Metadata-Version: 2.1
Name: ganit
Version: 0.1.1
Summary: Ganit(गणित) means Calculation in Sanskrit. As the name suggests this is a calculation utility
Home-page: https://github.com/Palash90/ganit/tree/master/python
Author: Palash Kanti Kundu
Author-email: me@palash90.in
License: UNKNOWN
Description: # Ganit (गणित)
        Ganit(गणित) means calculation in Sanskrit. As the name suggests, this is a calculation utility. This is a parser library implemented in python. The library takes as argument an expression, either infix or postfix and evaluates the expression and returns the result. It supports all major mathematical functions.
        
        The evaluator can take variable as argument. Evaluation of expression like `x^2 + y^3` is possible with this library. It can also take expression as variable. Or in other words, nested expression like `cos(x^2+y^2)^2 + sin(x^2+y^2)^2` is also possible. Or even evaluation of nested expression like `cos(y); y = sin(theta); theta=acos(sin(x)); x = 45` is possible, it actually evaluates `cos(sin(acos(sin(45))))` in this case. It starts from the innermost expression and gradually evaluates the outermost.
        
        Apart from evaluating the expression, parser can return prescanned expression. A prescanned expression is the one which converts an expression and changing multiple occurences of +/-. e.g. `-2` will be converted to `0-2` and `--2` to `0+2` or `---2` to `-2` and so on. Similar changes occur for multiple occurences of `+` as well.
        
        The parser can also return the postfix expression of a given infix expression. e.g. `2 * 4` will be returned as `2 4 *`.
        
        ## Usage
        ### pip install
        The module can be installed using pip with the following command-
        ```bash
        $ sudo pip install ganit
        ```
        ### Download Source Code
        The source code can be downloaded and the parser can be called directly in program.
        
        Once the package is downloaded, you can use the main `Parser` module from the package and use it in your application.
        
        ```python
        # import the library and the main parser module
        from ganit import Parser
        # Create an object of the parser
        p = Parser()
        print(p.prescan("2 * 4")) # It will print '2*4'
        print(p.convert("2 * 4")) # It will print '2 4 *'
        # Evaluate the expression
        print(p.evaluate("2*4")) # It will print '8'
        ```
        ## Evaluation
        The library can be used for 3 different tasks -
        * Prescanning of an expression
        * Conversion of infix to postfix
        * Evaluation of Infix/Postfix expression
        
        The library gives 5 predefined variables -
        1. e - Euler's Number
        1. pi - π
        1. tau - τ, the circle constant equal to 2*π, the ratio of a circle’s circumference to its radius.
        1. True - boolean True value to work with logic expressions
        1. False - boolean False value to work with logic expressions
        
        ### Prescanning of Expression
        If an infix expression is not properly embraced, finding the difference between negation and subtraction is difficult during infix to postfix conversion. So, before processing an infix notation, the library checks for occurences of minus/plus signs and tries to find what purpose the sign is used for.
        Below are some conversions happened during prescan-
         * '-2' is changed to '0-2'
         * '--2' is changed to '0+2'
         * '---2' is changed to '0-2'
         * '(-2)' is changed to '(0-2)'
         * '4*-7' is changed to '4*(0-7)'
        
        Similar logic is also applied for multiple occurences of '+' sign as well. Please check the 'Test' section for more details.
        
        The argument of prescan is the expression to be evaluated. A 'dict' object can also be passed as argument, which has a key "exp". The "exp" key of the 'dict' object holds the expression.
        
        This method does not check for validity of the expression. e.g. If you pass an expression with a variable and the variable is not passed, the method still succeeds and returns a changed expression.
        
        Following are some examples of  prescan
        
        ```python
        from ganit import Parser
        p = Parser()
        # prescan the infix expression
        print(p.prescan("2 * 4")) # It will print '2*4'
        # passing dict as expression
        d = {"exp": "2 * x"}
        print(p.prescan(d)) # It will print "2*x"
        print(p.prescan(2)) # It will print "2"
        print(p.prescan(3.14)) # It will print "3.14"
        ```
        
        ### Conversion of Infix to Postfix
        Before evaluating any expression, parser converts any infix notation to postfix notation, thus making the processing easier.
        
        This uses a slightly extended version of Shunting Yard algorithm. You can read more about this algorithm [here](https://en.wikipedia.org/wiki/Shunting-yard_algorithm)
        
        The convert method takes 2 arguments -
        1. The required exp argument, which can be either an 'int' or 'float' or 'str' object (where you do not need to pass any variables) or a 'dict' object containing keys "exp" and "variables".
        1. In case the first argument is 'str', a 'dict' object with all the variables can be passed to it. If the first object is 'dict' object, the second argument is ignored.
        
        This method checks the validity of the passed infix expression but does not evaluate it.
        
        ```python
        from ganit import Parser
        p = Parser()
        # Convert only numeric or predefined variables like e, pi and tau
        print(p.convert("2 * 4")) # It will print '2 4 *'
        d = {"exp": "2*x", "variables": {"x":2}}
        print(p.convert(d)) # It will print '2 x *'
        print(p.convert(d, {"y": 2})) # It will print '2 x *'
        d = {"exp": "2*x", "variables": {"y":2}}
        print(p.convert(d)) # It will throw error as the variable 'x' is not passed as variable
        print(p.convert(d, {"x": 2})) # It will also throw an error, as the first object is of type dict, so second argument is ignored.
        print(p.convert("2*x", {"x": 2})) # It will print '2 x *'
        print(p.convert(2)) # It will print '2'
        print(p.convert(2, {"x": 2})) # It will print '2'. The second argument is ignored.
        print(p.convert("2 * pi")) # It will print '2 pi *'
        ```
        
        ### Evaluation of Infix/Postfix expression
        The actual evaluation happens here.
        
        The evaluate method has 3 arguments -
        1. The required exp argument, which can either be an 'int', a 'float' or a 'str' or a 'dict' object containing "exp", "variables", "convert" as keys. The expression passed to this method can also be a postfix notation.
        1. The second argument is a 'bool' value. This determines if the expression needs to be first converted to a postfix nontation or not. If an postfix notation is passed, this variable should be passed as False. The default value is True. If the first argument is of type 'dict', this value is ignored, even if passed.
        1. If the first argument is 'str', a 'dict' object with all the variables as keys can be passed to it. If the first object is 'dict' object, this argument is ignored.
        
        This method checks the validity of the passed postfix expression first, then proceeds with evaluation. If postfix notation is wrong, it does not perform any calculation.
        
        Evaluation can be done in nested fashion. So, an expression can contain a variable which in turn is another expression and the pattern go infinitely (or, till stack supports).
        
        ```python
        from ganit import Parser
        p = Parser()
        print(p.evaluate("2 * 4")) # It will print '8'
        print(p.evaluate("2 * x")) # It will throw error
        print(p.evaluate("2 * x", {"x": 2})) # It will print 4
        # A postfix notation is passed as argument
        print(p.evaluate("2 x *", False, {"x": 2})) # It will print 4
        # Nested Expression
        d = {"exp": "2 * x", "variables": { "x": {"exp": "2*y", "variables": {"y": 3}} }}
        p.evaluate(d) # it will print '12'
        # Nested postfix expression
        d = {"exp": "2 * x", "variables": { "x": {"exp": "2 y *", "convert": False, "variables": {"y": 3}} }}
        p.evaluate(d) # it will also print '12'
        ```
        
        ## Suppported functions
        ### Basic Arithmatic Operations
        1. `+` : Addition.
        1. `-` : Subtraction.
        1. `*` : Multiplication.
        1. `/` : Division.
        1. `%` : Modulus.
        1. `^` : Power.
        
        ### Algebric Operations
        1. `abs` : This is a function and takes only a parameter. It returns the absolute value of the parameter passed. e.g. `abs(-2) = 2`, `abs(2) = 2`
        
        ### Trigonometric Operations
        Incomplete --> Please check the Test Section for a complete understanding of all supported functions.
        
        ### Logical Operations
        1. `? :` : Ternary expression, this works pretty much like `if else` statement. If there is no need of an `else` statement, the `:` operation can be removed. But the `:` operation can only be used with `?`. So, any expression containing `:` but not containing `?` will throw an error. The use of this expression is as follows -
        ```
        <Condition>?<Statement to be evaluated if condition is True>:<Statement to be evaluated if condition is False>
        ```
        Or, you can remove the else part by removing `:`
        ```
        <Condition>?<Statement to be evaluated if condition is True>
        ```
        But the following will cause an error.
        ```
        :<Statement>
        ```
        1. `>`: Greater than.
        1. `<`: Less than.
        
        ## Todo
        - [x] Need to create pip package
        - [ ] Need to complete the documentation of all the supported functions
        - [ ] Need to complete the logical expressions group
        - [ ] Need to add support for Matrix Manipulation
        - [ ] Need to add support for vector mathematics
        - [ ] Need to add support for calculus
        - [ ] Need to make an AST which can make it portable to any language.
        - [ ] Need to write the AST and Ganit can be used on that platform (shell script, .net script (dll), Java, JavaScript etc.)
        - [ ] May be port this library to npm, maven etc.
        
        ## Test
        The following tests were performed on the parser. As and when new functions are added, this list gets bigger.
        
        Sl. No. | Original Exprression | Variables| Prescanned exprression | Postfix exprression | Postfix Result
        ------- | -------------------- | -------- | -----------------------| ------------------- | --------------
        1 | `-` | `No Variable` | `"Expresssion Error: ends with an operator - '-'"` | `"Expresssion Error: ends with an operator - '-'"` | `"Expresssion Error: ends with an operator - '-'"`
        2 | `-2` | `No Variable` | `-2` | `-2` | `-2`
        3 | `-9*-4` | `No Variable` | `0-9*(0-4)` | `0 9 0 4 - * - ` | `36`
        4 | `-2--7` | `No Variable` | `0-2+7` | `0 2 - 7 + ` | `5`
        5 | `2+-7` | `No Variable` | `2+(0-7)` | `2 0 7 - + ` | `-5`
        6 | `-(2*7*-7)-8` | `No Variable` | `0-(2*7*(0-7))-8` | `0 2 7 * 0 7 - * - 8 - ` | `90`
        7 | `-(2*7*-7)*-8` | `No Variable` | `0-(2*7*(0-7))*(0-8)` | `0 2 7 * 0 7 - *  0 8 - * - ` | `-784`
        8 | `-(2*7*-7)*(-8)` | `No Variable` | `0-(2*7*(0-7))*(0-8)` | `0 2 7 * 0 7 - *  0 8 - * - ` | `-784`
        9 | `-(2*7*-7)*cos(-8)` | `No Variable` | `0-(2*7*(0-7))*cos(0-8)` | `0 2 7 * 0 7 - * 0 8 - cos * - ` | `-14.259003313244127`
        10 | `-(2*7*(-7))*cos(-8)` | `No Variable` | `0-(2*7*(0-7))*cos(0-8)` | `0 2 7 * 0 7 - * 0 8 - cos * - ` | `-14.259003313244127`
        11 | `-(2*7*(-7))*atan(-8)` | `No Variable` | `0-(2*7*(0-7))*atan(0-8)` | `0 2 7 * 0 7 - * 0 8 - atan * - ` | `-141.75125056031723`
        12 | `-(2 + 7)` | `No Variable` | `0-(2+7)` | `0 2 7 + - ` | `-9`
        13 | `4 * -8` | `No Variable` | `4*(0-8)` | `4 0 8 - * ` | `-32`
        14 | ` 4*  - 8 ` | `No Variable` | `4*(0-8)` | `4 0 8 - * ` | `-32`
        15 | ` 2 *(-4 +8)` | `No Variable` | `2*(0-4+8)` | `2 0 4 - 8 + * ` | `8`
        16 | `1-4` | `No Variable` | `1-4` | `1 4 - ` | `-3`
        17 | `1 - 4 ` | `No Variable` | `1-4` | `1 4 - ` | `-3`
        18 | ` 4*8 - 2` | `No Variable` | `4*8-2` | `4 8 * 2 - ` | `30`
        19 | ` 4 -  +2` | `No Variable` | `4-2` | `4 2 - ` | `2`
        20 | ` 4 +  -2` | `No Variable` | `4+(0-2)` | `4 0 2 - + ` | `2`
        21 | `+++++` | `No Variable` | `` | `'Invalid Expression: '` | `'Invalid Expression: '`
        22 | `------` | `No Variable` | `"Expresssion Error: ends with an operator - '------'"` | `"Expresssion Error: ends with an operator - '------'"` | `"Expresssion Error: ends with an operator - '------'"`
        23 | `+` | `No Variable` | `` | `'Invalid Expression: '` | `'Invalid Expression: '`
        24 | `+2` | `No Variable` | `+2` | `+2` | `2`
        25 | `+9*+4` | `No Variable` | `9*4` | `9 4 * ` | `36`
        26 | `+2-+7` | `No Variable` | `2-7` | `2 7 - ` | `-5`
        27 | `2++7` | `No Variable` | `2+7` | `2 7 + ` | `9`
        28 | `+(2*7*+7)+8` | `No Variable` | `(2*7*7)+8` | ` 2 7 * 7 * 8 + ` | `106`
        29 | `+(2*7*+7)*+8` | `No Variable` | `(2*7*7)*8` | ` 2 7 * 7 * 8 * ` | `784`
        30 | `+(2*7*+7)*(+8)` | `No Variable` | `(2*7*7)*(8)` | ` 2 7 * 7 *  8 * ` | `784`
        31 | `+(2*7*+7)*cos(+8)` | `No Variable` | `(2*7*7)*cos(8)` | ` 2 7 * 7 * 8 cos * ` | `-14.259003313244127`
        32 | `+(2*7*(+7))*cos(+8)` | `No Variable` | `(2*7*(7))*cos(8)` | ` 2 7 * 7 * 8 cos * ` | `-14.259003313244127`
        33 | `+(2*7*(+7))*atan(+8)` | `No Variable` | `(2*7*(7))*atan(8)` | ` 2 7 * 7 * 8 atan * ` | `141.75125056031723`
        34 | `+(2 + 7)` | `No Variable` | `(2+7)` | ` 2 7 +  ` | `9`
        35 | `4 * +8` | `No Variable` | `4*8` | `4 8 * ` | `32`
        36 | ` 4*  + 8 ` | `No Variable` | `4*8` | `4 8 * ` | `32`
        37 | ` 2 *(+4 +8)` | `No Variable` | `2*(4+8)` | `2 4 8 + * ` | `24`
        38 | `1+4` | `No Variable` | `1+4` | `1 4 + ` | `5`
        39 | `1 + 4 ` | `No Variable` | `1+4` | `1 4 + ` | `5`
        40 | ` 4*8 + 2` | `No Variable` | `4*8+2` | `4 8 * 2 + ` | `34`
        41 | ` 4 +  +2` | `No Variable` | `4+2` | `4 2 + ` | `6`
        42 | `4+log(5)` | `No Variable` | `4+log(5)` | `4 5 log + ` | `4.698970004336019`
        43 | `` | `No Variable` | `` | `'Invalid Expression: '` | `'Invalid Expression: '`
        44 | `2+3-4/5*9` | `No Variable` | `2+3-4/5*9` | `2 3 + 4 5 / 9 * - ` | `-2.2`
        45 | `2+3*log(9)-` | `No Variable` | `"Expresssion Error: ends with an operator - '2+3*log(9)-'"` | `"Expresssion Error: ends with an operator - '2+3*log(9)-'"` | `"Expresssion Error: ends with an operator - '2+3*log(9)-'"`
        46 | `{'exp': '2*x-t*y', 'variables': {'x': 1, 't': 1}}` | `{'x': 1, 't': 1}` | `2*x-t*y` | `'Invalid input y'` | `'Invalid input y'`
        47 | `{'exp': '2*x-t*y', 'variables': {'y': 1, 'x': 1, 't': 1}}` | `{'y': 1, 'x': 1, 't': 1}` | `2*x-t*y` | `2 x * t y * - ` | `1`
        48 | `2*4-3` | `No Variable` | `2*4-3` | `2 4 * 3 - ` | `5`
        49 | `cos(5)` | `No Variable` | `cos(5)` | `5 cos ` | `0.28366218546322625`
        50 | `2.445*4-3.9*log(5, 10)` | `No Variable` | `2.445*4-3.9*log(5,10)` | `2.445 4 * 3.9 5 10  log * - ` | `'Invalid Postfix Notation: Stack not 1'`
        51 | `2*4-3*log(5, 10)` | `No Variable` | `2*4-3*log(5,10)` | `2 4 * 3 5 10  log * - ` | `'Invalid Postfix Notation: Stack not 1'`
        52 | `((((ln(1)+2)*3)-cos((sqrt(4)+5)))+(sqrt(ln((6*4)))+4))` | `No Variable` | `((((ln(1)+2)*3)-cos((sqrt(4)+5)))+(sqrt(ln((6*4)))+4))` | `  1 ln 2 + 3 *  4 sqrt 5 +  cos -  6 4 *  ln sqrt 4 + +  ` | `11.028807433280551`
        53 | `2*3-2*8*5/2%3*abs(-4)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * - ` | `2`
        54 | `2*3-2*8*5/2%3*abs(-4)*ceil(2)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2 ceil * - ` | `-2`
        55 | `2*3-2*8*5/2%3*abs(-4)*ceil(2)*factorial(2)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2)*factorial(2)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2 ceil * 2 factorial * - ` | `-10`
        56 | `factorial(2)*2*3-2*8*5/2%3*abs(-4)*ceil(2)` | `No Variable` | `factorial(2)*2*3-2*8*5/2%3*abs(0-4)*ceil(2)` | `2 factorial 2 * 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2 ceil * - ` | `4`
        57 | `2*3-2*8*5/2%3*abs(-4)*ceil(2.8)*factorial(2)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2.8)*factorial(2)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2.8 ceil * 2 factorial * - ` | `-18`
        58 | `2*3-2*8*5/2%3*abs(-4)*ceil(2.8)*factorial(2)*gcd(5,15)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2.8)*factorial(2)*gcd(5,15)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2.8 ceil * 2 factorial * 5 15  gcd * - ` | `-114`
        59 | `2*3-2*8*5/2%3*abs(-4)*ceil(2.8)*factorial(2)*gcd(5.2,15)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2.8)*factorial(2)*gcd(5.2,15)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2.8 ceil * 2 factorial * 5.2 15  gcd * - ` | `'Value Error: 15.0 , 5.2. GCD can only be determined for integers.'`
        60 | `2*3-2*8*5/2%3*abs(-4)*ceil(2.8)*factorial(1.2)*gcd(5,15)` | `No Variable` | `2*3-2*8*5/2%3*abs(0-4)*ceil(2.8)*factorial(1.2)*gcd(5,15)` | `2 3 * 2 8 * 5 * 2 / 3 % 0 4 - abs * 2.8 ceil * 1.2 factorial * 5 15  gcd * - ` | `'Value Error: 1.2. Factorial calculation can only be done for integers.'`
        61 | `2*3-2*8*5/2*exp(2)` | `No Variable` | `2*3-2*8*5/2*exp(2)` | `2 3 * 2 8 * 5 * 2 / 2 exp * - ` | `-289.56224395722603`
        62 | `2*pow(2,3)` | `No Variable` | `2*pow(2,3)` | `2 2 3  pow * ` | `16`
        63 | `2*pow(2,3)*sqrt(4)` | `No Variable` | `2*pow(2,3)*sqrt(4)` | `2 2 3  pow * 4 sqrt * ` | `32`
        64 | `2*pow(2,3)*log(1000)` | `No Variable` | `2*pow(2,3)*log(1000)` | `2 2 3  pow * 1000 log * ` | `48`
        65 | `2*pow(2,3)*log2(16)` | `No Variable` | `2*pow(2,3)*log2(16)` | `2 2 3  pow * 16 log2 * ` | `64`
        66 | `2*pow(2,3)*Log(16, 2)` | `No Variable` | `2*pow(2,3)*Log(16,2)` | `2 2 3  pow * 16 2  Log * ` | `64`
        67 | `2*pow(2,3)*ln(e^2)` | `No Variable` | `2*pow(2,3)*ln(e^2)` | `2 2 3  pow * e 2 ^ ln * ` | `32`
        68 | `-(2*7*-7)*sin(-8)` | `No Variable` | `0-(2*7*(0-7))*sin(0-8)` | `0 2 7 * 0 7 - * 0 8 - sin * - ` | `-96.95710816909141`
        69 | `-(2*7*-7)*tan(-8)` | `No Variable` | `0-(2*7*(0-7))*tan(0-8)` | `0 2 7 * 0 7 - * 0 8 - tan * - ` | `666.3717226115972`
        70 | `-(2*7*-7)*sinh(-8)` | `No Variable` | `0-(2*7*(0-7))*sinh(0-8)` | `0 2 7 * 0 7 - * 0 8 - sinh * - ` | `-146066.92492737592`
        71 | `-(2*7*-7)*cosh(-8)` | `No Variable` | `0-(2*7*(0-7))*cosh(0-8)` | `0 2 7 * 0 7 - * 0 8 - cosh * - ` | `146066.95780271344`
        72 | `-(2*7*-7)*tanh(-8)` | `No Variable` | `0-(2*7*(0-7))*tanh(0-8)` | `0 2 7 * 0 7 - * 0 8 - tanh * - ` | `-97.99997794310823`
        73 | `-(2*7*-7)*atan(-8)` | `No Variable` | `0-(2*7*(0-7))*atan(0-8)` | `0 2 7 * 0 7 - * 0 8 - atan * - ` | `-141.75125056031723`
        74 | `-(2*7*-7)*asin(-8)` | `No Variable` | `0-(2*7*(0-7))*asin(0-8)` | `0 2 7 * 0 7 - * 0 8 - asin * - ` | `math domain error`
        75 | `-(2*7*-7)*acos(-8)` | `No Variable` | `0-(2*7*(0-7))*acos(0-8)` | `0 2 7 * 0 7 - * 0 8 - acos * - ` | `math domain error`
        76 | `-(2*7*-7)*asin(-.8)` | `No Variable` | `0-(2*7*(0-7))*asin(0-.8)` | `0 2 7 * 0 7 - * 0 .8 - asin * - ` | `-90.874931364158`
        77 | `-(2*7*-7)*acos(-.8)` | `No Variable` | `0-(2*7*(0-7))*acos(0-.8)` | `0 2 7 * 0 7 - * 0 .8 - acos * - ` | `244.81297139005787`
        78 | `-(2*7*-7)*atanh(-8)` | `No Variable` | `0-(2*7*(0-7))*atanh(0-8)` | `0 2 7 * 0 7 - * 0 8 - atanh * - ` | `math domain error`
        79 | `-(2*7*-7)*asinh(-8)` | `No Variable` | `0-(2*7*(0-7))*asinh(0-8)` | `0 2 7 * 0 7 - * 0 8 - asinh * - ` | `-272.09428351092436`
        80 | `-(2*7*-7)*acosh(-8)` | `No Variable` | `0-(2*7*(0-7))*acosh(0-8)` | `0 2 7 * 0 7 - * 0 8 - acosh * - ` | `math domain error`
        81 | `hypot(4,3)` | `No Variable` | `hypot(4,3)` | `4 3  hypot ` | `5`
        82 | `deg(pi/3)` | `No Variable` | `deg(pi/3)` | `pi 3 / deg ` | `59.99999999999999`
        83 | `rad(60)` | `No Variable` | `rad(60)` | `60 rad ` | `1.0471975511965976`
        84 | `{'exp': 't y *', 'variables': {'y': 1, 'x': 1, 't': 1}, 'convert': False}` | `{'y': 1, 'x': 1, 't': 1}` | `"Expresssion Error: ends with an operator - 'ty*'"` | `"Expresssion Error: ends with an operator - 'ty*'"` | `1`
        85 | `{'exp': 't y *', 'variables': {'x': 1, 'y': 1}, 'convert': False}` | `{'x': 1, 'y': 1}` | `"Expresssion Error: ends with an operator - 'ty*'"` | `"Expresssion Error: ends with an operator - 'ty*'"` | `'Unknown Symbol in expression: t'`
        86 | `{'exp': '3 t y *', 'variables': {'y': 1, 't': 1}, 'convert': False}` | `{'y': 1, 't': 1}` | `"Expresssion Error: ends with an operator - '3ty*'"` | `"Expresssion Error: ends with an operator - '3ty*'"` | `'Invalid Postfix Notation: Stack not 1'`
        87 | `{'exp': ' y     *', 'variables': {'y': 1, 't': 1}, 'convert': False}` | `{'y': 1, 't': 1}` | `"Expresssion Error: ends with an operator - 'y*'"` | `"Expresssion Error: ends with an operator - 'y*'"` | `'Invalid Postfix Notation: Causes Stack Underflow -  y     *'`
        88 | `-2` | `No Variable` | `-2` | `-2` | `-2`
        89 | `--2` | `No Variable` | `0+2` | `0 2 + ` | `2`
        90 | `---2` | `No Variable` | `0-2` | `0 2 - ` | `-2`
        91 | `----2` | `No Variable` | `0+2` | `0 2 + ` | `2`
        92 | `-----2` | `No Variable` | `0-2` | `0 2 - ` | `-2`
        93 | `++2` | `No Variable` | `2` | `2` | `2`
        94 | `+++2` | `No Variable` | `2` | `2` | `2`
        95 | `++++2` | `No Variable` | `2` | `2` | `2`
        96 | `--++2` | `No Variable` | `0+2` | `0 2 + ` | `2`
        97 | `++-2` | `No Variable` | `(0-2)` | ` 0 2 -  ` | `-2`
        98 | `++++----2` | `No Variable` | `(0+2)` | ` 0 2 +  ` | `2`
        99 | `++++-----2` | `No Variable` | `(0-2)` | ` 0 2 -  ` | `-2`
        100 | `-(2*7*-7)*cos(---8)` | `No Variable` | `0-(2*7*(0-7))*cos(0-8)` | `0 2 7 * 0 7 - * 0 8 - cos * - ` | `-14.259003313244127`
        101 | `-(2*7*-7)*cos(----8)` | `No Variable` | `0-(2*7*(0-7))*cos(0+8)` | `0 2 7 * 0 7 - * 0 8 + cos * - ` | `-14.259003313244127`
        102 | `-(2*7*--7)*cos(--8)` | `No Variable` | `0-(2*7*(0+7))*cos(0+8)` | `0 2 7 * 0 7 + * 0 8 + cos * - ` | `14.259003313244127`
        103 | `-(2*7*---7)*cos(---8)` | `No Variable` | `0-(2*7*(0-7))*cos(0-8)` | `0 2 7 * 0 7 - * 0 8 - cos * - ` | `-14.259003313244127`
        104 | `-(2*7*----7)*cos(----8)` | `No Variable` | `0-(2*7*(0+7))*cos(0+8)` | `0 2 7 * 0 7 + * 0 8 + cos * - ` | `14.259003313244127`
        105 | `-(2*7*-----7)*cos(----8)` | `No Variable` | `0-(2*7*(0-7))*cos(0+8)` | `0 2 7 * 0 7 - * 0 8 + cos * - ` | `-14.259003313244127`
        106 | `sin(cos(45))` | `No Variable` | `sin(cos(45))` | `45 cos sin ` | `0.5014916033198201`
        107 | `deg(asin(cos(45)))` | `No Variable` | `deg(asin(cos(45)))` | `45 cos asin deg ` | `31.68992191129556`
        108 | `deg(asin(cos(rad(45))))` | `No Variable` | `deg(asin(cos(rad(45))))` | `45 rad cos asin deg ` | `45.00000000000001`
        109 | `deg(acos(cos(rad(hypot(4, 3)))))` | `No Variable` | `deg(acos(cos(rad(hypot(4,3)))))` | `4 3  hypot rad cos acos deg ` | `4.999999999999992`
        110 | `{'exp': 'deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t', 'variables': {'y': 9, 'x': 4, 't': 16}, 'convert': True}` | `{'y': 9, 'x': 4, 't': 16}` | `deg(acos(cos(rad(hypot(4,3)))))+y*x^t` | `4 3  hypot rad cos acos deg y x t ^ * + ` | `38654705669`
        111 | `{'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': 4, 't': 16}, 'convert': True}` | `{'y': 9, 'x': 4, 't': 16}` | `atan(deg(acos(cos(rad(hypot(4,3)))))+y*x^t)` | `4 3  hypot rad cos acos deg y x t ^ * + atan ` | `1.5707963267690266`
        112 | `{'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': '2*4 - 3', 't': 16}, 'convert': True}` | `{'y': 9, 'x': '2*4 - 3', 't': 16}` | `atan(deg(acos(cos(rad(hypot(4,3)))))+y*x^t)` | `4 3  hypot rad cos acos deg y x t ^ * + atan ` | `1.5707963267941685`
        113 | `{'exp': 'hypot(x^2*4, y*t)', 'variables': {'t': 6, 'x': '2*4 - 3', 'y': '5*0.6'}, 'convert': True}` | `{'t': 6, 'x': '2*4 - 3', 'y': '5*0.6'}` | `hypot(x^2*4,y*t)` | `x 2 ^ 4 * y t *  hypot ` | `101.6070863670443`
        114 | `{'exp': 'hypot(x^2*4, y*t)', 'variables': {'t': 6, 'x': '2*m - 3', 'y': '5*0.6'}, 'convert': True}` | `{'t': 6, 'x': '2*m - 3', 'y': '5*0.6'}` | `hypot(x^2*4,y*t)` | `x 2 ^ 4 * y t *  hypot ` | `'Invalid input m'`
        115 | `{'exp': 'hypot(x+y*t,x*y)', 'variables': {'t': 6, 'x': '6', 'y': '5*0.6'}, 'convert': True}` | `{'t': 6, 'x': '6', 'y': '5*0.6'}` | `hypot(x+y*t,x*y)` | `x y t * + x y *  hypot ` | `30`
        116 | `{'exp': 'hypot(x+y*t,x*y)', 'variables': {'t': 6, 'x': '4', 'y': '5*0.6'}, 'convert': True}` | `{'t': 6, 'x': '4', 'y': '5*0.6'}` | `hypot(x+y*t,x*y)` | `x y t * + x y *  hypot ` | `25.059928172283335`
        117 | `{'exp': 'hypot(x+y*t,x*y)', 'variables': {'t': 6, 'x': '5*5', 'y': {'exp': 'a + b', 'variables': {'a': 9, 'b': 10}}}, 'convert': True}` | `{'t': 6, 'x': '5*5', 'y': {'exp': 'a + b', 'variables': {'a': 9, 'b': 10}}}` | `hypot(x+y*t,x*y)` | `x y t * + x y *  hypot ` | `494.92019558712695`
        118 | `{'exp': 'x', 'variables': {'x': {'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': '2*4 - 3', 't': 16}, 'convert': True}}}` | `{'x': {'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': '2*4 - 3', 't': 16}, 'convert': True}}` | `x` | `x ` | `1.5707963267941685`
        119 | `{'exp': 'x*y + z^2', 'variables': {'x': 2, 'z': '5*0.5', 'y': {'exp': 'x + y', 'variables': {'x': {'exp': '2*y', 'variables': {'y': 1}}, 'y': {'exp': '2*x', 'variables': {'x': {'exp': '(sin(theta))^2 + (cos(theta))^2', 'variables': {'theta': {'exp': 'log(9*y) - 2*cos(z)+ln(e^2)', 'variables': {'z': 'e', 'y': {'exp': 'x', 'variables': {'x': {'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': '2*4 - 3', 't': 16}, 'convert': True}}}}}}}}}}}}}` | `{'x': 2, 'z': '5*0.5', 'y': {'exp': 'x + y', 'variables': {'x': {'exp': '2*y', 'variables': {'y': 1}}, 'y': {'exp': '2*x', 'variables': {'x': {'exp': '(sin(theta))^2 + (cos(theta))^2', 'variables': {'theta': {'exp': 'log(9*y) - 2*cos(z)+ln(e^2)', 'variables': {'z': 'e', 'y': {'exp': 'x', 'variables': {'x': {'exp': 'atan(deg(acos(cos(rad(hypot(4, 3)))))+ y     *x^t)', 'variables': {'y': 9, 'x': '2*4 - 3', 't': 16}, 'convert': True}}}}}}}}}}}}` | `x*y+z^2` | `x y * z 2 ^ + ` | `14.25`
        120 | `{'exp': 'x', 'variables': {'x': {'exp': 'y', 'variables': {'y': {'exp': 'z', 'variables': {'z': 3}}}}}}` | `{'x': {'exp': 'y', 'variables': {'y': {'exp': 'z', 'variables': {'z': 3}}}}}` | `x` | `x ` | `3`
        121 | `{'exp': 14.25}` | `No Variable` | `14.25` | `14.25` | `14.25`
        122 | `{'exp': 14}` | `No Variable` | `14` | `14` | `14`
        123 | `{'exp': 'x + y', 'variables': {'x': {'exp': 'y', 'variables': {'y': {'exp': 23}}}, 'y': {'exp': 25}}}` | `{'x': {'exp': 'y', 'variables': {'y': {'exp': 23}}}, 'y': {'exp': 25}}` | `x+y` | `x y + ` | `48`
        124 | `{'exp': 'cos(x^2 + y^2)^2 + sin(x^2 + y^2)^2', 'variables': {'x': 30, 'y': 20}}` | `{'x': 30, 'y': 20}` | `cos(x^2+y^2)^2+sin(x^2+y^2)^2` | `x 2 ^ y 2 ^ + cos 2 ^ x 2 ^ y 2 ^ + sin 2 ^ + ` | `1`
        125 | `{'exp': 'cos(y)', 'variables': {'y': {'exp': 'sin(theta)', 'variables': {'theta': {'exp': 'acos(sin(x))', 'variables': {'x': 45}}}}}}` | `{'y': {'exp': 'sin(theta)', 'variables': {'theta': {'exp': 'acos(sin(x))', 'variables': {'x': 45}}}}}` | `cos(y)` | `y cos ` | `0.8651625117859165`
        126 | `2*4-3<5*2+4?4:3` | `No Variable` | `2*4-3<5*2+4?4:3` | `2 4 * 3 - 5 2 * 4 + < 4 ? 3 : ` | `': only works with ? operator'`
        127 | `True?4:5` | `No Variable` | `True?4:5` | `True 4 ? 5 : ` | `': only works with ? operator'`
        128 | `False?4:5` | `No Variable` | `False?4:5` | `False 4 ? 5 : ` | `5`
        129 | `2*4?4:5` | `No Variable` | `2*4?4:5` | `2 4 * 4 ? 5 : ` | `'?: only works for boolean condition'`
        130 | `{'exp': 'sin(theta)^2+cos(theta)^2<0', 'variables': {'theta': 30}}` | `{'theta': 30}` | `sin(theta)^2+cos(theta)^2<0` | `theta sin 2 ^ theta cos 2 ^ + 0 < ` | `False`
        131 | `2*4-3<5*2+4?4*4^2:2*4-5*3` | `No Variable` | `2*4-3<5*2+4?4*4^2:2*4-5*3` | `2 4 * 3 - 5 2 * 4 + < 4 4 2 ^ * ? 2 4 * 5 3 * - : ` | `': only works with ? operator'`
        132 | `2*4-3<5*2+4?4*4^2` | `No Variable` | `2*4-3<5*2+4?4*4^2` | `2 4 * 3 - 5 2 * 4 + < 4 4 2 ^ * ? ` | `64`
        133 | `:4*2+5` | `No Variable` | `:4*2+5` | ` 4 2 * 5 + : ` | `'Invalid Postfix Notation: Causes Stack Underflow -  4 2 * 5 + : '`
        134 | `4*3:4*2+5` | `No Variable` | `4*3:4*2+5` | `4 3 * 4 2 * 5 + : ` | `': only works with ? operator'`
        
Platform: UNKNOWN
Classifier: Programming Language :: Python :: 3
Classifier: License :: OSI Approved :: MIT License
Classifier: Operating System :: OS Independent
Description-Content-Type: text/markdown
