enclose 1.2.1

A convenient macro, for cloning values into a closure.
Documentation
use enclose::enc;
use enclose::enclose;
use std::sync::Arc;
use std::sync::Mutex;
use std::sync::MutexGuard;
use std::sync::RwLock;
use std::thread;

struct MutexSafeData(Mutex<usize>);

impl MutexSafeData {
	#[inline]
	pub fn new(def: usize) -> Self {
		MutexSafeData(Mutex::new(def))
	}
	#[allow(dead_code)]
	#[inline]
	pub fn set(&self, size: usize) {
		*self.get_mut() = size;
	}
	#[allow(dead_code)]
	#[inline]
	pub fn add(&self, size: usize) {
		*self.get_mut() += size;
	}
	#[inline]
	pub fn get_mut(&self) -> MutexGuard<usize> {
		match self.0.lock() {
			Ok(a) => a,
			Err(e) => e.into_inner(),
		}
	}
}

#[test]
fn clone_enc_macros() {
	let mutex_data = Arc::new(MutexSafeData::new(0));
	let mutex_data2 = Arc::new(MutexSafeData::new(0));

	// one value
	enc!(
		(mutex_data) || {
			mutex_data.add(1);
		}
	)();

	// two value
	enc!(
		(mutex_data, mutex_data2) || {
			mutex_data.add(1);
			mutex_data2.add(1);
		}
	)();

	// one alias
	enc!((mutex_data => m1) || {
		m1.add(1);
	})();

	// two alias
	enc!((mutex_data => m1, mutex_data2 => m2) || {
		m1.add(1);
		m2.add(1);
	})();

	// combination
	enc!((mutex_data, mutex_data2 => m2) || {
		mutex_data.add(1);
		m2.add(1);
	})();

	assert_eq!(*mutex_data.get_mut(), 5);
	assert_eq!(*mutex_data2.get_mut(), 3);
}

#[test]
fn test_unk_operations() {
	let mutex_data = Arc::new(MutexSafeData::new(0));
	let mutex_data2 = Arc::new(MutexSafeData::new(0));

	// one
	enc!((@mutex_data.clone() => m1) || {
		m1.add(1);
	})();

	// two
	enc!((@mutex_data.clone() => m1, @mutex_data2.clone() => m2) || {
		m1.add(1);
		m2.add(1);
	})();

	// unk operations
	enc!((@{ mutex_data2.set(1); mutex_data2.clone() } => m2) || {
		m2.add(1);
	})();

	assert_eq!(*mutex_data.get_mut(), 2);
	assert_eq!(*mutex_data2.get_mut(), 2);
}

#[test]
fn threadpool_twovalue_and_alias() {
	let v1 = Arc::new(MutexSafeData::new(1));
	assert_eq!(*v1.get_mut(), 1);

	let v2 = Arc::new(RwLock::new((0, 2, 3, 4)));

	let count_thread = 5;
	let mut join_all = Vec::with_capacity(count_thread);

	for _a in 0..count_thread {
		join_all.push({
			thread::spawn(enclose!((v1, v2, count_thread => alias_cthreads,) move || {
				assert_eq!(alias_cthreads, 5);

				*v1.get_mut() += 1;

				let mut lock_v2 = match v2.write() {
					Ok(a) => a,
					Err(e) => e.into_inner(),
				};
				lock_v2.0 += 1;
			}))
		});
	}
	for a in join_all {
		a.join().unwrap();
	}
	assert_eq!(*v1.get_mut(), 6);
	{
		let lock_v2 = match v2.write() {
			Ok(a) => a,
			Err(e) => e.into_inner(),
		};
		assert_eq!(lock_v2.0, 5);
	}
}

#[test]
fn selfalias() {
	#[derive(Debug, Clone, PartialEq, PartialOrd)]
	struct CheckData {
		a: u32,
	}

	impl CheckData {
		#[inline]
		pub const fn new(a: u32) -> Self {
			Self { a }
		}

		pub fn calculate(&self, mul_num: &u32) -> u32 {
			enc!((*mul_num, self.a => mut num0,) move || {
				// (*mul_num, self.a => mut num0) ->
				// let mul_num = *mul_num;
				// let num0 = self.a.clone();

				num0 *= mul_num;
				num0 += 1024;

				num0
			})()

			// run_enclose
			//
			// let mut enclose = $crate::enclose!( $($tt)* );
			// enclose()
		}
	}

	let data = CheckData::new(1024);

	// (data.a * 2) + 1024
	assert_eq!(data.calculate(&2), 3072);

	// check data
	assert_eq!(data.a, 1024);
}