F# To Fortran Converter
Other F# Converters
What Is F# To Fortran Converter?
An F# to Fortran converter is an online tool designed to facilitate the translation of code written in F# into Fortran. This tool employs advanced technologies such as generative AI, machine learning (ML), and natural language processing (NLP), which allow it to effectively handle the intricacies involved in code conversion. It is particularly useful for developers who are moving projects or systems from one programming environment to another.
The conversion process includes three straightforward steps:
- Input: In this initial step, you enter the F# code that you wish to convert. This code serves as the foundational input for the conversion process.
- Processing: During processing, the tool analyzes the provided F# code using sophisticated AI algorithms. It maps the syntax and semantics, ensuring that the logic inherent in the original code is preserved accurately.
- Output: Finally, the converter produces the equivalent Fortran code. This generated code can be used immediately in your projects, enabling a seamless transition between the two programming languages.
How Is F# Different From Fortran?
F# is a functional-first programming language primarily designed for the .NET platform, while Fortran stands as one of the oldest programming languages, originally created for numerical computing. If you’re considering converting F# code to Fortran, understanding the essential differences between these two languages can significantly ease the transition and enhance your workflow.
Let’s delve into the distinctive features of both languages:
- Paradigm: F# embraces a multi-paradigm approach, allowing for functional, object-oriented, and imperative programming styles. This flexibility enables developers to choose the best approach for their specific problem. In contrast, Fortran primarily follows a procedural paradigm, which emphasizes a step-by-step approach to writing code. This can be less versatile in handling modern programming challenges.
- Type System: F# incorporates a strong, static type system that includes type inference. This means that the compiler can automatically determine the types of variables, promoting safer and more efficient code with less boilerplate. On the other hand, Fortran’s earlier versions present a more rigid type system, which can lead to potential errors and increased complexity in larger programs.
- Concurrency: F# has built-in support for asynchronous programming, allowing developers to write code that can perform multiple tasks simultaneously without significant overhead. This is particularly beneficial for applications requiring high responsiveness. Conversely, Fortran typically relies on external libraries or extensions to implement concurrency, which may introduce extra steps and complexity in the development process.
- Simplicity: F# encourages concise and readable code, enhanced by features such as pattern matching. This allows developers to express complex ideas in fewer lines. Fortran, on the other hand, is known for a more verbose syntax, which can sometimes complicate the readability and maintainability of the code.
| Feature | F# | Fortran |
|---|---|---|
| Programming Paradigm | Functional, Object-Oriented, Imperative | Procedural |
| Type System | Strong, Static with Type Inference | Less Flexible |
| Concurrency Support | Built-in Asynchronous | Requires External Libraries |
| Code Conciseness | Promotes Concise Syntax | More Verbose Syntax |
How Does Minary’s F# To Fortran Converter Work?
To utilize the Minary’s AI F# To Fortran converter effectively, you first need to describe the specific task you wish to accomplish. Enter the details about your F# code in the designated text box on the left. This could range from simple function conversions to more complex structures, depending on your needs.
Once you’ve filled out the details, click on the “Generate” button. The generator then processes your input seamlessly and produces the corresponding Fortran code on the right side of the interface. This feature allows you to quickly visualize the conversion, making it easy to verify accuracy and functionality.
If you’re satisfied with the output, you can conveniently copy the generated code using the “Copy” button located at the bottom. This functionality helps streamline your workflow, enabling you to use the converted code directly in your projects.
Minary’s F# To Fortran converter also values your input. You’ll notice feedback vote buttons next to the output; these allow you to rate the generated code as good or not so good. Your feedback contributes to the ongoing training and enhancement of the AI, ensuring it becomes even more reliable over time.
As an example, if you enter a detailed prompt like “Convert the following F# function that calculates the factorial of a number into Fortran,” the generator will optimize the output for you, delivering clean and efficient Fortran code. This approach allows for a practical transition between the two languages, enhancing your coding experience and productivity with the F# To Fortran converter.
Examples Of Converted Code From F# To Fortran
let sumOfEvens numbers =
numbers |> List.filter (fun x -> x % 2 = 0) |> List.sum
[
let main argv =
printfn “Enter a list of integers separated by spaces:”
let input = Console.ReadLine()
let numbers = input.Split(‘ ‘) |> Array.map int |> Array.toList
let sum = sumOfEvens numbers
printfn “The sum of all even numbers is: %d” sum
0
implicit none
integer :: i
integer, allocatable :: numbers(:)
integer :: sum, numCount
character(len=100) :: input
character(len=10) :: temp
logical :: eof
print *, “Enter a list of integers separated by spaces:”
read(*,'(A)’) input
! Count the number of integers in the input
numCount = 0
do i = 1, len_trim(input)
if (input(i:i) == ‘ ‘) then
numCount = numCount + 1
end if
end do
numCount = numCount + 1 ! accounting for the last number
allocate(numbers(numCount))
! Split and convert the input into integers
i = 1
do while (i <= numCount)
read(input, '(A)', advance="no") temp
read(temp, *) numbers(i)
input = trim(adjustl(input(len_trim(temp)+1:))) ! Trim the input
i = i + 1
end do
sum = 0
do i = 1, numCount
if (mod(numbers(i), 2) == 0) then
sum = sum + numbers(i)
end if
end do
print *, "The sum of all even numbers is:", sum
end program SumOfEvens
type Account = {
Id: int
mutable Balance: decimal
}
type Bank() =
let mutable accounts = Map.empty
member this.CreateAccount(id: int) =
if accounts.ContainsKey(id) then
printfn “Account with this ID already exists.”
else
accounts <- Map.add id { Id = id; Balance = 0.0m } accounts
printfn "Account %d created." id
member this.Deposit(id: int, amount: decimal) =
match Map.tryFind id accounts with
| Some account when amount > 0.0m ->
account.Balance <- account.Balance + amount
printfn "Deposited %M to account %d. New balance: %M" amount id account.Balance
| Some _ -> printfn “Invalid deposit amount.”
| None -> printfn “Account not found.”
member this.Withdraw(id: int, amount: decimal) =
match Map.tryFind id accounts with
| Some account when amount > 0.0m && account.Balance >= amount ->
account.Balance <- account.Balance - amount
printfn "Withdrew %M from account %d. New balance: %M" amount id account.Balance
| Some _ when amount <= 0.0m -> printfn “Invalid withdraw amount.”
| Some _ -> printfn “Insufficient funds.”
| None -> printfn “Account not found.”
member this.CheckBalance(id: int) =
match Map.tryFind id accounts with
| Some account -> printfn “Account %d balance: %M” id account.Balance
| None -> printfn “Account not found.”
[
let main argv =
let bank = Bank()
bank.CreateAccount(1)
bank.Deposit(1, 100.0m)
bank.Withdraw(1, 50.0m)
bank.CheckBalance(1)
bank.Withdraw(1, 60.0m)
bank.CreateAccount(2)
bank.Deposit(2, 200.0m)
bank.CheckBalance(2)
bank.Withdraw(2, 250.0m)
0 // return an integer exit code
type Account
integer :: Id
decimal :: Balance
end type Account
type Bank
type(Account), allocatable :: accounts(:)
contains
subroutine CreateAccount(this, id)
class(Bank), pointer :: this
integer :: id
integer :: i
if (allocated(this%accounts)) then
do i = 1, size(this%accounts)
if (this%accounts(i)%Id == id) then
print *, “Account with this ID already exists.”
return
end if
end do
end if
allocate(this%accounts(1))
this%accounts(1)%Id = id
this%accounts(1)%Balance = 0.0_decimal
print *, “Account”, id, “created.”
end subroutine CreateAccount
subroutine Deposit(this, id, amount)
class(Bank), pointer :: this
integer :: id
decimal :: amount
integer :: i
if (amount > 0.0_decimal) then
if (allocated(this%accounts)) then
do i = 1, size(this%accounts)
if (this%accounts(i)%Id == id) then
this%accounts(i)%Balance = this%accounts(i)%Balance + amount
print *, “Deposited”, amount, “to account”, id, “New balance:”, this%accounts(i)%Balance
return
end if
end do
end if
print *, “Account not found.”
else
print *, “Invalid deposit amount.”
end if
end subroutine Deposit
subroutine Withdraw(this, id, amount)
class(Bank), pointer :: this
integer :: id
decimal :: amount
integer :: i
if (allocated(this%accounts)) then
do i = 1, size(this%accounts)
if (this%accounts(i)%Id == id) then
if (amount > 0.0_decimal .and. this%accounts(i)%Balance >= amount) then
this%accounts(i)%Balance = this%accounts(i)%Balance – amount
print *, “Withdrew”, amount, “from account”, id, “New balance:”, this%accounts(i)%Balance
return
else if (amount <= 0.0_decimal) then
print *, "Invalid withdraw amount."
return
else
print *, "Insufficient funds."
return
end if
end if
end do
end if
print *, "Account not found."
end subroutine Withdraw
subroutine CheckBalance(this, id)
class(Bank), pointer :: this
integer :: id
integer :: i
if (allocated(this%accounts)) then
do i = 1, size(this%accounts)
if (this%accounts(i)%Id == id) then
print *, "Account", id, "balance:", this%accounts(i)%Balance
return
end if
end do
end if
print *, "Account not found."
end subroutine CheckBalance
end type Bank
program main
type(Bank), pointer :: bank
allocate(bank)
call bank%CreateAccount(1)
call bank%Deposit(1, 100.0_decimal)
call bank%Withdraw(1, 50.0_decimal)
call bank%CheckBalance(1)
call bank%Withdraw(1, 60.0_decimal)
call bank%CreateAccount(2)
call bank%Deposit(2, 200.0_decimal)
call bank%CheckBalance(2)
call bank%Withdraw(2, 250.0_decimal)
end program main
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