3 releases
0.1.2 | Sep 9, 2024 |
---|---|
0.1.1 | Jun 6, 2024 |
0.1.0 | Jun 6, 2024 |
#306 in Math
105KB
1.5K
SLoC
inovo-rs
Inovo Robot API
inovo_rs
is a library with communication, command, and utility function and data structure for
intergrating inovo robot arm for automation solution.
Installation
cargo add inovo-rs
Example
use inovo_rs::geometry::*;
use inovo_rs::iva::CustomCommand;
use inovo_rs::logger::Logger;
use inovo_rs::robot::*;
fn main() -> Result<(), RobotError> {
// create a new default logger
let mut logger = Logger::default_target("Robot Example");
logger.info("Creating new robot.");
// create a new client to the robot
let mut bot = Robot::defaut_logger(50003, "192.168.1.121")?;
// Motion Parameter
//
// motion parameter for the robot's movement
let param_1 = MotionParam::new()
.set_speed(100.0)
.set_accel(100.0)
.set_blend_linear(1000.0)
.set_blend_angular(720.0)
.set_tcp_speed_linear(1000.0)
.set_tcp_speed_angular(720.0);
let param_2 = MotionParam::new()
.set_speed(10.0)
.set_accel(10.0)
.set_blend_linear(1.0)
.set_blend_angular(1.0)
.set_tcp_speed_linear(100.0)
.set_tcp_speed_angular(100.0);
let param_3 = MotionParam::new()
.set_speed(50.0)
.set_accel(50.0)
// you can leave some of the parameter unset
// the robot will just not change the value of when recieve command
// .set_blend_linear(1.0)
// .set_blend_angular(1.0)
.set_tcp_speed_linear(100.0)
.set_tcp_speed_angular(90.0);
// Getting Current Transform and Joint Coordinate of the robot
//
// get the current transform of the robot
let home_transform = bot.get_current_transform()?;
// get the current joint coordinate of the robot
let home_joint_coord = bot.get_current_joint()?;
// Handling geometry data
let vz = Transform::from_z(100.0);
let rz = Transform::from_z(10.0);
let vxyz = Transform::from_vector([100.0, 100.0, 100.0]);
let tx = home_transform.clone().then_x(100.0);
let ty = home_transform.clone().then_y(100.0);
let j1 = home_joint_coord.clone().then_j1(90.0);
let j2 = j1.clone() + JointCoord::from([10.0, 10.0, 10.0, 10.0, 10.0, 10.0]);
// Robot Command
//
// set the motion of the robot
bot.set_param(param_1.clone())?;
// perform a linear motion
bot.linear(tx.clone())?;
// sleep
bot.sleep(1.0)?;
// you can chain command
// it will execute on at a time
bot.linear_relative(vz.clone())?
.sleep(1.0)?
.set_param(param_2.clone())?
.joint(ty.clone())?
.sleep(1.0)?
.joint_relative(vxyz.clone())?
.sleep(1.0)?
// joint motion can take both `JointCoord` and `Transform` as target
// while other can only take `Transform` as target
.joint(j1.clone())?
.set_param(param_3.clone())?
.joint(home_transform.clone())?;
// you can also create a command sequence for all of the command
let command_sequence = CommandSequence::new()
.then_set_param(param_1.clone())
.then_linear(home_transform.clone())
.then_sleep(1.0)
.then_linear(tx.clone())
.then_linear_relative(vz.clone())
.then_set_param(param_2.clone())
.then_joint(ty.clone())
.then_joint_relative(vz.clone())
.then_set_param(param_3.clone())
.then_joint(j2.clone())
.then_joint(home_joint_coord.clone());
// in this case the robot will execute all of them before responing
bot.sequence(command_sequence.clone())?;
// Context
//
// the `with` keywork denote context manager
// it will create a RAII guard that reverse the motion automatically
// after the guard is drop
bot.with_linear(tx.clone())?;
{
let guard = bot.with_linear_relative(vz.clone())?;
// do some other stuff
} // the robot motion will automatically reverse here
//
// you can chain context like this
bot.with_linear_relative(Transform::from_x(100.0))?
.with_linear_relative(Transform::from_y(100.0))?
.with_linear_relative(Transform::from_z(100.0))?;
//
//
//
{
let mut guard_1 = bot.with_joint(ty.clone())?;
let mut guard_2 = guard_1.with_joint_relative(rz.clone())?;
let mut guard_3 = guard_2.with_joint(j1.clone())?;
// do some other stuff
//
// you can early drop the guard and its motion will be reverse
drop(guard_3)
//
// some other stuff
//
} // all guard will be reverse here
//
//
// you can even do it with a while sequence
bot.with_sequence(command_sequence)?;
// Gripper interface
//
// activating the gripper
bot.gripper_activate()?;
// getting/setting the gripper
bot.gripper_set("open")?;
logger.info(format!("gripper get: {}", bot.gripper_get()?));
bot.gripper_set("close")?;
logger.info(format!("gripper get: {}", bot.gripper_get()?));
// Digital IO
//
// getting/setting the digital IO
for i in 0..8 {
bot.beckhoff_set(i, true)?;
bot.sleep(1.0)?;
let b = bot.beckhoff_get(i)?;
logger.info(format!("Beckhoff Input - port {}, state : {}", i, b));
bot.sleep(1.0)?;
bot.beckhoff_set(i, false)?;
bot.sleep(0.5)?;
}
// Data
//
// getting the data from robot data storeage
let my_bool: bool = bot.get_data("my bool")?;
let my_i64: i64 = bot.get_data("my i64")?;
let my_f64: f64 = bot.get_data("my f64")?;
let my_string: String = bot.get_data("my string")?;
let my_joint_coord: JointCoord = bot.get_data("my joint_coord")?;
let my_transform: Transform = bot.get_data("my transform")?;
let my_waypoint_j: JointCoord = bot.get_data("my waypoint")?;
let my_waypoint_t: Transform = bot.get_data("my waypoint")?;
logger.info(format!("my bool : {}", my_bool));
logger.info(format!("my i64 : {}", my_i64));
logger.info(format!("my f64 : {}", my_f64));
logger.info(format!("my string : {}", my_string));
logger.info(format!("my joint coord : {:?}", my_joint_coord));
logger.info(format!("my transform : {:?}", my_transform));
logger.info(format!("my way point j : {:?}", my_waypoint_j));
logger.info(format!("my way point t : {:?}", my_waypoint_t));
// Custom Command
//
// you need to implement the custom command in block first
// then you can use it in here
let custom_command = CustomCommand::new()
.add_float("my_float", 69.420)
.add_string("my_string", "this is a string key");
let response = bot.custom(custom_command)?;
logger.info(response);
Ok(())
}
License: MIT
Dependencies
~10–18MB
~268K SLoC