Dart To Mercury Converter
Other Dart Converters
What Is Dart To Mercury Converter?
A Dart to Mercury converter is an online tool that helps developers convert their code from Dart to Mercury efficiently. This converter uses advanced technologies like generative AI, machine learning (ML), and natural language processing (NLP) to facilitate the transition. By effectively bridging the gap between these two programming languages, it simplifies the coding process for developers.
The conversion follows a clear three-step process:
- Input: You begin by entering the Dart code that requires conversion.
- Processing: The tool analyzes your input, interpreting the Dart syntax and structure, and translates it into a format compatible with Mercury.
- Output: Finally, you receive the converted Mercury code, ready for integration into your project.
How Is Dart Different From Mercury?
Dart and Mercury serve different purposes in the programming landscape, each catering to specific development needs. Dart is an object-oriented programming language that primarily focuses on client-side development, making it a popular choice for building dynamic web and mobile applications. On the other hand, Mercury is a logic programming language optimized for executing complex functional logic programs efficiently. Below, we delve into their key distinctions and features to help clarify their uses.
- Type System:
- Dart employs a sound static type system, which aids in catching errors during compile time and enhances performance. This characteristic ensures that developers can write optimized code that’s easy to maintain.
- In contrast, Mercury incorporates a more intricate type system, utilizing declarative types suited for logic programming. This complexity allows developers to express rules and constraints more naturally, facilitating a cleaner representation of logic-driven applications.
- Target Domains:
- Dart shines in front-end development, where interactive user interfaces are paramount. Its libraries and frameworks, like Flutter, enable seamless performance across platforms.
- Mercury, however, is ideal for applications that need to execute complex rule-based logic efficiently. It’s particularly useful in scenarios like compilers and artificial intelligence, where logical inference is a priority.
- Concurrency:
- Dart’s approach to concurrency involves the use of isolates, which allow independent execution without shared memory, promoting safer and more robust applications.
- Conversely, Mercury manages concurrency through logic variables, which helps in creating non-blocking applications. This method fosters an environment where multiple logical paths can be explored simultaneously, enhancing flexibility.
| Feature | Dart | Mercury |
|---|---|---|
| Type System | Sound static types | Declarative types |
| Domain | Client-side (web/mobile) | Logic programming |
| Concurrency | Isolates | Logic variables |
How Does Minary’s Dart To Mercury Converter Work?
Minary’s AI Dart To Mercury converter streamlines the process of transforming your Dart code into Mercury seamlessly. Start by entering a detailed description of the task you want the converter to perform. This could range from simple code snippets to complex algorithm translations. Once you’ve crafted your prompt, hit the “Generate” button, and watch as the generator processes your request.
The output will appear on the right side of the interface, allowing you to review the generated Mercury code at your convenience. You can easily copy the result by clicking the “Copy” button located at the bottom. This handy feature ensures that you can quickly transfer the code into your development environment without any hassle. Additionally, there are feedback vote buttons available for you to provide your opinion on the quality of the code generated. Your feedback plays a vital role in training the AI, enhancing its performance for future requests.
For example, when prompted with, “Convert the following Dart function that calculates the factorial of a number into Mercury,” the Dart To Mercury converter will generate a corresponding Mercury code that effectively performs the same task, tailored to meet the syntax and semantics of Mercury. You’ll find that this process not only saves time but also improves the accuracy of your code conversion.
Examples Of Converted Code From Dart To Mercury
import ‘dart:math’;
void main() {
Random random = Random();
int randomNumber = random.nextInt(100) + 1;
int guess;
print(‘Welcome to the Number Guessing Game!’);
print(‘I have selected a random number between 1 and 100. Try to guess it!’);
do {
stdout.write(‘Enter your guess: ‘);
guess = int.parse(stdin.readLineSync()!);
if (guess < randomNumber) {
print('Too low! Try again.');
} else if (guess > randomNumber) {
print(‘Too high! Try again.’);
} else {
print(‘Congratulations! You guessed the number $randomNumber correctly!’);
}
} while (guess != randomNumber);
}
:- interface.
:- pred main.
:- mode main is det.
:- implementation.
:- import_module io.
:- import_module random.
:- import_module int.
main :-
Random = random:init,
random:random_int(1, 100, Random, RandomNumber, _),
io:write_string(“Welcome to the Number Guessing Game!n”),
io:write_string(“I have selected a random number between 1 and 100. Try to guess it!n”),
guess_loop(RandomNumber).
guess_loop(RandomNumber) :-
io:write_string(“Enter your guess: “),
io:flush_output,
io:read_int(GuessResult),
( GuessResult = error(_) ->
io:write_string(“Invalid input. Please enter a number.n”),
guess_loop(RandomNumber)
; Guess = GuessResult,
if Guess < RandomNumber then
io:write_string("Too low! Try again.n"),
guess_loop(RandomNumber)
else if Guess > RandomNumber then
io:write_string(“Too high! Try again.n”),
guess_loop(RandomNumber)
else
io.format(“Congratulations! You guessed the number %d correctly!n”, [i(RandomNumber)])
endif
).
class BankAccount {
String accountHolder;
double balance;
BankAccount(this.accountHolder) : balance = 0.0;
void deposit(double amount) {
if (amount <= 0) {
print('Please enter a valid deposit amount.');
return;
}
balance += amount;
print('Deposited: $${amount.toStringAsFixed(2)}');
}
void withdraw(double amount) {
if (amount <= 0) {
print('Please enter a valid withdrawal amount.');
return;
} else if (amount > balance) {
print(‘Insufficient funds. Current balance: $${balance.toStringAsFixed(2)}’);
return;
}
balance -= amount;
print(‘Withdrew: $${amount.toStringAsFixed(2)}’);
}
void checkBalance() {
print(‘Current balance: $${balance.toStringAsFixed(2)}’);
}
}
void main() {
print(‘Welcome to the Simple Banking System!’);
print(‘Enter your name to create an account:’);
String? name = stdin.readLineSync();
if (name == null || name.isEmpty) {
print(‘Invalid name. Exiting.’);
return;
}
BankAccount account = BankAccount(name);
while (true) {
print(‘nChoose an option:’);
print(‘1. Deposit Money’);
print(‘2. Withdraw Money’);
print(‘3. Check Balance’);
print(‘4. Exit’);
String? choice = stdin.readLineSync();
switch (choice) {
case ‘1’:
print(‘Enter amount to deposit:’);
double depositAmount = double.tryParse(stdin.readLineSync()!) ?? -1;
account.deposit(depositAmount);
break;
case ‘2’:
print(‘Enter amount to withdraw:’);
double withdrawAmount = double.tryParse(stdin.readLineSync()!) ?? -1;
account.withdraw(withdrawAmount);
break;
case ‘3’:
account.checkBalance();
break;
case ‘4’:
print(‘Thank you for using the Simple Banking System. Goodbye!’);
return;
default:
print(‘Invalid option. Please try again.’);
}
}
}
:- interface.
:- import_module io.
:- type bank_account
—> account(string, float).
:- pred create_account(string, bank_account).
:- mode create_account(in, out) is det.
:- pred deposit(bank_account, float, bank_account).
:- mode deposit(in, in, out) is det.
:- pred withdraw(bank_account, float, bank_account).
:- mode withdraw(in, in, out) is det.
:- pred check_balance(bank_account, io.state, io.state).
:- mode check_balance(in, di, uo) is det.
:- pred main(io.state, io.state).
:- mode main(di, uo) is det.
:- implementation.
create_account(Name, account(Name, 0.0)).
deposit(account(Name, Balance), Amount, NewAccount) :-
( Amount <= 0.0
-> io.write_string(“Please enter a valid deposit amount.n”, !IO)
; NewBalance = Balance + Amount,
NewAccount = account(Name, NewBalance),
io.format(“Deposited: $~fn”, [f(Amount)], !IO)
).
withdraw(account(Name, Balance), Amount, NewAccount) :-
( Amount <= 0.0
-> io.write_string(“Please enter a valid withdrawal amount.n”, !IO)
; Amount > Balance
-> io.format(“Insufficient funds. Current balance: $~fn”, [f(Balance)], !IO)
; NewBalance = Balance – Amount,
NewAccount = account(Name, NewBalance),
io.format(“Withdrew: $~fn”, [f(Amount)], !IO)
).
check_balance(account(_, Balance), !IO) :-
io.format(“Current balance: $~fn”, [f(Balance)], !IO).
main(!IO) :-
io.write_string(“Welcome to the Simple Banking System!n”, !IO),
io.write_string(“Enter your name to create an account:n”, !IO),
io.read_line_as_string(Result, !IO),
( Result = ok(Name)
-> ( Name = “”
-> create_account(Name, Account),
loop(Account, !IO)
; io.write_string(“Invalid name. Exiting.n”, !IO)
)
; io.write_string(“Error reading name. Exiting.n”, !IO)
).
loop(Account, !IO) :-
io.write_string(“nChoose an option:n”, !IO),
io.write_string(“1. Deposit Moneyn”, !IO),
io.write_string(“2. Withdraw Moneyn”, !IO),
io.write_string(“3. Check Balancen”, !IO),
io.write_string(“4. Exitn”, !IO),
io.read_line_as_string(Result, !IO),
( Result = ok(Choice)
-> ( Choice = “1”
-> io.write_string(“Enter amount to deposit:n”, !IO),
io.read_line_as_string(DepositResult, !IO),
( DepositResult = ok(DepositString),
float_string(DepositString, DepositAmount)
-> deposit(Account, DepositAmount, NewAccount),
loop(NewAccount, !IO)
; io.write_string(“Invalid amount. Please try again.n”, !IO),
loop(Account, !IO)
)
; Choice = “2”
-> io.write_string(“Enter amount to withdraw:n”, !IO),
io.read_line_as_string(WithdrawResult, !IO),
( WithdrawResult = ok(WithdrawString),
float_string(WithdrawString, WithdrawAmount)
-> withdraw(Account, WithdrawAmount, NewAccount),
loop(NewAccount, !IO)
; io.write_string(“Invalid amount. Please try again.n”, !IO),
loop(Account, !IO)
)
; Choice = “3”
-> check_balance(Account, !IO),
loop(Account, !IO)
; Choice = “4”
-> io.write_string(“Thank you for using the Simple Banking System. Goodbye!n”, !IO)
; io.write_string(“Invalid option. Please try again.n”, !IO),
loop(Account, !IO)
)
; io.write_string(“Error reading choice. Please try again.n”, !IO),
loop(Account, !IO)
).
:- func float_string(string, float) = float.
float_string(S, F) = Result :-
( float.parse(S, Result)
-> Result
; Result = -1.0
).
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