Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

Write order and degree (if defined)of each of the following differential equations:

(3x + 5y)dy - 4x² dx = 0

Write order and degree (if defined)of each of the following differential equations:

Verify that x² = 2y²log y is a solution of the differential equation (x² + y²) - xy = 0.

Verify that x² = 2y²log y is a solution of the differential equation (x² + y²) - xy = 0.

Verify that y = e^x cos bx is a solution of the differential equation

Verify that y = e^x cos bx is a solution of the differential equation

Verify that y = (a + bx) e^2x is the general solution of the differential equation

Verify that y = (a + bx) e^2x is the general solution of the differential equation

Verify that y = e^x(A cos x + B sin x) is the general solution of the differential equation

Verify that y = e^x(A cos x + B sin x) is the general solution of the differential equation

Verify that y = A cos 2x - B sin 2x is the general solution of the differential equation = 0.

Verify that y = A cos 2x - B sin 2x is the general solution of the differential equation = 0.

Verify that y = ae^2x + be ^{- x} is the general solution of the differential equation

Verify that y = ae^2x + be ^{- x} is the general solution of the differential equation

Show that y = e^x(A cos x + B sin x) is the solution of the differential equation

Show that y = e^x(A cos x + B sin x) is the solution of the differential equation

Verify that y^{2 =} 4a(x + a) is a solution of the differential equation

Verify that y^{2 =} 4a(x + a) is a solution of the differential equation

Verify that y = is a solution of the differential equation (1 + x²) + (2x - 1) = 0

Verify that y = is a solution of the differential equation (1 + x²) + (2x - 1) = 0

Verify that y = is a solution of the differential equation

Verify that y = is a solution of the differential equation

Verify that y = is a solution of the differential equation

Verify that y = is a solution of the differential equation

Verify that y = e ^{- x} + Ax + B is a solution of the differential equation

Verify that y = e ^{- x} + Ax + B is a solution of the differential equation

Verify that Ax² + By² = 1 is a solution of the differential equation

Verify that Ax² + By² = 1 is a solution of the differential equation

Verify that y = is a solution of the differential equation (1 + x²) + (1 + y²) = 0.

Verify that y = is a solution of the differential equation (1 + x²) + (1 + y²) = 0.

Verify that y = log (x + satisfies the differential equation.

Verify that y = log (x + satisfies the differential equation.

Verify that y = e ^{- 3x} is a solution of the differential equation

Verify that y = e ^{- 3x} is a solution of the differential equation

Form the differential equation of the family of straight lines y=mx+c, where m and c are arbitrary constants.

Form the differential equation of the family of concentric circles x²+y²=a², where a>0 and a is a parameter.

Form the differential equation of the family of curves, y=a sin (bx+c), Where a and c are parameters.

Form the differential equation of the family of curves x=A cos nt+ Bsin nt, where A and B are arbitrary constants.

Form the differential equation of the family of curves y=ae^bx, where a and b are arbitrary constants.

Form the differential equation of the family of curves y²=m(a²-x²), where a and m are parameters.

Form the differential equation of the family of curves given by (x-a)²+2y²=a², where a is an arbitrary constant.

Form the differential equation of the family of curves given by x²+y²-2ay=a², where a is an arbitrary constant.

Form the differential equation of the family of all circles touching the y-axis at the origin.

From the differential equation of the family of circles having centers on y-axis and radius 2 units.

Form the differential equation of the family of circles in the second quadrant and touching the coordinate axes

Form the differential equation of the family of circles having centers on the x-axis and radius unity.

Form the differential equation of the family of circles passing through the fixed point (a,0) and (-a,0), where a is the parameter.

Form the differential equation of the family of parabolas having a vertex at the origin and axis along positive y-axis.

Form the differential equation of the family of an ellipse having foci on the y-axis and centers at the origin.

Form the differential equation of the family of hyperbolas having foci on the x-axis and centers at the origin.