Linear ODEs

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ODEs that can be expressed as a linear combination of the dependent variable and its derivatives.

Introduction to Differential Equations: Basics of differential equations and its types like ordinary and partial differential equations.
First-Order Differential Equations: Solution techniques of first-order linear and non-linear differential equations, like exact, separable, and homogeneous types.
Second-Order Differential Equations: Linear second-order differential equations and their basic properties like solutions, existence, and uniqueness.
Homogeneous Linear Differential Equations: Homogeneous differential equations, including linear differential equations, non-linear differential equations, and their solutions.
Non-Homogeneous Linear Differential Equations: Non-homogeneous linear differential equations, their solutions, and applications.
Higher-Order Linear Differential Equations: Higher-order linear differential equations of order n with constant coefficients and their solutions.
Systems of Differential Equations: Systems of first-order linear differential equations and their solutions.
Laplace Transforms: Introduction to Laplace transform, its definition, properties, and Laplace transforms of common functions.
Fourier Series: Introduction to Fourier series, its definition, properties and Fourier series of common functions.
Numerical Methods: Euler's method, Runge-Kutta methods, finite difference methods, numerical solutions of differential equations, and truncation errors.
Stability Analysis: Stability of linear differential equations, equilibrium points, stability analysis through phase spaces.
Applications: Differential equations applications in various fields like engineering, physics, finance, economics, etc.
First-order linear differential equation: An equation of the form y'+p(x)y=q(x) where p and q are functions of x.
Second-order homogeneous linear differential equation: An equation of the form y''+ay'+by=0 where a and b are constants.
Second-order non-homogeneous linear differential equation: An equation of the form y''+ay'+by=f(x) where a, b, and f are functions of x.
Constant-coefficient linear differential equation: An equation of the form y^(n)+a_(n-1)y^(n-1)+...+a_0y=f(x) where a_0, a_1,...,a_(n-1) are constants.
Nth-order homogeneous linear differential equation: An equation of the form y^(n)+a_(n-1)y^(n-1)+...+a_0y=0 where a_0, ...,a_(n-1) are constants.
Nth-order non-homogeneous linear differential equation: An equation of the form y^(n)+a_(n-1)y^(n-1)+...+a_0y=f(x) where a_0, ...,a_(n-1) are constants and f is a function of x.
Linear differential equation with variable coefficients: An equation of the form y''+p(x)y'+q(x)y=r(x) where p(x), q(x), and r(x) are functions of x.
Homogeneous linear differential equation with constant coefficients: An equation of the form ay''+by'+cy=0 where a,b, and c are constants.
Non-homogeneous linear differential equation with constant coefficients: An equation of the form ay''+by'+cy=f(x) where a,b, and c are constants.
Cauchy-Euler differential equation: A differential equation of the form x^2y''+pxy'+qy=0.
"An ordinary differential equation (ODE) is a differential equation (DE) dependent on only a single independent variable."
"The term 'ordinary' is used in contrast with partial differential equations which may be with respect to more than one independent variable."
"Its unknown(s) consists of one (or more) function(s) and involves the derivatives of those functions."
"[An ODE] is dependent on only a single independent variable."
"Its unknown(s) consists of one (or more) function(s) and involves the derivatives of those functions."
"Its unknown(s) consists of one (or more) function(s)..."
"It is a differential equation dependent on only a single independent variable."
"Partial differential equations which may be with respect to more than one independent variable."
"[An ODE's] unknown(s) consists of one (or more) function(s)..."
"The term 'ordinary' is used in contrast with partial differential equations..."
"[An ODE's unknown(s)] involves the derivatives of those functions."
"[An ODE's unknown(s)] involves the derivatives of those functions."
"[An ODE] is dependent on only a single independent variable."
"Yes, in mathematics, an ordinary differential equation..."
"[ODEs] may be with respect to more than one independent variable."
"[ODEs] consists of one (or more) function(s)."
"[ODEs' unknown(s)] involves the derivatives of those functions."
"The term 'ordinary' is used in contrast with partial differential equations..."
"[ODEs] is dependent on only a single independent variable."
"In mathematics, an ordinary differential equation..."