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Lopez C.P. - Integral Calculus and Differential Equations using Mathematica

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Cesar Perez Lopez, 2016. 223 p. ASIN: B01AOOGXMAThis book provides all the material needed to work on Integral Calculus and Differential Equations using Mathematica. It includes techniques for solving all kinds of integral and its applications for calculating lengths of curves, areas, volumes, surfaces of revolution With Mathematica is possible solve ordinary and partial differential equations of various kinds, and systems of such equations, either symbolically or using numerical methods (Eulers method,, the RungeKutta method,). It also describes how to implement mathematical tools such as the Laplace transform, orthogonal polynomials, and special functions (Airy and Bessel functions), and find solutions of differential equations in partial derivatives.Practical Introduction To Mathematica
Calculation Numeric With Mathematica
Symbolic Calculation With Mathematica
Graphics With Mathematica
Mathematica And The Programming
Integration And Applications
Indefinite Integrals
Integration By Substitution (Or Change Of Variables)
Integration By Parts
Integration By Reduction And Cyclic Integration
Definite Integrals. Curve Arc Length, Areas, Volumes And Surfaces Of Revolution. Improper Integrals
Definite Integrals
Curve Arc Length
The Area Enclosed Between Curves
Surfaces Of Revolution
Volumes Of Revolution
Curvilinear Integrals
Improper Integrals
Parameter Dependent Integrals
The Riemann Integral
Integration In Several Variables And Applications. Areas And Volumes. Divergence, Stokes And Greens Theorems
Areas And Double Integrals
Surface Area By Double Integration
Volume Calculation By Double Integrals
Volume Calculation And Triple Integrals
Greens Theorem
The Divergence Theorem
Stokes Theorem
First Order Differential Equations. Separates Variables, Exact Equations, Linear And Homogeneous Equations. Numeriacal Methods
Separation Of Variables
Homogeneous Differential Equations
Exact Differential Equations
Linear Differential Equations
Numerical Solutions To Differential Equations Of The First Order
High-Order Differential Equations And Systems Of Differential Equations
Ordinary High-Order Equations
Higher-Order Linear Homogeneous Equations With Constant Coefficients
Non-Homogeneous Equations With Constant Coefficients. Variation Of Parameters
Non-Homogeneous Linear Equations With Variable Coefficients. Cauchy-Euler Equations 6
The Laplace Transform
Systems Of Linear Homogeneous Equations With Constant Coefficients
Systems Of Linear Non-Homogeneous Equations With Constant Coefficients
Higher Orden Differential Equations And Systems Using Approximation Methods. Differential Equations In Partial Derivatives
Higher Order Equations And Approximation Methods
The Euler Method
The RungeKutta Method
Differential Equations Systems By Approximate Methods
Differential Equations In Partial Derivatives
Orthogonal Polynomials
Airy And Bessel Functions

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Integral Calculus and Differential Equations usingMATHEMATICACSAR PREZ LPEZ
INDEX
Chapter 1. PRACTICALINTRODUCTION TO MATHEMATICA

1.1 Calculation NUMERIC with MATHEMATICA
We can use Mathematica as apowerful numerical computer. Most calculators handle numbers only with a degreeof precision preset, however Mathematica makes exact calculations withprecision which is necessary. In addition, unlike calculators, we can performoperations not only with individual numbers, but also with objects such asarrays. Most of the themes of theclassical numerical calculus, are treated in this software. It supports matrixcalculus, statistics, interpolation, fit by least squares, numericalintegration, minimization of functions, linear programming, numerical algebraicand differential equations resolution and a long list of processes of numericalanalysis that we'll see as the successive issues of this book.

Here are some examples ofnumerical calculus with Mathematica. (As we all know, to get the resultsnecessary type mayusculas+enter once written corresponding expressions) (1) We can simply calculate4 + 3 and get as a result 7, to do this, just type 4 + 3 (and then shift +Enter). In[1]: = 4 + 3Out[1] = 7 (2) Also we can get theexact value of 3 high at 100, without having previously set precision, just forthis purpose press 3 ^ 100. In[2]: = 3 ^ 100Out[2] = 515377520732011331036461129765621272702107522001 (3) Also we can use the Nfunction to pass the result of the operation immediately prior to scientificnotation. To do this, type N [%] (symbol % we use to refer to the immediatelypreceding calculation). In[3]: = N [%]Out[3] = 5.153775207320114 10 (4) Also we can performoperations with a fixed degree of precision.

If we find the square root of 5 with25 digits, simply enter the expression N [Sqrt [5], 25]. In[4]: = N [Sqrt [5], 25]Out[4] = 2.2360679774997896964091737 (5) Also we can work withcomplex numbers. We will get the result of the operation (2 + 3i) raised to 10,by typing the expression (2 + 3I) ^ 10. In[5]: = (2 + 3 * I) ^ 10Out[5] = 341525 145668 I (6) Also we can calculatethe value of the Bessel function in section 13.5. This type BesselJ [0,13.5]. In[6]: = BesselJ [0, 13.5]Out[6] = 0.2149891658804008 (7) Also can calculate thevalue of Rieman function Z at the point (1/2 + 13i) with 15 digits.

Just pressN [Zeta [1/2 + 13I], 15]. IIn[7] := N[Zeta[1/2 + 13*I], 15]Out[7] = 0.4430047825053677 0.6554830983211705 (8) Also we can performnumeric integrals. To calculate the integral between 0 and p of (SIN(x)) sine function type expressionNIntegrate [Sin [no [x]], {x, 0, Pi}]. In [8]: =NIntegrate [Sin [no [x]], {x, 0, Pi}]Out[8] = 1.78648748195006 . These themes will betreated more thoroughly in successive chapters throughout the book.

1.2 SYMBOLIC Calculation with MATHEMATICA
Mathematica perfectlyhandled the symbolic mathematical computation, manipulating formulae andalgebraic expressions easily and quickly and can perform the majority ofalgebraic operations.

You can expand, factor and simplify polynomials andrational and trigonometric expressions, you can find algebraic solutions ofpolynomial equations and systems of equations, can evaluate derivatives andintegrals symbolically and find functions solution of differential equations,you can manipulate powers, limits and many other facets of algebraicmathematics series. Here are some examples ofsymbolic computation with Mathematica. 1) We can raise the bucketthe following algebraic expression: (x + 1) (x+2) (x+2) ^ 2. This is done bytyping the following expression: Expand [((x + 1) (x+2) (x+2) ^ 2) ^ 3]. Theresult will be another algebraic expression: In[1]: = Expand [((x + 1) *(x + 2) (x + 2) ^ 2) ^ 3]2 3Out[1] = 8- 12 x- 6 x- x 2) We can factor the resultof the calculation on the previous example by typing Factor [%] In[2]: = Factor [%]Out[2] = (2 + x) 3) We can resolve theindefinite integral of the function (x ^ 2) Sin(x) ^ 2 by typing Integrate [x ^2 Sin [x] ^ 2 x] In[3]:= Integrate[x^2*Sin[x]^2, x]Out[3]=3 2x x Cos[2 x] (1- 2 x) Sin [2 x]--- -------------+ -----------------------6 4 8 4) We can find the derivativeof the result of the integral above by typing D [% x] In[4]:= D[%, x] Out[4]= 2 2x Cos[2 x] (1 - 2 x ) Cos[2 x]--- -------------+-----------------------2 4 4 5) We can simplify theresult of the derivative before typing Simplify [%] In[5]:= Simplify[%]2 2Out[5]= x Sin[x] 6) We can develop in powerof order 14 series the result from the previous example by typing Series [% {x,0.14}] In[6]:= Series[%, {x, 0, 14}]Out[6]=6 8 10 12 144 x 2 x x 2 x 2 x 15x - -- + ---- - -----+-------- - ----------+ O[x]3 45 315 14175 467775 7) We can solve the equation 3ax - 7 x^ 2 + x ^ 3 = 0 (a, is a parameter) by typing Solve [3ax 7 x ^ 2 + x ^ 3 = 0] In[7]:= Solve[3*ax - 7*x^2 + x^3 == 0, x]Out[7]=1/37 49 2{{x->-- + ------------------------------------------------------------------+3 2 1/33 (686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )2 1/3(686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )+ ---------------------------------------------------------------},1/33 21/37 I -49 2{x-> - + - Sqrt[3] (----------------------------------------------------------+3 2 2 1/33(686-81ax+9Sqrt[-1372ax+81ax ] )2 1/3(686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )+ -----------------------------------------------------------------)-1/33 21/349 2- (---------------------------------------------------------------------+2 1/33 (686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )2 1/3(686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )+ ------------------------------------------------------------------)/ 2},1/33 21/37 I -49 2{x-> - - - Sqrt[3] (--------------------------------------------------------+3 2 2 1/33 (686-81ax+9 Sqrt[-1372ax+81ax ] )2 1/3(686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )+ ------------------------------------------------------------------)-1/33 21/349 2- (-----------------------------------------------------------------------+2 1/33 (686 - 81 ax + 9 Sqrt[-1372 ax + 81 ax ] )2 1/3(686 81 ax + Sqrt 9 [1372 ax + 81 ax])+ -----------------------------------------------------------------)/ 2}}1/33 2 8) We can find five complex solutionsof the equation x ^ 5 + 2 x + 1 = 0 by typing NSolve [x ^ 5 + 2 x + 1 = 0, x] In[8]:= NSolve[x^5 + 2*x + 1 == 0, x]Out[8]= {{x -> -0.7018735688558619 - 0.879697197929824 I},{x -> -0.7018735688558619 + 0.879697197929824 I},{x -> -0.486389035934543},{x -> 0.945068086823133 - 0.854517514439046 I},{{x > 0.945068086823133 + 0.854517514439046 I}} 9) We can generate a matrix3 x 3 whose (i, j) element is 1 / (i+j+1) by typing m = Table [1 / (i + j + 1),{i, 3}, {j, 3}] In[9]:= m = Table[1/(i + j + 1), {i, 3}, {j, 3}]Out[9] = {{1/3, 1/4, 1/5}, {1/4, 1/5, 1/6}, {1/5, 1/6, 1/7}} 10) We can invert thematrix above, typing Inverse [m] In[10]: = Inverse [m]Out[10] = {{300, 900, 630}, {900, 2880, 2100}, {630, 2100, 1575}} 11) We can find thedeterminant of the matrix m xIdentidad (3.3) tecleando Det[ m - xIdentityMatrix[3] ] In[11]:= Det[m - x*IdentityMatrix[3]]2 3Out[11] = (1 4755 x + 255600 x - 378000 x ) / 378000 12) We can find all thepermutations of the three elements {e, f, g} tecleando Permutations[{e, f, g}]

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