General solution of differential equation calculator with steps

General solution of differential equation calculator with steps


General solution of differential equation calculator with steps
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A calculator for solving differential equations.

Use * for multiplication
a^2 is a2

Other resources:

Basic differential equations and solutions


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General solution of differential equation calculator with steps

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General solution of differential equation calculator with steps

Examples of differential equations

  • The simplest differential equations of 1-order
  • y' + y = 0
  • y' - 5*y = 0
  • x*y' - 3 = 0
  • Differential equations with separable variables
  • (x-1)*y' + 2*x*y = 0
  • tan(y)*y' = sin(x)
  • Linear inhomogeneous differential equations of the 1st order
  • y' + 7*y = sin(x)
  • Linear homogeneous differential equations of 2nd order
  • 3*y'' - 2*y' + 11y = 0
  • Exact Differential Equations
  • dx*(x^2 - y^2) - 2*dy*x*y = 0
  • Solve a differential equation with substitution
  • x^2*y' - y^2 = x^2
  • Change y(x) to x in the equation
  • x^2*y' - y^2 = x^2
  • Other
  • -6*y - 5*y'' + y' + y''' + y'''' = x*cos(x) + sin(x)

What can the calculator of differential equations do?

  • Detailed solution for:
    • Ordinary Differential Equation (ODE)
    • Separable Differential Equation
    • Bernoulli equation
    • Exact Differential Equation
    • First-order differential equation
    • Second Order Differential Equation
    • Third-order differential equation
    • Homogeneous Differential Equation
    • Non Homogeneous Differential Equation
    • Substitution Differential Equation
    • A system of ordinary differential equations (System of ODEs)
  • Plot of graphs of solution set
  • The solution of the Cauchy problem
  • Classification of differential equations
  • Examples of numerical solutions

The above examples also contain:

  • the modulus or absolute value: absolute(x) or |x|
  • square roots sqrt(x),
    cubic roots cbrt(x)
  • trigonometric functions:
    sinus sin(x), cosine cos(x), tangent tan(x), cotangent ctan(x)
  • exponential functions and exponents exp(x)
  • inverse trigonometric functions:
    arcsine asin(x), arccosine acos(x), arctangent atan(x), arccotangent acot(x)
  • natural logarithms ln(x),
    decimal logarithms log(x)
  • hyperbolic functions:
    hyperbolic sine sh(x), hyperbolic cosine ch(x), hyperbolic tangent and cotangent tanh(x), ctanh(x)
  • inverse hyperbolic functions:
    hyperbolic arcsine asinh(x), hyperbolic arccosinus acosh(x), hyperbolic arctangent atanh(x), hyperbolic arccotangent acoth(x)
  • other trigonometry and hyperbolic functions:
    secant sec(x), cosecant csc(x), arcsecant asec(x), arccosecant acsc(x), hyperbolic secant sech(x), hyperbolic cosecant csch(x), hyperbolic arcsecant asech(x), hyperbolic arccosecant acsch(x)
  • rounding functions:
    round down floor(x), round up ceiling(x)
  • the sign of a number:
    sign(x)
  • for probability theory:
    the error function erf(x) (integral of probability), Laplace function laplace(x)
  • Factorial of x:
    x! or factorial(x)
  • Gamma function gamma(x)
  • Lambert's function LambertW(x)
  • Trigonometric integrals: Si(x), Ci(x), Shi(x), Chi(x)

The insertion rules

The following operations can be performed

2*x- multiplication3/x- divisionx^2- squaringx^3- cubingx^5 - raising to the powerx + 7- additionx - 6- subtractionReal numbersinsert as 7.5, no 7,5

Constants

pi- number Pie- the base of natural logarithmi- complex numberoo- symbol of infinity

How do you find the general solution of a differential equation?

So the general solution to the differential equation is found by integrating IQ and then re-arranging the formula to make y the subject. x3 dy dx + 3x2y = ex so integrating both sides we have x3y = ex + c where c is a constant. Thus the general solution is y = ex + c x3 .

How do you solve a differential equation step by step?

Here is a step-by-step method for solving them:.
Substitute y = uv, and. ... .
Factor the parts involving v..
Put the v term equal to zero (this gives a differential equation in u and x which can be solved in the next step).
Solve using separation of variables to find u..
Substitute u back into the equation we got at step 2..

What is the general formula of differential equation?

The equations can be written as: f(x)dx+g(y)dy=0, where f(x) and g(y) are either constants or functions of x and y respectively. Similarly, the general solution of a second-order differential equation will consist of two fixed arbitrary constants and so on.

What is general solution of PDE?

Since the constants may depend on the other variable y, the general solution of the PDE will be u(x, y) = f(y) cosx + g(y) sinx, where f and g are arbitrary functions.