COBOL To Ada Converter
Other COBOL Converters
What Is COBOL To Ada Converter?
An AI COBOL to Ada converter is an online tool designed to transform COBOL code into Ada code efficiently. This converter leverages advanced technologies, including generative AI, machine learning (ML), and natural language processing (NLP), to ensure an accurate translation of programming logic and syntax between these two languages. By using this converter, you can modernize legacy systems while minimizing manual intervention.
The workflow of this converter unfolds in a straightforward three-step process:
- Input: You provide the COBOL code that needs conversion.
- Processing: The tool analyzes the provided code, utilizing its sophisticated algorithms. During this step, it breaks down the COBOL logic, examining each statement and data structure to accurately map it to the corresponding Ada syntax.
- Output: You receive the newly generated Ada code. This code is structured for immediate use or can be further customized to meet specific project requirements.
How Is COBOL Different From Ada?
COBOL and Ada serve distinct purposes in the programming landscape, designed with specific priorities in mind. COBOL is tailored for business and administrative tasks, focusing on efficient data processing and batch operations. Industries that deal with large volumes of data, such as banking and finance, greatly benefit from COBOL’s ability to handle transaction processes reliably. In contrast, Ada is engineered for high-integrity and real-time systems, making it ideal for environments where safety, reliability, and maintainability are crucial, such as in aerospace and military applications.
To highlight the key differences, let’s look at several important aspects:
- Syntax: COBOL employs a verbose, English-like syntax designed for readability, which often makes it easier for non-programmers to understand. Ada, on the other hand, offers a more concise and structured syntax, enhancing the clarity and precision required for complex system development.
- Type Safety: Ada prioritizes type safety by utilizing strong typing, which helps catch errors at compile time, ultimately enhancing code reliability. COBOL allows for greater flexibility with types, which can sometimes lead to unintentional errors but also accommodates quick changes in business logic.
- Concurrency: With the rise of multi-core processors, concurrent programming has become essential. Ada includes built-in support for concurrency, allowing programs to execute multiple processes simultaneously. COBOL lacks this feature, limiting its ability to handle tasks that require parallel execution.
- Implementation Domains: While COBOL is predominantly used for business applications, Ada is favored in critical systems, especially where failure is not an option, such as in aviation and military operations.
This comparison effectively illuminates the core distinctions between COBOL and Ada, guiding developers in selecting the correct language based on their project requirements.
| Feature | COBOL | Ada |
|---|---|---|
| Syntax | Verbose, English-like | Concise, structured |
| Type Safety | Flexible | Strongly typed |
| Concurrency | No built-in support | Native support |
| Implementation Domains | Business applications | Aerospace, military |
How Does Minary’s COBOL To Ada Converter Work?
The Minary COBOL To Ada converter operates through a straightforward yet effective process, designed to streamline the transformation of COBOL code into Ada. Begin by detailing your specific task in the input box provided. It’s essential to articulate your request clearly, as the quality of the output depends on the specificity of your description.
After you’ve entered the task details, simply click on the ‘Generate’ button. The generator will process your input and produce the corresponding Ada code, which will be displayed on the right side of the interface. This enables you to quickly view, review, and modify the code to suit your needs.
Should you want to copy the generated code, a handy ‘Copy’ button at the bottom simplifies this action. Plus, there’s a useful feature for feedback. You can express whether the generated code met your expectations through feedback vote buttons. Your input plays a role in training the algorithm to enhance its accuracy over time.
For example, if you were to describe a specific COBOL function you wish to convert, like “transform a date input from MM/DD/YYYY format to a standard Ada date type,” you’d provide this clear prompt in the description box. Click ‘Generate,’ and the converter would create the appropriate Ada code that you can review, copy, and use as needed. The seamless functionality of this COBOL To Ada converter makes it a valuable tool for developers navigating legacy code transitions.
Examples Of Converted Code From COBOL To Ada
PROGRAM-ID. RectangleArea.
ENVIRONMENT DIVISION.
DATA DIVISION.
WORKING-STORAGE SECTION.
01 LENGTH PIC 9(5)V99.
01 WIDTH PIC 9(5)V99.
01 AREA PIC 9(10)V99.
01 WS-USER-INPUT PIC X(50).
PROCEDURE DIVISION.
BEGIN.
DISPLAY “Enter the length of the rectangle: ”
ACCEPT LENGTH
DISPLAY “Enter the width of the rectangle: ”
ACCEPT WIDTH
COMPUTE AREA = LENGTH * WIDTH
DISPLAY “The area of the rectangle is: ” AREA
STOP RUN.
use Ada.Text_IO;
procedure RectangleArea is
Length : Float;
Width : Float;
Area : Float;
WS_User_Input : String(1..50);
begin
Put_Line(“Enter the length of the rectangle: “);
Get_Line(WS_User_Input);
Length := Float’Value(WS_User_Input);
Put_Line(“Enter the width of the rectangle: “);
Get_Line(WS_User_Input);
Width := Float’Value(WS_User_Input);
Area := Length * Width;
Put_Line(“The area of the rectangle is: ” & Float’Image(Area));
end RectangleArea;
PROGRAM-ID. CalculateProductCost.
ENVIRONMENT DIVISION.
INPUT-OUTPUT SECTION.
FILE-CONTROL.
SELECT InputFile ASSIGN TO SYSIN
ORGANIZATION IS LINE SEQUENTIAL.
DATA DIVISION.
FILE SECTION.
FD InputFile.
01 InputRecord.
05 ProductPrice PIC 9(5)V99.
WORKING-STORAGE SECTION.
01 TotalCost PIC 9(7)V99 VALUE 0.
01 Subtotal PIC 9(7)V99 VALUE 0.
01 Discount PIC 9(5)V99 VALUE 0.
01 FinalTotal PIC 9(7)V99 VALUE 0.
01 ProductCounter PIC 99 VALUE 0.
01 ContinueInput PIC X VALUE ‘Y’.
01 WS-Display.
05 WS-ProductCounter PIC 99.
05 WS-ProductPrice PIC 9(5)V99.
05 WS-Subtotal PIC 9(7)V99.
05 WS-Discount PIC 9(5)V99.
05 WS-FinalTotal PIC 9(7)V99.
PROCEDURE DIVISION.
MAIN-PROCESS.
DISPLAY “Enter product prices (end with 0)”
PERFORM UNTIL ContinueInput = ‘N’
ACCEPT InputRecord
IF ProductPrice = 0
MOVE ‘N’ TO ContinueInput
ELSE
ADD ProductPrice TO TotalCost
ADD 1 TO ProductCounter
DISPLAY “Product added: $” ProductPrice
END-IF
END-PERFORM.
MOVE TotalCost TO Subtotal.
IF Subtotal > 100
COMPUTE Discount = Subtotal * 0.05
ELSE
MOVE 0 TO Discount
END-IF.
COMPUTE FinalTotal = Subtotal – Discount.
DISPLAY “————————–“.
DISPLAY “Receipt”.
DISPLAY “————————–“.
DISPLAY “Number of Products: ” ProductCounter.
DISPLAY “Subtotal: $” Subtotal.
DISPLAY “Discount: $” Discount.
DISPLAY “Final Total: $” FinalTotal.
DISPLAY “————————–“.
STOP RUN.
with Ada.Float_Text_IO; use Ada.Float_Text_IO;
procedure CalculateProductCost is
type Input_Record is record
Product_Price : Float;
end record;
Input_File : File_Type;
Input_Data : Input_Record;
Total_Cost : Float := 0.0;
Subtotal : Float := 0.0;
Discount : Float := 0.0;
Final_Total : Float := 0.0;
Product_Counter : Integer := 0;
Continue_Input : Character := ‘Y’;
begin
Put_Line(“Enter product prices (end with 0)”);
while Continue_Input = ‘Y’ loop
Get(Input_Data.Product_Price);
if Input_Data.Product_Price = 0.0 then
Continue_Input := ‘N’;
else
Total_Cost := Total_Cost + Input_Data.Product_Price;
Product_Counter := Product_Counter + 1;
Put_Line(“Product added: $” & Float’Image(Input_Data.Product_Price));
end if;
end loop;
Subtotal := Total_Cost;
if Subtotal > 100.0 then
Discount := Subtotal * 0.05;
else
Discount := 0.0;
end if;
Final_Total := Subtotal – Discount;
Put_Line(“————————–“);
Put_Line(“Receipt”);
Put_Line(“————————–“);
Put_Line(“Number of Products: ” & Integer’Image(Product_Counter));
Put_Line(“Subtotal: $” & Float’Image(Subtotal));
Put_Line(“Discount: $” & Float’Image(Discount));
Put_Line(“Final Total: $” & Float’Image(Final_Total));
Put_Line(“————————–“);
end CalculateProductCost;
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