Dart To Fortran Converter
Other Dart Converters
What Is Dart To Fortran Converter?
A Dart to Fortran converter is a specialized online tool that transforms code written in the Dart programming language into Fortran. This tool utilizes advanced technologies such as generative AI, machine learning (ML), and natural language processing (NLP) to make the conversion process efficient, allowing for smoother transitions between different programming environments. The process typically unfolds in three distinct steps:
- Input: You begin by entering the Dart code that requires conversion. This step may involve selecting the specific function or segment of code you want to convert.
- Processing: The converter analyzes the Dart code. Using sophisticated algorithms, it interprets the syntax and semantics of the Dart code and systematically translates it into Fortran. This is where the converter applies its understanding of both programming languages to ensure accuracy and coherence.
- Output: Following the analysis and translation, you receive the corresponding Fortran code. The output is structured and formatted, ready for you to integrate into your existing projects without further modifications.
How Is Dart Different From Fortran?
Dart and Fortran serve different purposes in the programming landscape, each tailored to specific types of applications. Dart is crafted for the modern developer, prioritizing user-friendliness and efficient app creation, particularly in mobile and web environments. Conversely, Fortran is a veteran language primarily aimed at numerical and scientific computing tasks. Below, we break down their key distinctions:
- Typing System: Dart features a sound static typing system, allowing developers to catch errors during the coding process, enhancing overall reliability. In contrast, Fortran uses dynamic typing, where types are determined at runtime. This flexibility can lead to more debugging challenges, as errors may only surface during execution.
- Concurrency: Dart excels with its built-in support for asynchronous programming, making it ideal for applications that require multitasking, such as real-time updates in user interfaces. On the other hand, Fortran typically processes tasks in a sequential manner, which may limit its efficiency in scenarios that benefit from parallel execution.
- Use Cases: Dart is particularly well-suited for developing interactive mobile and web applications, enabling developers to create rich and responsive user experiences. Fortran, with its roots in scientific applications, remains the go-to choice for high-performance computing tasks where precision and speed are crucial.
- Simplicity: Dart stands out for its streamlined and concise syntax, which can make it more approachable for new programmers. In contrast, Fortran’s verbose syntax can be more challenging for those unfamiliar with its structure, potentially steepening the learning curve.
| Feature | Dart | Fortran |
|---|---|---|
| Typing | Static | Dynamic |
| Concurrency | Asynchronous | Sequential |
| Use Case | Web/Mobile Apps | Scientific Computing |
| Syntax | Concise | Verbose |
How Does Minary’s Dart To Fortran Converter Work?
The Minary Dart To Fortran converter simplifies the process of translating Dart code into Fortran, making it accessible for developers who need to migrate or transform their projects. You start by clearly describing the task in the designated input box. This can include specific functions, data structures, or even entire classes you want translated. Once your task description is ready, click the generate button on the right.
The generator kicks into action, processing your detailed input to produce the corresponding Fortran code, displayed immediately on the right side of the interface. If the output meets your needs, simply use the copy button at the bottom to transfer it for your own use. There’s also a feature for feedback—vote if the generated code is useful or requires improvements. Engaging in this process helps train our model, enhancing future output quality.
Here’s a quick example of a detailed prompt you might use: “Convert a Dart class that calculates the factorial of a number, including both iterative and recursive methods, into Fortran.” After you enter this prompt and click generate, you will see the translated Fortran code ready to be copied and used.
Examples Of Converted Code From Dart To Fortran
void main() {
print(‘Enter a list of integers separated by spaces:’);
String? input = stdin.readLineSync();
if (input != null) {
List
int sumEven = numbers.where((number) => number.isEven).reduce((a, b) => a + b);
print(‘The sum of all even numbers is: $sumEven’);
}
}
implicit none
integer, allocatable :: numbers(:)
integer :: numCount, i, sumEven
character(len=100) :: input
character(len=10) :: temp
logical :: validInput
print *, ‘Enter a list of integers separated by spaces:’
read *, input
! Count the number of integers in the input
numCount = 0
validInput = .true.
i = 1
do while (validInput)
read(input(i:i), ‘(I10)’, IOSTAT=i) temp
if (i /= 0) then
numCount = numCount + 1
else
validInput = .false.
end if
i = i + index(trim(input(i:)), ‘ ‘) + 1
end do
allocate(numbers(numCount))
! Parse the integers into the array
i = 1
do while (i <= numCount)
read(input(i:i+index(trim(input(i:)), ' ')-1), '(I10)') numbers(i)
i = i + index(trim(input(i:)), ' ') + 1
end do
sumEven = 0
do i = 1, numCount
if (mod(numbers(i), 2) == 0) then
sumEven = sumEven + numbers(i)
end if
end do
print *, 'The sum of all even numbers is: ', sumEven
deallocate(numbers)
end program SumEvenNumbers
class BankAccount {
String accountHolder;
double balance;
BankAccount(this.accountHolder, this.balance);
void deposit(double amount) {
if (amount > 0) {
balance += amount;
print(‘Deposited: $${amount.toStringAsFixed(2)}’);
} else {
print(‘Deposit amount must be greater than zero.’);
}
}
void withdraw(double amount) {
if (amount > 0 && balance >= amount) {
balance -= amount;
print(‘Withdrew: $${amount.toStringAsFixed(2)}’);
} else if (amount > balance) {
print(‘Insufficient balance. Withdrawal denied.’);
} else {
print(‘Withdrawal amount must be greater than zero.’);
}
}
double getBalance() {
return balance;
}
}
void main() {
print(‘Welcome to the Simple Banking System’);
print(‘Please enter your name:’);
String name = stdin.readLineSync()!;
BankAccount account = BankAccount(name, 0.0);
while (true) {
print(‘— Menu —‘);
print(‘1. Check Balance’);
print(‘2. Deposit Money’);
print(‘3. Withdraw Money’);
print(‘4. Exit’);
print(‘Select an option:’);
int choice = int.parse(stdin.readLineSync()!);
switch (choice) {
case 1:
print(‘Current Balance: $${account.getBalance().toStringAsFixed(2)}’);
break;
case 2:
print(‘Enter amount to deposit:’);
double depositAmount = double.parse(stdin.readLineSync()!);
account.deposit(depositAmount);
break;
case 3:
print(‘Enter amount to withdraw:’);
double withdrawAmount = double.parse(stdin.readLineSync()!);
account.withdraw(withdrawAmount);
break;
case 4:
print(‘Thank you for using the banking system. Goodbye!’);
exit(0);
default:
print(‘Invalid option. Please try again.’);
}
}
}
implicit none
type :: BankAccount
character(len=100) :: accountHolder
real :: balance
contains
procedure :: deposit
procedure :: withdraw
procedure :: getBalance
end type BankAccount
contains
subroutine deposit(this, amount)
class(BankAccount), intent(inout) :: this
real, intent(in) :: amount
if (amount > 0.0) then
this%balance = this%balance + amount
print *, ‘Deposited: $’, amount
else
print *, ‘Deposit amount must be greater than zero.’
end if
end subroutine deposit
subroutine withdraw(this, amount)
class(BankAccount), intent(inout) :: this
real, intent(in) :: amount
if (amount > 0.0 .and. this%balance >= amount) then
this%balance = this%balance – amount
print *, ‘Withdrew: $’, amount
else if (amount > this%balance) then
print *, ‘Insufficient balance. Withdrawal denied.’
else
print *, ‘Withdrawal amount must be greater than zero.’
end if
end subroutine withdraw
real function getBalance(this)
class(BankAccount), intent(in) :: this
getBalance = this%balance
end function getBalance
end module bank_account
program banking_system
use bank_account
implicit none
type(BankAccount) :: account
character(len=100) :: name
integer :: choice
real :: depositAmount, withdrawAmount
print *, ‘Welcome to the Simple Banking System’
print *, ‘Please enter your name:’
read *, name
account%accountHolder = name
account%balance = 0.0
do
print *, ‘— Menu —‘
print *, ‘1. Check Balance’
print *, ‘2. Deposit Money’
print *, ‘3. Withdraw Money’
print *, ‘4. Exit’
print *, ‘Select an option:’
read *, choice
select case (choice)
case (1)
print *, ‘Current Balance: $’, account%getBalance()
case (2)
print *, ‘Enter amount to deposit:’
read *, depositAmount
call account%deposit(depositAmount)
case (3)
print *, ‘Enter amount to withdraw:’
read *, withdrawAmount
call account%withdraw(withdrawAmount)
case (4)
print *, ‘Thank you for using the banking system. Goodbye!’
exit
case default
print *, ‘Invalid option. Please try again.’
end select
end do
end program banking_system
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