173 个版本 (36 个稳定版)
新 1.1.37 | 2024年8月21日 |
---|---|
1.1.35 | 2024年7月29日 |
1.1.28 | 2024年6月29日 |
1.1.10 | 2024年3月11日 |
0.1.32 | 2022年11月5日 |
#49 在 开发工具
704 每月下载量
用于 31 个包 (30 直接使用)
380KB
6.5K SLoC
doe
doe 是一个多功能的 Rust 包,通过提供大量有用的宏和实用函数,显著增强了开发工作流程。它简化了常见任务,并提供了方便的剪贴板管理、状态管理、键盘输入和鼠标交互功能。此外,doe 包含强大的加密函数,使开发者能够轻松地将安全的加密、解密和哈希功能集成到他们的应用程序中,确保数据的完整性和机密性。
功能
ctf
cargo add doe -F ctf
允许您轻松执行各种操作,例如字符串操作、urlencode urldecode、hex encode decode、base43 encode decode 和错误管理。
http
cargo add doe -F http
简化了 reqwest HTTP 请求,使您能够轻松地从远程服务器发送和接收数据。
clip
cargo add doe -F clip
简化了剪贴板管理,使您能够轻松地与系统剪贴板交互。
mouse
cargo add doe -F mouse
提供了直观且易于使用的函数来模拟鼠标操作。
keyboard
cargo add doe -F keyboard
提供了使用易于使用的函数模拟键盘输入操作的函数。
kcm
kcm 是键盘、剪贴板、鼠标的组合功能
cargo add doe -F kcm
xlsx
读取、编辑、写入 xlsx 文件
cargo add doe -F xlsx
docx
读取、编辑 docx 文件
cargo add doe -F docx
date
获取和读取、编辑日期字符串
cargo add doe -F date
screenshot
截图并从截图图像中获取十六进制值
cargo add doe -F screenshot
images
调整大小、添加填充、转换图像格式
cargo add doe -F images
crypto
crypto 模块包含 AES、RSA、sha1、sha2、sha3、md5、blake3 函数
AES 模式:CBC CFB CTR ECB IGE OFB
cargo add doe -F crypto
示例
crypto 示例
let data = "this is data".as_bytes();
let enc_data = doe::crypto::aes::aes_ecb_encrypt("12345678123456781234567812345678".as_bytes(),"1234567812345678".as_bytes(),data).unwrap();
let dec_data = doe::crypto::aes::aes_ecb_decrypt("12345678123456781234567812345678".as_bytes(),"1234567812345678".as_bytes(),&enc_data).unwrap();
println!("data:{:?}",&data);
println!("enc_data:{:?}",&enc_data);
println!("dec_data:{:?}",&dec_data);
println!("blake3:{:?}",doe::crypto::blake3_xof("dnrops".as_bytes(), 10));
键盘示例
// cargo add doe -F kcm
use doe::keyboard::key_click;
use doe::keyboard::key_press;
use doe::keyboard::key_release;
use doe::keyboard::KeyCode;
use doe::mouse::mouse_drag;
use doe::mouse::move_to_paste;
use doe::mouse::move_to_press_left;
use doe::*;
use keyboard::exit_if_click_esc;
let list = vec!["iphone","ipad","macbook"];
// crete new baogao
move_to_press_left(857, 588).sleep(1.0); //#000000
// create fengmian
move_to_paste(1540, 853, "Apple").sleep(1.0); //#000000
move_to_paste(1360, 882, "ID").sleep(1.0); //#000000
// add shuoming
move_to_paste(772, 464, "Discription").sleep(1.0); //#ffffff
mouse_drag((894, 719).into(), (821, 716).into()).sleep(1.0); //#f0f0f0
key_click("2024-01-23").sleep(1.0);
move_to_press_left(740, 305).sleep(1.0); //#f0f0f0
for name in list {
// add baobao
move_to_press_left(476, 253).sleep(1.0); //#ffffff
// name
move_to_press_left(796, 331).sleep(1.0); //#ffffff
key_click("end");
key_click("shift+home");
set_clipboard(name).unwrap().sleep(0.5);
key_click("ctrl+v");
// add fujian
move_to_press_left(870, 587).sleep(1.0); //#000000
mouse_drag((893, 818).into(), (814, 816).into()).sleep(1.0); //#f0f0f0
key_click("2024-01-23").sleep(1.0);
move_to_press_left(723, 206).sleep(1.0); //#000000
}
// set taoshu
move_to_paste(1341, 910, "New_name").sleep(1.0); //#000000
docx_replace
//finds all 'name' and replace with 'andrew'
use doe::*;
docx::docx_replace("./name.docx","name","andrew").unwrap();
docx::docx_get_content("./name.docx").unwrap().dprintln();
docx::docx_remove_read_only("./name.docx").unwrap();
Spawn 特性
use doe::*;
use doe::keyboard::exit_if_click_esc;
let t1 = run.spawn();
let t2 = exit_if_click_esc.spawn();
t1.join();
t2.join();
监听键盘和鼠标
fn main() {
use doe::keyboard::listen_keybord;
use doe::mouse::listen_mouse_position;
use doe::mouse::listen_mouse_scroll;
use doe::mouse::listen_mouse_click;
let t1 = std::thread::spawn(||{
listen_keybord();
});
let t2 = std::thread::spawn(||{
listen_mouse_position();
});
let t3 = std::thread::spawn(||{
listen_mouse_scroll();
});
let t4 = std::thread::spawn(||{
listen_mouse_click();
});
t1.join().unwrap();
t2.join().unwrap();
t3.join().unwrap();
t4.join().unwrap();
}
自动化
生成脚本
fn main(){
use doe::mouse::listen_all;
listen_all();
}
运行以生成脚本
cargor>script.m
script.m
move_to(1562,6);
press("left");
move_to(1453,20);
press("left");
move_to(342,515);
scoll_down();
move_to(496,560);
press("left");
move_to(304,454);
key_press(8);
key_release(8);
press("left");
key_press(162);
key_press(67);
运行脚本
use doe::mouse::automater;
let script = include_str!("../script.m");
automater(script);
鼠标自动化
fn main() {
use doe::mouse;
let script = r#"
move_to::217::135
sleep::1
move_to_press_left::189::137
sleep::1
move_to_press_left::198::185
sleep::1
move_drag::655::343::678::330
sleep::1
// script comment
move_to_paste::479::715::page demo is ok
"#
.trim();
mouse::mouse_automater(script);
}
鼠标点击左键拖动
fn main(){
use doe::mouse::mouse_drag;
mouse_press_left_drag((543,446).into(), (590,460).into());
mouse_drag((543,446).into(), (590,460).into(),"left");
}
fn main()->doe::DynError<()> {
use doe::clipboard::get_clipboard;
use doe::clipboard::set_clipboard;
set_clipboard("rust").unwrap();
let clip = get_clipboard().unwrap();
assert_eq!("rust",clip);
Ok(())
}
cargo add doe -F keyboard
键盘示例
fn main(){
use doe::keyboard::key_press;
use doe::keyboard::key_release;
use doe::keyboard::listen_mouse_position;
use doe::keyboard::get_mouse_position;
use doe::keyboard::listen_keybord;
use doe::keyboard::KeyCode;
key_press(KeyCode::COMMAND);
key_press(KeyCode::V);
key_release(KeyCode::V);
// listen key press and release
listen_keybord();
}
控制鼠标
cargo add doe -F mouse
#arch linux
sudo pacman -S xdotool
#Fedora OR Red Hat
sudo dnf install libxdo-devel
#Ubuntu OR Debian
sudo apt install libxdo-dev
#Cargo.toml add
[build]
rustflags = ["-L", "/usr/local/lib"]
#OR Cargo.toml add
[build]
rustflags = ["-l", "xdo"]
fn main()->doe::DynError<()> {
use std::time::Duration;
use doe::mouse::press;
move_to(300, 700);
press("left");
move_to_with_duration(0, 0,Duration::from_secs(5));
move_and_press_right(800,900);
press("right");
Ok(())
}
CopyString 是一个实现 Copy 特性的结构体
use doe::CopyString;
let mut s = CopyString::default();
s.push_str("11");
s.push_str("22");
s.push_str("33");
s.push_str("44");
dbg!(s);
s.println();
let a = s;
let b = a;
b.println();
实现了 Bts 结构体和 bts! 宏,用于 Box<dyn Fn()> 特性对象
fn main() {
use doe::DebugPrint;
use doe::bfn;
use doe::Bfn;
#[derive(Debug)]
struct Demo<'a>{
name:&'a str
}
let f0 = bfn!(||{println!("ok");});
f0.call();
fn func()->Demo<'static>{
let d = Demo{name: "andrew"};
d
}
let f1 = bfn!(func);
f1.call().println();
fn sum()->usize{
9+89
}
let f2 = Bfn::new(Box::new(sum));//or bfn!(sum);
f2.call().println();
}
实现了 Bts 结构体和 bts! 宏,用于 Box<dyn ToString> 特性对象
fn main() {
use doe::DebugPrint;
use doe::Bts;
use doe::bts;
let mut s:Bts = bts!("Trait Object, it's ");
s.push(bts!(100));
s.push_str("% safe");
s.println();//"Trait Object, it's 100% safe"
s.as_bytes().println();//[84, 114, 97, 105, 116, 32, 79, 98, 106, 101, 99, 116, 44, 32, 105, 116, 39, 115, 32, 49, 48, 48, 37, 32, 115, 97, 102, 101]
s.chars().println();//['T', 'r', 'a', 'i', 't', ' ', 'O', 'b', 'j', 'e', 'c', 't', ',', ' ', 'i', 't', '\'', 's', ' ', '1', '0', '0', '%', ' ', 's', 'a', 'f', 'e']
let b = Into::<Bts>::into("b".to_string());
let b = Bts::from("demo");
}
为 Struct 实现了 Debug、Display、Clone、Default、Drop 特性
fn main() {
use std::sync::{Arc, Mutex};
use doe::*;
struct Doe{
pub name:String,
pub nickname: Box<str>,
key:Arc<Mutex<usize>>
}
impl_display!(Doe,name,nickname,key);
impl_debug!(Doe,name,nickname,key);
impl_default!(Doe,name,nickname,key);
impl_clone!(Doe,name,nickname,key);
impl_drop!(Doe,name,nickname,key);
let d = Doe{name:"andrew".to_string(), nickname: Box::from("func"),key:Arc::new(Mutex::new(15))};
let d1 = Doe::default();
println!("{:?}",d);
println!("{}",d1);
}
为 impl ToString 实现了 format
fn main() {
use doe::Print;
use doe::Str;
use doe::targets;
"this is a {s},I like Trait Object {p}%"
.format(vec![(Box::new("{s}"),Box::new("demo")),(Box::new("{p}"),Box::new(100))]).println();//this is a demo,I like Trait Object 100%
"this is a {d},I like Trait Object {p}}%"
.format(targets!{"{d}"=>"demo","{p}"=>100})
.println(); //this is a demo,I like Trait Object 100%
}
为 impl Display 和 impl Debug 实现了 print、println、eprint、eprintln
use doe::Print;
use doe::DebugPrint;
"printable text".print();//impl Display
"printable text".println();
"printable text".eprintln();
#[derive(Debug)]
struct DebugPrintDemo{}//impl Debug
let d = DebugPrintDemo{};
d.dprint();
d.dprintln();
d.deprintln();
为返回 Vec<(Box<dyn ToString>,Box<dyn ToString>)> 实现了 targets!
fn main() {
use doe::targets;
use doe::Print;
use doe::Str;
"this is a {d},I like Trait Object {p}}%"
.format(targets!{"{d}"=>"demo","{p}"=>100})
.println(); //this is a demo,I like Trait Object 100%
}
通过发送消息通过通道来运行计时器,通过发送 stop_massge 消息来停止
use std::sync::mpsc;
use std::thread;
use std::time::Duration;
fn main() {
let (sender, receiver) = mpsc::channel::<bool>();
let t1 = thread::spawn(move || {
thread::sleep(Duration::from_secs(5));
sender.send(true).unwrap();
});
let t2 = thread::spawn(move || {
run_timer_by_channel(Duration::from_secs(1), receiver, Box::new(|| {
println!("running..");
}));
});
t1.join().expect("Thread panicked");
t2.join().expect("Thread panicked");
}
通过共享状态来运行计时器
fn main() {
use std::sync::{Arc, Mutex};
let run_state = Arc::new(Mutex::new(true));
let t1 = std::thread::spawn({
let run_state = Arc::clone(&run_state);
move || {
std::thread::sleep(std::time::Duration::from_secs(5));
*run_state.lock().unwrap() = false;
}
});
let t2 = std::thread::spawn({
let run_state = Arc::clone(&run_state);
move || {
run_timer_by_state(
std::time::Duration::from_secs(1),
run_state,
Box::new(|| {
// Function body goes here
println!("Running...");
}),
);
}
});
// Wait for the threads to finish
t1.join().expect("Thread panicked");
t2.join().expect("Thread panicked");
}
计时器参数::start_time:Instant,step_time:Duration,stop_time:Duration,func:Box<dyn Fn()>
fn run(){
println!("running ");
}
run_timer(std::time::Instant::now(),std::time::Duration::from_secs(1),std::time::Duration::from_secs(5),Box::new(run));
fs 模块的用法
fn main() {
use doe::fs::*;
use doe::DebugPrint;
use doe::Str;
use std::ops::Deref;
use doe::fs::home_dir;
use doe::DebugPrint;
home_dir().display().dprintln();
// append data to file
append_data_to_file("demo.txt", "demo".as_bytes().to_vec()).unwrap();
// get all files and folders
walk_dir(".".to_path().deref()).unwrap().println();
// get all folders
walk_dir_get_files(".".to_path().deref()).unwrap().println();
// get all folders
walk_dir_get_folders(".".to_path().deref())
.unwrap()
.println();
//move file the directory to a new directory
move_file(
"/Users/ryanandrew/code/test/t1/demo.zip".to_path().deref(),
"/Users/ryanandrew/code/test/t2/d2.zip".to_path().deref(),
)
.unwrap();
//copy file the directory to a new directory
copy_file(
"/Users/ryanandrew/code/test/t1/demo.zip".to_path().deref(),
"/Users/ryanandrew/code/test/t2/d2.zip".to_path().deref(),
)
.unwrap();
//move all files in the directory to a new directory
move_folder(
"/Users/ryanandrew/code/test/t1".to_path().deref(),
"/Users/ryanandrew/code/test/t2/t1".to_path().deref(),
)
.unwrap();
//copy all files in the directory to a new directory
copy_folder(
"/Users/ryanandrew/code/test/d1".to_path().deref(),
"/Users/ryanandrew/code/test/d2".to_path().deref(),
)
.unwrap();
}
类似于 Python 的 os.system() 函数
pub fn run() {
//linux and macos
system!("ping bing.com");
// in windows
system_powershell!("ls");
system!("python -m http.server"); //run in cmd
}
为 str 和 String 实现了 cut 格式
use doe::Str;
let a = "this is a demo {}";
let c = a.cut(-1,-2,1);
let f = a.format("so {}").format("how good is");
println!("{:?}",f);
println!("{:?}",c);
类型转换
use doe::*;
let s = as_to!(5., i64);
assert_eq!(5, s);
如果类型是 i8 返回 true
use doe::*;
assert_eq!(macros::is_i8(&5_i8),true);
如果类型是 i16 返回 true
use doe::*;
assert_eq!(macros::is_i16(&5_i16),true);
如果类型是 i32 返回 true
use doe::*;
assert_eq!(macros::is_i32(&5_i32),true);
如果类型是 i64 返回 true
use doe::*;
assert_eq!(macros::is_i64(&5_i64),true);
如果类型是 i128 返回 true
use doe::*;
assert_eq!(macros::is_i128(&5_i128),true);
如果类型是 f32 返回 true
use doe::*;
assert_eq!(macros::is_f32(&5.0_f32),true);
如果类型是 f64 返回 true
use doe::*;
assert_eq!(macros::is_f64(&5.0_f64),true);
返回 a 的 b 次幂
use doe::*;
let p = powf!(2.,2.);
assert_eq!(p,4.0);
获取参数并收集到 Vec<String>
use doe::*;
//cargo run -- -n 100
let arg = args!();
assert_eq!(arg,vec![format!("-n"),format!("100")]);
从终端获取用户输入,返回 String
use doe::*;
let s = input!();
println!("{:?}",s);
通过分隔符分割 &str 并收集到 Vec<String>
use doe::*;
let s = split_to_vec!("aa.bb",".");
assert_eq!(s,vec![format!("aa"),format!("bb")]);
读取 .csv 文件并将内容收集到 Vec<Vec<String>>
use doe::*;
let s = read_csv!("./data.csv");
assert_eq!(s,vec![vec![format!("a"), format!("b"), format!("c")],vec![format!("1"), format!("2"), format!("3")],vec![format!("10"), format!("20"), format!("30")]]);
排序后的新 Vec
use doe::*;
let s1 = sorted!(vec![1.2, 2.6, 0.2]);
let s2 = sorted!(vec![8, 1_i128, 5_i128]);
assert_eq!(s1,vec![0.2,1.2,2.6]);
assert_eq!(s2,vec![1,5,8]);
排序并去重后的 Vec
use doe::*;
let s1 = deduped_sorted!(vec![1.2, 1.2,2.6, 0.2]);
let s2 = deduped_sorted!(vec![8, 1_i128,8,5_i128]);
assert_eq!(s1,vec![0.2,1.2,2.6]);
assert_eq!(s2,vec![1,5,8]);
将 Vec 元素解析为类型,解析 Vec<&str> 并收集到 Vec<type>
use doe::*;
let v1: Vec<f64> = vec_element_parse!(vec!["15.", "2.9"], f64);
let v2: Vec<i128> = vec_element_parse!(vec!["15", "2"], i128);
let v3: Vec<f32> = vec_element_parse!(vec![".15", ".2"], f32);
assert_eq!(vec![15.0, 2.9], v1);
assert_eq!(vec![15, 2], v2);
assert_eq!(vec![0.15, 0.2], v3);
将 vec 元素转换为 String,返回 Vec<String>
use doe::*;
let v1 = vec_element_to_string!(vec!["15.", "2.9"]);
let v2 = vec_element_to_string!(vec![15, 2]);
let v3 = vec_element_to_string!(vec![0.15, 0.2]);
assert_eq!(vec!["15.", "2.9"], v1);
assert_eq!(vec!["15", "2"], v2);
assert_eq!(vec!["0.15", "0.2"], v3);
返回从最外层元素到中间元素,按顺时针方向(n x n)排列的数组元素
use doe::*;
let v1 = snail_sort!(vec![vec![1, 2, 3], vec![4, 5, 6], vec![7, 8, 9]]);
let v2 = snail_sort!(vec![vec![1.1, 2.1, 3.1],vec![4.1, 5.1, 6.1],vec![7.1, 8.1, 9.1]]);
assert_eq!(vec![1, 2, 3, 6, 9, 8, 7, 4, 5], v1);
assert_eq!(vec![1.1, 2.1, 3.1, 6.1, 9.1, 8.1, 7.1, 4.1, 5.1], v2);
乘以两个矩阵
use doe::*;
let m1 = [[1, 2, -1], [-1, 3, 4], [1, 1, 1]].map(|s| s.to_vec()).to_vec();
let m2 = [[5, 6], [-5, -6], [6, 0]].map(|s| s.to_vec()).to_vec();
let mul_result1 = multiply_matrix!(&m1, &m2);
assert_eq!(mul_result1, [[-11, -6], [4, -24], [6, 0]]);
let m11 = [[1., 2., -1.], [-1., 3., 4.]].map(|s| s.to_vec()).to_vec();
let m22 = [[5.5, 6.], [-5., -6.5]].map(|s| s.to_vec()).to_vec();
let mul_result2 = multiply_matrix!(&m11, &m22);
assert_eq!(mul_result2, [[-4.5, -7.0], [-20.5, -25.5]]);
let m111 = [[1., 2., -1.], [-1., 3., 4.]].map(|s| s.to_vec()).to_vec();
let m222 = [[5.5, 6.]].map(|s| s.to_vec()).to_vec();
let mul_result3 = multiply_matrix!(&m111, &m222);
assert_eq!(mul_result3, [[5.5, 6.0]]);
找到第一个元素并删除
use doe::*;
let v1 = vec_element_remove!(vec!["15.", "2.9"], "2.9");
let v2 = vec_element_remove!(vec![15, 2, 3, 2], 2);
let v3 = vec_element_remove!(vec![0.15, 0.2, 0.2], 0.2);
assert_eq!(vec!["15."], v1);
assert_eq!(vec![15, 3, 2], v2);
assert_eq!(vec![0.15, 0.2], v3);
找到元素位置并收集到 Vec
use doe::*;
let v1 = vec_element_position_all!(vec![1, 2, 5, 3, 6, 2, 2], 2);
assert_eq!(v1, vec![1, 5, 6]);
let v2 = vec_element_position_all!(vec!["0".to_string(),"4".to_string(),"7".to_string(),"7".to_string(),], "7".to_string());
assert_eq!(v2, vec![2,3]);
按范围切片 vec
use doe::*;
let v1 = vec_slice!(vec![1.2, 1.5, 9.0], [..2]);
let v2 = vec_slice!(vec![1, 1, 9, 90, 87, 0, 2], [4..6]);
let v3 = vec_slice!(vec![1.2, 1.5, 9.0], [..]);
let v4 = vec_slice!(vec![1.2, 1.5, 9.0], [1..]);
let v5 = vec_slice!(vec!["1", "2", "3", "4", "5"], [2..5]);
let v6 = vec_slice!(vec!["1".to_string(),"2".to_string(),"3".to_string()], [1..]);
assert_eq!(v1, vec![1.2, 1.5]);
assert_eq!(v2, vec![87, 0]);
assert_eq!(v3, vec![1.2, 1.5, 9.0]);
assert_eq!(v4, vec![1.5, 9.0]);
assert_eq!(v5, vec!["3", "4", "5"]);
assert_eq!(v6,vec!["2".to_string(),"3".to_string()]);
按索引克隆元素
use doe::*;
let v1 = vec_element_clone!(vec!["15.", "2.9"], 1);
let v2 = vec_element_clone!(vec![15, 2, 3, 2], 2);
let v3 = vec_element_clone!(vec![0.15, 0.2, 0.2], 0);
let v4 = vec_element_clone!(vec![format!("1"),format!("2"),format!("3"),format!("4"),format!("5")],4);
assert_eq!("2.9", v1);
assert_eq!(3, v2);
assert_eq!(0.15, v3);
assert_eq!(format!("5"), v4);
删除文件或文件夹
remove_file_or_folder!("./demo.txt");
remove_file_or_folder!("./target");
获取 vec 类型,返回字符串类型值
use doe::*;
assert_eq!(vec_type!(vec![0.2_f64]), format!("Vec<f64>"));
assert_eq!(vec_type!(vec![0.2_f32]), format!("Vec<f32>"));
assert_eq!(vec_type!(vec![2_i32]), format!("Vec<i32>"));
assert_eq!(vec_type!(vec![2_i128]), format!("Vec<i128>"));
assert_eq!(vec_type!(vec![2_isize]), format!("Vec<isize>"));
assert_eq!(vec_type!(vec![2_usize]), format!("Vec<usize>"));
转换 vec 元素类型
use doe::*;
let v1: Vec<f64> = vec_element_convert!(vec![1, 2], f64);
let v2: Vec<i32> = vec_element_convert!(vec![1.0, 2.0], i32);
let v3: Vec<i128> = vec_element_convert!(vec![1.0, 2.0], i128);
let v4: Vec<i32> = vec_element_convert!(vec![1_usize, 2_usize], i32);
let v5: Vec<i64> = vec_element_convert!(vec![0.15, 2.0], i64);
assert_eq!(v1, vec![1.0, 2.0]);
assert_eq!(v2, vec![1, 2]);
assert_eq!(v3, vec![1, 2]);
assert_eq!(v4, vec![1, 2]);
assert_eq!(v5, vec![0, 2]);
expr 返回最大值
use doe::*;
let re_max = max!(1, 20);
assert_eq!(re_max,20);
expr 返回最小值
use doe::*;
let re_min = min!(10, 2, 2, 5, 4, 6);
assert_eq!(re_min,2);
将二进制字符串转换为十进制
use doe::*;
let d1 = binary_to_decimal!("01101",i128);
assert_eq!(d1,13_i128);
let d2 = binary_to_decimal!("00000000000010100110001",i64);
assert_eq!(d2,1329_i64);
let d3 = binary_to_decimal!("000011",i32);
assert_eq!(d3,3_i32);
let d4 = binary_to_decimal!("000101",i16);
assert_eq!(d4,5_i16);
let d5 = binary_to_decimal!("001001",i8);
assert_eq!(d5,9_i8);
expr 返回内存地址
use doe::*;
let d1 = binary_to_decimal!("01101",i128);
println!("{:?}",memory_address!(d1));//0x7ffcac734f08
合并两个 Vec,返回合并后的 Vec
use doe::*;
let v1 = vec_merge!(vec![0, 1, 2], vec![5, 6, 7]);
assert_eq!(vec![0, 1, 2, 5, 6, 7],v1);
let v2 = vec_merge!(vec![0., 1., 2.], vec![5., 6., 7.]);
assert_eq!(vec![0., 1., 2., 5., 6., 7.],v2);
获取元素的大小并返回一个新 vec
use doe::*;
let v1 = vec_element_take!(vec![0, 1, 2],2);
assert_eq!(vec![0,1],v1);
将两个 vec 元素组合成元组
use doe::*;
let v1 = vec_zip!(vec![0, 1, 2],vec![0, 1, 2]);
assert_eq!(vec![(0,0),(1,1),(2,2)],v1);
枚举所有索引和元素,收集到 vec 的元组中
use doe::*;
let v1 = vec_enumerate!(vec![12, 11, 20]);
assert_eq!(vec![(0,12),(1,11),(2,20)],v1);
排序 vec 并返回排序后的 vec
use doe::*;
let v1 = vec_sort!(vec![10, 2, 3]);
assert_eq!(vec![2,3,10],v1);
let v2 = vec_sort!(vec![1.8, 2.5, 0.3]);
assert_eq!(vec![0.3,1.8,2.5],v2);
检查 rust nightly 是否稳定返回 bool
use doe::*;
let v1 = has_nightly_compiler!();
assert_eq!(v1, true);
检查 rust 编译器是否稳定返回 bool
use doe::*;
let v1 = has_stable_compiler!();
assert_eq!(v1, false);
运行命令
use doe::*;
command!("ls -la");
command!("dust");
command!("lsd");
在特定延迟(毫秒)后运行一次函数
use doe::*;
set_timeout!(||{
println!("ok");
},3000);
在特定延迟(毫秒)后运行函数,每次运行延迟(毫秒)
use doe::*;
duration_set_timeout!(||{
println!("ok");
},3000,1000); //from now delay 3000ms,each 1000ms run func()
反复运行函数,开始于一些毫秒后,然后以给定的间隔连续重复。
use doe::*;
set_interval!(||{
println!("ok");
},3000);
获取当前的 UTC 时间戳
use doe::*;
let t = utc_timestamp!();
eprintln!("{}", t);
获取本地现在时间
use doe::*;
let t = local_now!();
eprintln!("{}", t);
获取 Utc 现在时间
use doe::*;
let t = utc_now!();
eprintln!("{}", t);
HashMap 宏
use doe::*;
use std::collections::HashMap;
let mut map:HashMap<i32,i32> = hashmap!();
map.insert(0, 1);
let map1 = hashmap!(2=>5,3=>4);
BTreeMap 宏
use doe::*;
use std::collections::BTreeMap;
let mut map:BTreeMap<i32,i32> = btreemap!();
map.insert(0, 1);
let map1 = btreemap!(2=>5,3=>4);
依赖项
~0–42MB
~600K SLoC