2 dy
Next, we integrate both sides with respect to their corresponding variables:
∫ 2 cos(x/2 + 1) dx = ∫ 4/(3x-1)^2 dy
Integrating the left side yields:
2 ∫ cos(x/2 + 1) dx = 2 sin(x/2 + 1) + C1
Integrating the right side yields:
∫ 4/(3x-1)^2 dy = -4/(3x-1) + C2
Setting these two results equal to each other, we have:
2 sin(x/2 + 1) + C1 = -4/(3x-1) + C2
Where C1 and C2 are arbitrary constants.
This is the general solution to the given differential equation.
To solve this differential equation, we can use the method of separation of variables.
Given:
у' = 2 cos(x/2 + 1)
у' = 4/(3x-1)^2
We can set the derivatives equal to each other:
2 cos(x/2 + 1) = 4/(3x-1)^2
Now, we can separate the variables by joining like terms:
2 cos(x/2 + 1) dx = 4/(3x-1)^2 dy
Next, we integrate both sides with respect to their corresponding variables:
∫ 2 cos(x/2 + 1) dx = ∫ 4/(3x-1)^2 dy
Integrating the left side yields:
2 ∫ cos(x/2 + 1) dx = 2 sin(x/2 + 1) + C1
Integrating the right side yields:
∫ 4/(3x-1)^2 dy = -4/(3x-1) + C2
Setting these two results equal to each other, we have:
2 sin(x/2 + 1) + C1 = -4/(3x-1) + C2
Where C1 and C2 are arbitrary constants.
This is the general solution to the given differential equation.