THE TRIG-INTEGRAL‑CALCULUS‑GENERATOR

 

A software based calculation device to help students practice solving trigonometric integrals

Created by David Alderoty © 2011, e-mail David@TechForText.com

To contact the author use the above email address or

left click on these words for a website communication form.

 

This website provides, free of charge, the Trig-Integral-Calculus-Generator, which is a software based calculation device, designed to help students practice solving trigonometric integrals.  The Trig-Integral-Calculus-Generator is available for download in JavaScript, Microsoft Excel, and OpenOffice Calc.  In addition, there is an online version of the Trig-Integral-Calculus-Generator, embedded in this webpage, two paragraphs below. (The Excel and OpenOffice Calc versions require Microsoft Windows.  The online and downloadable JavaScript versions will function with any modern operating system, but it was only tested with Windows.)

If you want to download the Trig-Integral-Calculus-Generator, or want additional information, scroll all the way down, beneath the online version.  Alternatively, you can go to the table of contents of this website, by left clicking on these words.  If you want to go directly to the download section left click on these words.  If you want to go directly to the instructions for the Trig‑Integral‑Calculus‑Generator, left click on these words.  You should read the instructions before actually using this software.  If you want an online printer friendly version of the Trig‑Integral‑Calculus‑Generator left click on these words.

 

The Online Version of The Trig‑Integral‑Calculus‑Generator, is Presented Below, and It Functions Directly From this Website.

  
Trig-Integral-Calculus-Generator
Designed to Help Students Practice Solving Trigonometric Integrals
Created by David Alderoty © 2011, e-mail David@TechForText.com
    Enter numbers for angles B and A in the white boxes below, and this software will generate twelve trigonometric integrals, for you to solve. You can enter the numbers for the angles, in either radians or degrees. If you want to enter radians, use the white boxes on the left, but if you want to enter degrees use the boxes on the right. When numbers are entered in radians, this software was designed to calculate it in terms of a fraction or multiple ofPI. Examples are: if you enter 2, the software calculates it as 2pi radians (=360°), if you enter 1 it is calculated as 1pi (=180°), if you enter 0.5 it is calculated as 0.5pi, (=90°) etc.    
       
                                   
   
  Angle INPUT BOX FOR RADIANS, (in terms of a fraction or multiple of pi ) THIS INPUT BOX IS FOR DEGREES ONLY    
  B =    
   
   
                                   
   
  Angle INPUT BOX FOR RADIANS, (in terms of a fraction or multiple of pi ) THIS INPUT BOX IS FOR DEGREES ONLY    
  A =    
   
   
                                   
  All the numbers that are calculated by this software are automatically  
  rounded to decimal places. You can change this, by deleting    
   
  number of decimal places you prefer, in the same input box.  
                                                                        
                                   
                                   
        Problem 1  
                                 
                                 
      sin(Q)dQ =  
             
             
             
       
   
                                   
                                   
        Problem 2  
                                 
                                 
      cos(Q)dQ =  
             
             
             
       
   
                                   
                                   
        Problem 3  
                                   
                                   
      sin(Q)2dQ =  
               
               
               
       
   
                                   
                                   
      Problem 4  
                                   
                                   
        cos(Q)2dQ=  
               
               
             
       
   
                                   
                                   
    Problem 5  
                                   
                                   
    cos(Q)+sin(Q)dQ =  
               
             
           
       
   
                                   
                                   
      Problem 6  
                                   
                                   
    cos(Q)+sin(Q)2dQ =  
               
               
             
       
   
                                   
                                   
      Problem 7  
                                   
                                   
    cos(Q)2+sin(Q)2dQ =  
               
               
             
       
   
                                   
                                   
      Problem 8  
                                   
                                   
    cos(Q)sin(Q)dQ =  
               
               
             
       
   
                                   
                                   
        Problem 9  
                                 
                                 
      sin(Q)3dQ=  
             
             
               
       
   
                                   
                                   
        Problem 10  
                                 
                                 
      cos(Q)3dQ =  
             
             
               
       
   
                                   
                                   
        Problem 11  
                                   
                                   
      sin(Q)4dQ =  
               
               
               
       
   
                                   
                                   
        Problem 12  
                                 
                                 
      cos(Q)4dQ =  
             
             
               
       
   

                                                                                         

 

Downloads and Related Information

 

Three Steps for Downloading

 

Step 1) Left click with the mouse on a blue download *link, for the Trig-Integral-Calculus-Generator and a dialog box will open, with an option to save the file. *Note the download links are located in the next subsection.

 

Step 2) Save the file on the Windows Desktop or in the Documents Folder, or anywhere else on your computer, where you can easily locate the file’s icon.  Keep in mind that after you downloaded the file, you must locate the file's icon on your computer.

 

Step 3) The file's icon can be moved after downloading to any location on your computer, with the windows cut and paste function.  You should move the icon to a location on your computer where you can easily find it.  For most people, the best place to store these files is in the Documents Folder (also called the My Documents in some versions of Windows).

 

An alternative to the above three steps, is to download the Trig-Integral-Calculus-Generator in a zipped folder.  To do this left click on a link with the words: zipped folder.  With this method, most browsers display the files icon as soon as the download is completed.  Then you can use the Windows cut and paste function, to place the file anywhere you want on your computer.

 

If you need additional information on downloading, left click on the Google search link, below:

 

Google Search:[How to download files from the Internet]

 

 

Download Links, for the Microsoft Excel Format

 

If you want the Trig-Integral-Calculus-Generator in the Microsoft Excel format, left click on these words.  This requires Microsoft Excel 2003 or later versions, and Windows.  (It might also work with Excel 2000).

 

If you want the above in a zipped folder, left click on these words.

 

If you want the Trig-Integral-Calculus-Generator, in the newer Microsoft Excel format, left click on these words.  This requires Microsoft Excel 2007, 2010 or later versions, and Windows.

 

If you want the above in a zipped folder, left click on these words.

 

If you want the Trig-Integral-Calculus-Generator that was used to create the JavaScript version, left click on these words.  This requires Microsoft Excel 2007, 2010 or later versions, and Windows.

 

If you want the above in a zipped folder left click on these words.

 

 

Download Links, for the OpenOffice Calc Format

 

If you do not have Microsoft Excel on your computer, the best alternative is to use OpenOffice Calc, for the Trig-Integral-Calculus-Generator.  To do this, you must first obtain the FREE OpenOffice.org software package, which provides almost the same functionality as Microsoft Excel, Word, PowerPoint and Access.  The OpenOffice.org software package is open-source, and you can download it from the following website: www.OpenOffice.org

 

If you want the Trig-Integral-Calculus-Generator, in the OpenOffice Calc format, left click on these words.  This is only available in a zipped folder, and it requires the free OpenOffice.org software package, as well as Microsoft Windows.

 

 

Download Links, for the JavaScript Version

 

If you do not have Microsoft Windows on your computer, you can use the JavaScript version of the Trig-Integral-Calculus-Generator.  The JavaScript version should work with most modern operating systems, but it was only tested with Windows.

 

The following two JavaScript versions are in the Web Archive, Single file, format, and they were converted to this format with the save function in Internet Explorer.  This file format is different than the conventional HTML, and it has the extension .mht.  The primary advantage of this file format is it combines the graphics and computer code into one file.  With conventional HTML, the graphics can easily get disconnected from the file, if it is not carefully stored in one folder.   Web Archive, Single file is supported by most of the popular browsers, such as Firefox, Chrome, and Opera, but I was unable to open this file format with SeaMonkey, version 2.  It will be easier to download the following two JavaScript files, in a zipped folder, if you are not familiar with the save function in your browser.

 

If you want to download the Trig-Integral-Calculus-Generator, in the JavaScript format, left click on these words.  When the file opens you must save it with the save function in your browser, as Web Archive, Single file.   These additional steps are unnecessary if you download the file in a zipped folder

 

If you want the above in a zipped folder, left click on these words.

 

 

If you want to download a printer friendly version,( without background colors) of the Trig-Integral-Calculus-Generator, in the JavaScript format, left click on these words.  When the file opens you must save it with the save function in your browser, as Web Archive, Single file.  These additional steps are unnecessary if you download the file in a zipped folder

 

If you want the above in a zipped folder, left click on these words.

 

 

If you want to open an online version of the Trig-Integral-Calculus-Generator, in the JavaScript format, left click on these words.  This is in conventional HTML format.

 

If you want to download the above in a zipped folder left click on these words.

 

Download Link, for All of the above, in One Zipped Folder

 

If you want all of the above in one zipped folder, including Excel, Calc, and JavaScript versions of the Trig-Integral-Calculus-Generator, left click on these words.

                                                              

 

GENERAL DESCRIPTION AND INSTRUCTIONS

 

Software and Computer Requirements for the Trig‑Integral‑Calculus‑Generator

 

All the versions of the Trig-Integral-Calculus-Generator, are less than 1 MB.  Thus, this software requires very little computer resources, and it should function well even with the older computers.  However, the Excel and OpenOffice Calc versions of the Trig-Integral-Calculus-Generator, require Microsoft Windows.  The online version and the downloadable JavaScript version should work with any modern operating system, providing it has an Internet browser that supports JavaScript.  Almost all browsers currently available provide the needed JavaScript functionality, to operate the Trig-Integral-Calculus-Generator.  Thus, the online and JavaScript version should work with Macintosh, and Linux, with a JavaScript enabled browser, but it was only tested with Microsoft Windows. 

 

The Primary Purpose, of the Trig‑Integral‑Calculus‑Generator

 

The Trig-Integral-Calculus-Generator is designed for students that know the basic method of solving a trigonometric integral, but need practice to avoid errors, and to increases speed and efficiency with these calculations.  The Trig-Integral-Calculus-Generator is not designed to teach trigonometry or calculus, or to explain related mathematical principles.  If you need this type of instruction, you should carry out Google searches for VIDEOS for calculus, trigonometry, and for solving trigonometric integrals.

 

Functionality and Description of the Trig‑Integral‑Calculus‑Generator

 

The Trig‑Integral‑Calculus‑Generator, generates twelve math problems, involving trigonometric integrals, based on two numbers entered by the user.  These numbers are for two angles, designated as B and A, and they appear on each integral as illustrated in the following example:

With this example, the user entered 0.5pi Radians for angle B, and 0.25 pi radians for angle A. (Note, this example is an actual copy of an integral from the Trig-Integral-Calculus-Generator)

 

When the user (student) enters numbers, for angles B and A, the software instantaneously calculates the results for the twelve integrals.  However, these results are initially concealed from the user. 

 

The student’s job is to try to solve each integral with pencil and paper, and a calculator for the arithmetic and trigonometric functions.  After attempting to solve each integral, the user checks his/her calculations, with the results calculated by the software.  To do this there is a pull-down menu, highlighted in pink, under each integral.  The user left clicks on this menu, and moves it down one level, and the calculated results are displayed.  This mechanism is designed to reveal the results for one integral at a time. 

The Input Boxes, and Related Display Mechanisms for the Trig‑Integral‑Calculus‑Generator

 

There are input boxes on the top of the Trig-Integral-Calculus-Generator, where the user enters numbers for angles B and A.  The numbers can be entered in either degrees or radians.  When degrees are used, the numbers must be entered in the right input boxes, and when radians are used the numbers must be entered in the left input boxes.

 

When radians, are used with the Trig-Integral-Calculus-Generator, the angles are entered in terms of fractions or multiples of pi.  Examples are, if you enter 2, it is NOT two radians; it is 2pi radians, which is equal to 360°.  If you enter 1, it is not one radian it is 1pi radians, which is 180 degrees.  If you enter 0.5 it is 0.5pi, which is equal to 90°, etc.

 

I designed the above functionality into the software, because it simplifies the process of entering angles in radians.  For example, if you entered one revolution of a circle, or 360 degrees, in radians, using the conventional method, you would have to enter 6.283185307 radians.  For one half of a revolution (or 180 degrees) you would enter 3.141592654 radians, and for one quarter of a revolution (or 90 degrees) you would enter 1.570796327 radians, etc.  However, with the mechanism I built into this software, when you enter a number in the input box for radians, it is multiplied by pi.  This means when 2 is entered it is 2pi radians (or 360 degrees), when 1 is entered it is 1pi radians (or 180 degrees), etc.

 

Just under the input boxes there are two display boxes that show the angles that were entered by the user in both degrees and radians.  Thus, regardless of what the user enters, the display boxes will perform the necessary calculations to display both degrees in radians.  For example, if you enter 45°, the display box will show the following:

 

Unlike the display boxes, discussed above, the angles on the integrals in this software are always displayed in terms of pi radians, even if you entered both angles in degrees.  For example, if you entered 90° for angle B, and 45 degrees for angle A, all of the integrals will display the angles as follows:

 

Scientific Notation and the Trig‑Integral‑Calculus‑Generator

 

The Trig-Integral-Calculus-Generator may display very large and very small calculated results in scientific notation, using the letter e.  An example of a large number in this format is 4.4218961132108144e+116.  An example of a very small number displayed in this format is 2.5746740266666662e-130.  Extremely small numbers, such as the above might be rounded to zero by the software, because they are generally considered insignificant.

 

If you want to see very small numbers, in your calculated results, for whatever reason, there is a control mechanism on the upper portion of the Trig-Integral-Calculus-Generator, for setting the number of decimal places that are displayed.  The default is 5 decimal places.  Change this number to 300, which will totally eliminate the rounding function.  

 

The Trig‑Integral‑Calculus‑Generator is Very Easy to Use, as Explained in the Following Four Steps.

 

Step 1) Enter any two numbers you prefer for angles B and A, in the white input boxes, on the top of the Trig-Integral-Calculus-Generator.  You can enter the angles in degrees or radians.  *If you want to enter the angles in radians use the input box on the left, but if you want to enter the angles in degrees use the input box on the right.

 

With the numbers you enter, the software generates twelve math problems, involving trigonometric integrals, which you are to solve.  The software calculates the solution to each of these problems automatically, but the results are initially concealed.

                                

*Note  When angles are entered in radians, with this software, they are entered in terms of a fraction or multiple of PI.  Examples are if you enter 2, it is NOT 2 radians, it is 2pi radians,(= 360 degrees); if you enter 1, it is NOT 1 radian, it is 1pi radians, (= 180 degrees); if you enter 0.5 it is NOT 0.5 radians, it is 0.5pi radians (= 90 degrees).

 

 

Step 2) After entering the numbers in the white input boxes, scroll down and you will see twelve trigonometric integrals, which progressively increase in difficulty.  Your job is to try to solve each integral with pencil and paper.  To do this, you should have a list of the formulas needed to solve the integrals, and a scientific calculator.

 

A list of the formulas you need for the calculations is on this website, under the following heading:

 

A List of Formulas to Help You Solve the

Math Exercises Generated by the

Trig Integral Calculus Generator

 

To go directly to the List of Formulas left click on these words

 

If you do not have a handheld calculator, with trigonometric functions, you can use the calculator provided with the Microsoft Windows operating system.  The Windows calculator has a setting for a scientific calculator, and when it is set, the trigonometric functions are displayed on the keypad of the calculator.  With the version of Windows that I am working with, (Windows 7), the view menu (on the calculator) has the setting for the scientific calculator.

 

Another alternative is to use an online scientific calculator.  Links to three of these calculators are provided below:

 

http://www.calculateforfree.com/sci2.html

 

http://web2.0calc.com/

 

http://calculator.pro/Scientific_calculator_online.html

 

Step 3)  After attempting to solve each integral, check your calculations, with the software.  To do this, there is a pink pull-down menu, below each integral, to display calculated results.

 

A picture of the menu for the online and downloadable JavaScript versions of the Trig-Integral-Calculus-Generator is presented below:   

Left click anywhere on the menu, and it will open.  Then scroll down one level, until you see the words: The Calculated Result, Displayed Above in Red Type.  Left click on these words, and the menu will close.  If the above was carried out successfully, the menu will appear as follows, with the calculated results above it. 

 

The menus in the Excel and OpenOffice Calc versions, of the Trig-Integral-Calculus-Generator, function similar to the above.  A picture of this menu is presented below:        

To open this menu, it is necessary to left click once on the pink section, and again on the right section with the red cross.  When this is done, the menu opens, and as with the JavaScript version, move downward one level, to the words The Calculated Result, Displayed Above in Red Type  Left click on these words, and the menu will close, and the calculated results will be displayed.

 

Step 4) For each practice session, change the numbers in the white input boxes, if you want a set of twelve integrals that have calculated results that are different than the integrals in your previous practice session.  Keep in mind that multiple practice sessions are usually required to master a mathematical technique.

 

 

TRIGONOMETRIC INTEGRAL FORMULAS, AND RELATED CONCEPTS

 

The Formulas: Introduction

 

This section provides information about integral formulas that relate to the Trig-Integral-Calculus-Generator.  This includes a list of the formulas, to help you solve the trigonometric integrals displayed by the Trig-Integral-Calculus-Generator.  These formulas are indefinite integrals.  Some of these formulas are frequently illustrated in calculus classes and in mathematics books. 

 

If you are only interested in the formulas you need to solve the trigonometric integrals displayed by the Trig-Integral-Calculus-Generator, you can skip the following material, and go directly to the List of Formulas, by left clicking on these words

 

The Source: for the Integral Formulas Listed in This Section

 

The integral formulas listed in this section, were actually calculated by commercially available mathematics software, in symbolic notation.  This may sound strange to some of us, but modern mathematics software, can carry out calculations without numbers, to generate formulas.  For example, I entered:, and the software calculated .

However, the formulas calculated by the mathematics software are available from conventional reference sources dealing with calculus and trigonometry.  Nevertheless, some of the formulas presented in this section might be structured with trigonometric equivalents that are different then the formulas you have in your reference sources, or the formulas you are familiar with.

I simplified some of the formulas calculated by the mathematics software, such as by adding several terms together into one fraction.  When this is the case, I present the formula calculated by the software first, followed by the formula with my modifications.

The mathematics software failed to calculate a constant, which is usually represented by the letter C, in all of the sources I have seen with indefinite integrals.  I corrected this with all of the formulas.  However, the C is not relevant for the problems that are generated by the Trig-Integral-Calculus-Generator.

 

Constant at the End of Indefinite Integrals

 

The above raises the question, why are constants placed at the end of an indefinite integral, such as   The answer to this question becomes obvious, if you think of the formulas as anti-derivatives.  When you take a derivative constants are calculated as zero.  A simplified example involves taking the derivative of the following: , which equals .  Now, if we attempt to reverse the procedure, by taking the anti-derivative of 6X, (without including a C at the end of the calculation) we get:   We did not obtain the original expression, when we reverse the procedure.  When a derivative of an expression is taken, information is lost as a result of the calculation.  To represent this potential or actual loss of information the anti-derivative can be calculated as   The C can represent any value, and with the above example we know that it represents 10. 

 

 

Creating the Spreadsheet Formulas, with the Indefinite Integrals, to Create the 

Trig-Integral-Calculus-Generator

 

The Trig-Integral-Calculus-Generator, was initially created in Microsoft Excel, then it was electronically converted to OpenOffice Calc, and JavaScript.  The OpenOffice Calc conversion was carried out with OpenOffice Calc software, and the conversion to JavaScript was performed with SpreadsheetConverter.

Thus, I had to create twelve spreadsheet formulas, one for each integral, which would function in Microsoft Excel.  To do this, I used the list of indefinite integrals presented below.  The basic idea of how this was done, can be illustrated with  as presented in the following simplified steps.  (These steps are presented to explain general principles, and many details are left out, to provide a brief and clear explanation.)

Step 1) The indefinite integral  was simplified by combining the fractions, which resulted in

 

Step 2) An integral based on the above, was written and solved in terms of angles B and A.  This resulted in the following:

 

Step 3) The result was simplified by adding the two fractions together, which resulted in the following: 

 

Step 4) A spreadsheet formula was created with the above.  For the spreadsheet formula, we only need the expression to the right of the equal sign, illustrated in red type above.  For spreadsheet formulas a / is used for division.  When the above is rewritten with a slash we get:

 

Step 5) The white input boxes, were renamed as B and A, with the renaming functionality, available in Microsoft Excel.  Before these input boxes were renamed, they had default cell designations as names.)  With the renaming technique I used, Microsoft Excel can interpret the meaning and value of B and A, by the numbers that are entered in the white input boxes, and calculate with the formula:

Without the above renaming procedure, Excel cannot interpret the meaning or value of B and A, and cannot calculate with any formula written with these letters. 

From the above, it is probably obvious that the spreadsheet versions of the integral formulas do NOT look like the conventional mathematics used to solve integrals.  However, they are in fact mathematically equivalent, but the notation used to write spreadsheet formulas is different than the conventional way of writing mathematical expressions.

If you want to see the spreadsheet formulas that I created for the Trig-Integral-Calculus-Generator, look under each integral, when the calculated results are displayed.  You will see the words spreadsheet formula followed by the actual spreadsheet formula.  When the spreadsheet formula is excessively long, the words spreadsheet formula are abbreviated. (Note when a calculated result is concealed by the Trig-Integral-Calculus-Generator, the related spreadsheet formula is also concealed.)

 

A List of Formulas to Help You Solve the Math Exercises Generated by the Trig‑Integral‑Calculus‑Generator

 

The formulas listed below are presented sequentially, to coincide with the numbering for each problem on the Trig-Integral-Calculus-Generator.

 

__________________________________

 Needed For Problem 1

 

__________________________________

Needed For Problem 2

 

__________________________________

Needed For Problem 3

 

 

 

__________________________________

Needed For Problem 4

 

 

OR

 

__________________________________

Needed For Problem 5

 

__________________________________

Needed For Problem 6

 

 

OR

 

__________________________________

Needed For Problem 7

 

__________________________________

Needed For Problem 8

 

 

OR

 

__________________________________

Needed For Problem 9

 

 

OR

 

__________________________________

Needed For Problem 10

 

 

OR

 

__________________________________

Needed For Problem 11

 

 

OR

 

__________________________________

Needed For Problem 12

 

 

OR

 

__________________________________

 

 

 

 

The Design Concepts, and Services Offered by the Author

 

Design Concept to Maximize User‑Friendliness: For the Website and For The Trig-Integral-Calculus-Generator

 

I designed the Trig-Integral-Calculus-Generator, and this website, in a way that would maximize efficiency and ease-of-use.  The Trig-Integral-Calculus-Generator has instructions placed next to related input cells, and it is laid out with a simple structure, with large fonts.  The website similarly has large fonts, with a similar structure, and clearly written instructions.  For example, the download links on this website contain precise wording, to prevent confusion, such as: If you want the Trig-Integral-Calculus-Generator in the Excel format, left click on these words.

 

The website is on one long webpage.  This provides the convenience of scrolling down or up, from one section to another, and it avoids the unnecessary complexity of pull-down menus, and links to go from one page to another.  However, I provided a hyperlink table of contents as an alternative way of navigating the website.

 

Some of the material on this website is technical.  Thus, for an optimum level of comprehension, the reader IDEALLY should have an advanced background in spreadsheets software, coupled with knowledge of programming concepts and calculus.  However, I structured each sentence with the goal of minimizing confusion, and maximizing comprehension, for users with varying levels of technical knowledge.  In this regard, perfection is never possible, because users come from diverse technical, cultural, and linguistic backgrounds.

 

I provided many headings and subheadings throughout this text.  This allows the user to easily skip material that they find difficult, or uninteresting.  The headings and subheadings are also displayed in the table of contents.

 

Services Offered by the Author David Alderoty

 

I design and build user-friendly software based calculation devices for arithmetic, accounting, currency exchange rates, algebra, trigonometry, correlations, calculus, and databases with built-in calculation devices.  I also create attractive online calculation devices for websites.  I generally make these devices in the Microsoft Excel, OpenOffice.org, and the JavaScript formats, but I can work with other spreadsheet formats besides the above.  I also create web communication forms in JavaScript for websites.  This includes forms with built-in calculation devices.  For a list of websites with calculation devices that I created, left click on these words, or go to the following website: www.TechForText.com/Math

 

I write instructions for the devices I build.  I can also write instructions for software and computer devices created by others.  In addition, I can write advertising for your websites, products and services. 

 

I can provide the services mentioned above on a fee-for-service basis, or possibly based on temporary or permanent employment.  If you are interested in my services, and want additional contact information or more data on the services I offer, you can email me at David@TechForText.com or use a website communication form, by left clicking on these words.

 

For a list of all the services I offer see www.TechForText.com  For a list of all my websites see www.David100.com  My resume is online at: www.David100.com/R

 

My name is David Alderoty, and I am located in the USA, New York City.  If you are a great distance from my locality or are in another country, this is not important.  I can provide the above services worldwide, because the software and the writing services I offer can be delivered through the Internet to any locality, providing there are no governmental restrictions.

 

 

 

 

 

Introduction to The Hyperlink Table of Contents of this Website

This website is more or less laid out like a book, but it is on one long webpage.  You can scroll up or down to go from one topic to another.  However, if you want to examine all the sections and subsections of this website, use the hyperlink table of contents, below this paragraph.  To go to any section or subsection of this website you can left click on the blue words that relate to the material you want to read.  The yellow highlighted words are sections, and the un-highlighted words are subsections. 

If you want to go to the top of the website, left click on these words.


Table of Contents of this Website

Contents

THE TRIG-INTEGRAL‑CALCULUS‑GENERATOR  1

The Online Version of The Trig‑Integral‑Calculus‑Generator, is Presented Below, and It Functions Directly From this Website. 4

Downloads and Related Information 19

Three Steps for Downloading. 19

Download Links, for the Microsoft Excel Format 22

Download Links, for the OpenOffice Calc Format 23

Download Links, for the JavaScript Version  24

Download Link, for All of the above, in One Zipped Folder 28

GENERAL DESCRIPTION AND INSTRUCTIONS  28

Software and Computer Requirements for the Trig‑Integral‑Calculus‑Generator 28

The Primary Purpose, of the Trig‑Integral‑Calculus‑Generator 30

Functionality and Description of the Trig‑Integral‑Calculus‑Generator 31

The Input Boxes, and Related Display Mechanisms for the Trig‑Integral‑Calculus‑Generator 33

Scientific Notation and the Trig‑Integral‑Calculus‑Generator 37

The Trig‑Integral‑Calculus‑Generator is Very Easy to Use, as Explained in the Following Four Steps. 38

TRIGONOMETRIC INTEGRAL FORMULAS, AND RELATED CONCEPTS. 45

The Formulas: Introduction. 45

The Source: for the Integral Formulas Listed in This Section. 47

Constant at the End of Indefinite Integrals  49

Creating the Spreadsheet Formulas, with the Indefinite Integrals, to Create the. 51

Trig-Integral-Calculus-Generator 51

A List of Formulas to Help You Solve the Math Exercises Generated by the Trig‑Integral‑Calculus‑Generator 57

The Design Concepts, and Services Offered by the Author 61

Design Concept to Maximize User‑Friendliness: For the Website and For The Trig-Integral-Calculus-Generator 61

Services Offered by the Author David Alderoty  64