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Engineering Mathematics

Engineering Mathematics: ordinary and partial differential equations, Laplace and Fourier transforms, vector calculus, complex analysis, and numerical methods for solving engineering models.

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Classifying differential equations and initial value problemsStart module 1Starting Check for this course (6 questions)

Grade University

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  1. Up nextModule 1 · Ordinary Differential EquationsClassifying differential equations and initial value problems
  2. Not startedModule 2 · Ordinary Differential EquationsDirection fields and the behavior of solutions
  3. Not startedModule 3 · Ordinary Differential EquationsExistence, uniqueness, and the interval of a solution
  4. Not startedModule 4 · Ordinary Differential EquationsSeparable equations
  5. Not startedModule 5 · Ordinary Differential EquationsFirst-order ODEs and integrating factors
  6. Not startedModule 6 · Ordinary Differential EquationsExact equations and integrating factors
  7. Not startedModule 7 · Ordinary Differential EquationsBernoulli and homogeneous substitutions
  8. Not startedModule 8 · Ordinary Differential EquationsGrowth, decay, and mixing
  9. Not startedModule 9 · Ordinary Differential EquationsLogistic and autonomous models
  10. Not startedModule 10 · Ordinary Differential EquationsHomogeneous equations with constant coefficients
  11. Not startedModule 11 · Ordinary Differential EquationsThe Wronskian and fundamental sets of solutions
  12. Not startedModule 12 · Ordinary Differential EquationsNonhomogeneous equations: undetermined coefficients
  13. Not startedModule 13 · Ordinary Differential EquationsNonhomogeneous equations: variation of parameters
  14. Not startedModule 14 · Ordinary Differential EquationsHigher-order linear equations
  15. Not startedModule 15 · Ordinary Differential EquationsDamped second-order linear ODEs
  16. Not startedModule 16 · Ordinary Differential EquationsForced vibrations and resonance
  17. Not startedModule 17 · Ordinary Differential EquationsPower series solutions near an ordinary point
  18. Not startedModule 18 · Ordinary Differential EquationsRegular singular points and the Frobenius method
  19. Not startedModule 19 · Ordinary Differential EquationsBessel's and Legendre's equations
  20. Not startedModule 20 · Ordinary Differential EquationsIntroduction to the Laplace transform
  21. Not startedModule 21 · Ordinary Differential EquationsSolving initial value problems with the Laplace transform
  22. Not startedModule 22 · Ordinary Differential EquationsThe Heaviside step function and the Dirac delta
  23. Not startedModule 23 · Ordinary Differential EquationsSystems of differential equations (matrix methods)
  24. Not startedModule 24 · Ordinary Differential EquationsLinear systems and elimination
  25. Not startedModule 25 · Ordinary Differential EquationsFundamental matrices and the matrix exponential
  26. Not startedModule 26 · Ordinary Differential EquationsNonhomogeneous systems and variation of parameters
  27. Not startedModule 27 · Ordinary Differential EquationsThe phase plane and linearization
  28. Not startedModule 28 · Ordinary Differential EquationsStability and basic Lyapunov functions
  29. Not startedModule 29 · Advanced Vector CalculusScalar fields, vector fields, and the del (nabla) operator
  30. Not startedModule 30 · Advanced Vector CalculusDivergence and curl
  31. Not startedModule 31 · Advanced Vector CalculusLine integrals and work
  32. Not startedModule 32 · Advanced Vector CalculusGreen's theorem and Stokes' theorem
  33. Not startedModule 33 · Advanced Vector CalculusThe divergence theorem (Gauss's theorem)
  34. Not startedModule 34 · Fourier Series and Partial Differential EquationsFourier series
  35. Not startedModule 35 · Fourier Series and Partial Differential EquationsThe continuous Fourier transform
  36. Not startedModule 36 · Fourier Series and Partial Differential EquationsTwo-point boundary value problems
  37. Not startedModule 37 · Fourier Series and Partial Differential EquationsSturm–Liouville problems
  38. Not startedModule 38 · Fourier Series and Partial Differential EquationsSeparation of variables
  39. Not startedModule 39 · Fourier Series and Partial Differential EquationsThe one-dimensional heat equation
  40. Not startedModule 40 · Fourier Series and Partial Differential EquationsThe one-dimensional wave equation
  41. Not startedModule 41 · Applied Complex AnalysisComplex number algebra and phasors
  42. Not startedModule 42 · Applied Complex AnalysisAnalytic functions and the Cauchy–Riemann equations
  43. Not startedModule 43 · Applied Complex AnalysisComplex contour integration (Cauchy's integral theorem)
  44. Not startedModule 44 · Applied Complex AnalysisLaurent series and the residue theorem
  45. Not startedModule 45 · Applied Complex AnalysisConformal mapping
  46. Not startedModule 46 · Numerical MethodsSources of error and significant figures
  47. Not startedModule 47 · Numerical MethodsError propagation and numerical stability
  48. Not startedModule 48 · Numerical MethodsBracketing methods (bisection and regula falsi)
  49. Not startedModule 49 · Numerical MethodsOpen methods (Newton–Raphson and secant)
  50. Not startedModule 50 · Numerical MethodsGaussian and Gauss–Jordan elimination
  51. Not startedModule 51 · Numerical MethodsLU decomposition
  52. Not startedModule 52 · Numerical MethodsIterative methods (Jacobi and Gauss–Seidel)
  53. Not startedModule 53 · Numerical MethodsPolynomial interpolation
  54. Not startedModule 54 · Numerical MethodsLeast squares regression
  55. Not startedModule 55 · Numerical MethodsNumerical differentiation
  56. Not startedModule 56 · Numerical MethodsNumerical integration
  57. Not startedModule 57 · Numerical MethodsEuler's and Heun's methods
  58. Not startedModule 58 · Numerical MethodsThe fourth-order Runge–Kutta method