Skip to content

the USC AUV team's logic for path following and task execution

License

Notifications You must be signed in to change notification settings

haydenshively/USC-AUV-Main-Module

 
 

Folders and files

NameName
Last commit message
Last commit date

Latest commit

 

History

62 Commits
 
 
 
 
 
 
 
 
 
 
 
 

Repository files navigation

USC AUV Main Module

the USC AUV team's logic for path following and task execution; can run in Python 2 or 3

build/install instructions:

  1. Make sure you're in the root directory (the one with setup.py)
  2. python3 setup.py sdist bdist_wheel
  3. cd dist
  4. pip3 install main_module-0.0.1-py3-none-any.whl

You can also download the wheel here: https://github.com/usc-auv-team/main.module/releases/tag/0.0.1

primary code outline:
gyro
_abstract: requirements of a gyro class
ros_gyro: an implementation with callback methods for use with ROS
simulation: an implementation that requires no external inputs and allows for quick debugging

odometer
_abstract: definition and explanation of what a gyro class does
disconnected: an implementation that yields no data (if we need to "fly blind")
ros_odometer: an implementation with callback methods for use with ROS
simulation: an implementation that requires no external inputs and allows for quick debugging

paths
_abstract: requirements for creating Leash-compatible lines and curves
cubic_spline: an implementation allowing us to swim along cubic splines
curve: an implementation allowing us to swim along a curve defined by a parametric equation
point_list: an implementation allowing us to swim from point to point in a list

planning
events: logic for executing arbitrary commands at specified points on a path
leash: logic for autonomously following paths with propulsion
strategy: abstract class for combining and following a set of events and a leash
s2018
coach: a class that lists possible strategies and initializes whichever one gets chosen
test: contains 2 strategy implementations for debugging purposes

propulsion
_abstract: requirements for creating an autonomous-capable propulsion class
robot2018: an implementation to be used with ROS this year
simulation: an implementation that requires no external inputs and allows for quick debugging

subsystems
_abstract: requirements for creating an autonomous-capable subsystem

Please contact hshively@usc.edu if you have questions.

About

the USC AUV team's logic for path following and task execution

Topics

Resources

License

Stars

Watchers

Forks

Packages

No packages published

Languages

  • Python 100.0%