sanchit2843 / Inventory-Management-AGV

This project involves the simulation of pick and place robot in ROS melodic.

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Inventory-Management-AGV

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Overview

Manfred - The Automated Guided Vehicle

With the increase in eCommerce, the need for logistics and supply chain has only gone up. Warehousing becomes very challenging because manual operators are required to restock and move stuff around. Though conveyer belts were a convenient solution a few years back their inability to be dynamic and cemented at a specific location makes it challenging to use them in increasingly complex scenarios. This solution is often replaced with humans handling forklifts and moving the stacks around. With improvements in robotics technology, solutions can be developed to automate these machines which will save numerous man-hours and can also work around the hours thus saving the cost of shipment for both companies and customers. Manfred (project name) is an AGV for the task of inventory management in the warehouse which is tasked to move objects from one location to another after the user inputs the pickup and drop location.

Aim of the Product

The aim of the product is to reduce the human hours required for logistics in the warehouse. The development of the product will also facilitate the development of future products by independently using the already developed modules, for example, a similar AGV can be developed for transporting stuff in any other indoor environment like replacing waiters in restaurants or automated vacuums. Thus most of these modules can be directly used in other products facilitating quicker development and reducing time to market.

Module Description

The Software Product will consist of 4 modules each tasked with different aspects of the product, these modules are:

  1. Communication Module: The purpose of this module is to establish communication with the user, the robot needs the input of pickup and drop location from the user, this will serve as the input for the later modules. This module can also be used as the kill switch for the robot in case of any problems.
  2. Path planning, localization and navigation module: This module uses several sensors like cameras and lidar to create a map(gmapping ) of the warehouse. This map will help in localizing the current location of the robot and navigating the object to the desired location. This module also consists of obstacle detection which will help in avoiding collisions and dynamically change the path robot takes in case any obstacle is encountered. This module also controls the actuators which control the motion of the robot.
  3. Perception module: This module will be used to locate the pickup object and the drop off location in the 3d world coordinates which will be used by the manipulator module to pickup or drop the object from the exact location. This module includes object detection and poses estimation of the desired object to facilitate the pickup of the object without damaging the product that needs to be picked up. Different sensors will be used to locate the objects in 3d world coordinates.
  4. Manipulator planning and control: This module will take the 3d location and pose of the desired object from the previous module. This input will be used to plan and move the manipulator (robotic hand) to the extracted location and place the object back in a bin, the module will also have to inform the bot when the task is executed so that object can move to the next task of navigating to the drop off location.

AGV with inventory management capabilities

Team

The Members are Graduate students at The University of Maryland, College Park. The members each have a Bachelors in Mechanical Engineering from prestigious universities in India. Their Graduate Study is in the field of Robotics with each of them having a specialization. Sanchit is pursuing a career in Computer vision and perception, Sairam aims to build his career in Deep Learning and Computer Vision and Shelvin is developing expertise in SLAM and Autonomous Vehicles.

Phase Sanchit Tanwar Shelvin Pauly Venkata Sairam Polina
1 Design Keeper Navigator Driver
2 Driver Design Keeper Navigator
3 Navigator Driver Design Keeper

Tools and Technologies

Ubuntu 18.04(LTS) ROS Melodic Gazebo Rviz CMake OpenCV GitHubCI Codecov Makefile CMake cpplint cppcheck clangd Valgrind GTest VScode

Dependencies

Software Dependencies

ROS Package Dependencies

Command-line installations

Code Coverage

sudo apt-get install -y -qq lcov

Static Code Analysis

sudo apt install cpplint
sudo apt install cppcheck

Doxygen

sudo apt install graphviz
sudo apt install doxygen-gui

Content Tree

├── CMakeLists.txt
├── docs
│   ├── html
│   └── latex
├── finalproject_enpm808x_proposal.pdf
├── include
│   ├── manipulation.hpp
│   ├── my_tiago.hpp
│   ├── navigation.hpp
│   ├── object.hpp
│   └── perception.hpp
├── launch
│   └── tiago_launch.launch
├── LICENSE
├── package.xml
├── Quadchart
│   └── quad_chart_.pdf
├── README.md
├── results
│   ├── cppcheck.txt
│   └── cpplint.txt
├── src
│   ├── manipulation.cpp
│   ├── my_tiago.cpp
│   ├── navigation.cpp
│   ├── object.cpp
│   └── perception.cpp
├── test
│   ├── main.cpp
│   ├── main_test.test
│   ├── test_manipulation.cpp
│   ├── test_navigation.cpp
│   ├── test_object.cpp
│   └── test_perception.cpp
└── UML
    ├── initial
    └── revised 

Software Project Management

  • Process, Tools and Technologies, Risk Management, References - Project Proposal

  • Implementation, Class Diagram, Activity Diagram - UML Diagrams

Development Aspects

Agile Iterative Development Process was used to develop the simulation along with Test-Driven Development.

Product Backlog and Sprint Sheet

Sprint Review Sheet

To run the simulation

  • Make sure all the above dependencies are installed in your system.

  • Navigate in to the src folder of of your ROS workspace.

  • Clone the package

git clone  https://github.com/sairampolina/Inventory-Management-AGV.git
  • Build the package
cd ..
catkin build im_agv
  • Source the workspace
source ./devel/setup.bash
  • Run the launch file
roslaunch im_agv tiago_launch.launch

To run unit tests

. /opt/ros/melodic/setup.bash
catkin config --cmake-args -DCMAKE_CXX_FLAGS="-Wall -Wno-unused --coverage -fno-inline -fno-inline-small-functions -fno-default-inline" -DCMAKE_C_FLAGS="-Wall -Wno-unused --coverage -fno-inline -fno-inline-small-functions -fno-default-inline" -DCMAKE_BUILD_TYPE=Debug -DCMAKE_EXE_LINKER_FLAGS="-lgcov"
catkin build
catkin run_tests -i && catkin_test_results

Static Code Analysis

Navigate in to the ROS package.Then run

  1. cppcheck
cppcheck --enable=all src/*.cpp include/*.hpp test/*.cpp --suppress=missingIncludeSystem --suppress=missingInclude --suppress=unmatchedSuppression --suppress=unusedFunction --suppress=unreadVariable --suppress=useInitializationList > ./results/cppcheck.txt
  1. cpplint
cpplint --filter=-build/c++11,-build/namespaces,-build/include_order src/*.cpp include/*.hpp test/*.cpp &> ./results/cpplint.txt

Code Coverage

lcov --directory . --capture --output-file coverage.info
lcov --remove coverage.info '/opt/*' '/usr/*' '*/devel/*' '*_test*' --output-file coverage.info
lcov --list coverage.info

Doxygen Documentation

In the terminal execute the command to open a GUI.

doxywizard

Results

Demonstration Video

Final Presentation

License

Apache License 2.0

DISCLAIMER: Copyright 2022 Sanchit Tanwar, Shelvin Pauly, Venkata Sairam Polina

Licensed under the Apache License, Version 2.0 (the "License");
you may not use this file except in compliance with the License.
You may obtain a copy of the License at

    http://www.apache.org/licenses/LICENSE-2.0
    
Unless required by applicable law or agreed to in writing, software
distributed under the License is distributed on an "AS IS" BASIS,
WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
See the License for the specific language governing permissions and
limitations under the License.

About

This project involves the simulation of pick and place robot in ROS melodic.

License:Apache License 2.0


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