
MICRO DEGREE
Autonomous Robotics Programming Engineer
Autonomous Robotics Programming Engineer
100% LIVE Interactive Classes
Autonomous Robotics Programming Engineer

100% LIVE Interactive Classes
Reserve your spot today!
Basic Info
Select Offers
Application closes on:21 Jun 2026
Get instant access of pre-course material!
Talk to Us
We’re here to help! Reach us at:
What is in it for you?
100% Live Classes
Instructor-led Live Sessions
Attend 4 weeks of instructor led live classes from the top 1% industry experts
Projects & Case Studies
Projects & Case Studies
Gain hands-on experience with projects and real-world case studies for impactful learning.
Verified Certificate
Verified Certificate
Earn a industry recognized certificate and kick start your career
Session Recordings
Session Recordings
Revisit older chapters anytime with recorded sessions
Flexible Schedule
Flexible Schedule
Choose live classes from different cohorts that fit your availability.
Hands-on Classes
Hands-on Classes
Hands-on classes to enhance your learning experience
100% Moneyback Guarantee
Grab your slot before the offer expires
Reserve your spot today!
Basic Info
Select Offers
Application closes on:21 Jun 2026
Get instant access of pre-course material!
Talk to Us
We’re here to help! Reach us at:
Learn from Top 1%
Sr. Managers, VPs, CXOs, Directors & Founders from companies shaping the future.

Combo Offers
Create Your Own Combo
100% Moneyback Guarantee
Available in 4 monthly installments at $163/month
Reserve your spot today!
Curriculum
Duration: 6 weeks
Max Batch Size: 15 persons
Live Sessions Schedule
Sat - Sun (Weekends Only)
Timing 7:00 AM - 9:00 AM / 8:30 AM - 10:30 AM / 11:00 AM - 1:00 PM / 5:00 PM - 7:00 PM / 7:30 PM - 9:30 PM EST
- What is an Autonomous Robot: Key Components and Architecture
- Overview of ROS2, Python, and Gazebo Simulation Environment
- Installing and Configuring the Robotics Development Environment
- Understanding Nodes, Topics, and Messages in ROS2
- First Hands-on: Move a Robot in Simulation Using Python
- Testing Motion Commands and Robot States in RViz
Mentors

Sr. Robotics R&D Engineer, GreyOrgange Robotics
Course Includes

LIVE Interactive Sessions

Quizzes, Assignments & Projects

Study Materials & Session Recordings

Certificate
Tools Covered
Course Includes

LIVE Interactive Sessions

Quizzes, Assignments & Projects

Study Materials & Session Recordings

Certificate
Course Pre-requisites
Basic programming skills in Python or C++
Foundational understanding of linear algebra and physics (kinematics, dynamics)
Familiarity with Linux command-line operations
Outcomes
Build autonomous robot navigation systems using SLAM, path planning, and obstacle avoidance algorithms
Design and program robotic systems using ROS 2 for perception, planning, and control pipelines
Implement computer vision pipelines with OpenCV for real-time environmental perception and object detection
Develop sensor fusion techniques integrating LiDAR, cameras, and IMU data for robust localization
Design motion planning and control algorithms for mobile robots and robotic manipulators
Build decision-making systems using state machines and behavior trees for autonomous robot behavior
Deploy, simulate, and test autonomous robots in Gazebo simulation environments
Integrate embedded hardware platforms with ROS 2 nodes for real-world autonomous robot prototyping
Projects You Will Build
Practical, enterprise-grade projects that reflect real industry challenges
Autonomous Delivery Robot
Build a mobile robot in Gazebo that autonomously navigates a warehouse environment, detects packages using computer vision, and delivers them to designated drop-off points. Implement SLAM for mapping, A* or RRT path planning for navigation, and ROS 2 nodes for coordinating perception and control.
Autonomous Obstacle-Avoidance Mobile Platform
Design a self-driving mobile platform that uses LiDAR and camera sensor fusion to perceive its environment, avoid dynamic obstacles, and reach goal waypoints. Integrate behavior trees for decision-making and test the complete system in both Gazebo simulation and on an Arduino-based hardware prototype.
Autonomous Surveillance Drone System
Develop an autonomous drone that patrols a designated area, detects and tracks intruders using OpenCV-based object detection, and streams alerts to a monitoring dashboard. Leverage SLAM for localization, ROS 2 for system integration, and Gazebo for simulated flight testing and validation.

for successfully completing the 'Autonomous Robotics Programming Engineer' course conducted from 09 May 2026 to 20 Jun 2026
Add a Industry Recognized
Certificate To Your Resume
Industry Recognized
Certificate
Learn the best from the best

Career Advancements
Elevate your career with a respected certificate

Industry Respect
Gain credibility in the field

Networking
Connect with experts and peers

Opportunities
Attract exciting job prospects and promotions


for successfully completing the 'Autonomous Robotics Programming Engineer' course conducted from 09 May 2026 to 20 Jun 2026

100% Moneyback Guarantee
Top 1% Recruiters - Get interview access to 550+ Companies

Frequently Asked Questions
Everything you need to know about the course
You should have basic programming skills in Python or C++, a foundational understanding of linear algebra and physics (kinematics, dynamics), and familiarity with Linux command-line operations. No prior robotics experience is required.
The curriculum covers ROS 2 architecture and programming, SLAM and autonomous navigation, path planning algorithms (A*, RRT), computer vision with OpenCV, sensor fusion (LiDAR, cameras, IMU), motion planning and control, decision-making with behavior trees and state machines, simulation in Gazebo, and embedded hardware integration with Arduino.
You should expect to invest approximately 15-20 hours per week, which includes video lectures, coding exercises, simulation labs, and project work. The hands-on projects are spread across the 6-week duration to reinforce each module's concepts.
You will complete three industry-relevant projects: an autonomous delivery robot with SLAM and path planning, an obstacle-avoidance mobile platform with sensor fusion and behavior trees, and an autonomous surveillance drone with computer vision and real-time tracking. All projects are built using ROS 2 and tested in Gazebo simulation.
Graduates are prepared for roles such as Robotics Engineer, Autonomous Vehicle Developer, Embedded Systems Programmer, and Automation and Control Specialist. The portfolio of three real-world projects and proficiency in industry-standard tools like ROS 2 and Gazebo make you a competitive candidate in the growing autonomous systems job market.
You will work extensively with ROS 2 for robotic system development, Python for programming, Gazebo for simulation and testing, OpenCV for computer vision, Arduino for embedded hardware prototyping, and RViz for robot state visualization. All tools are industry-standard and widely used in professional robotics engineering.
The Micro Degree course is an online LIVE course, where LIVE sessions will be conducted online on our Classroom platform. Prior to the start of the course, you'll receive preparatory material in the form of recorded content which can be access on the same platform.
In this course instructors will use English language for teaching.
Upon successful registration, you will receive a confirmation email on your registered email ID. In this email you will receive login details for your newly created account on the Edyoda Classroom platform (https://classroom.edyoda.com). Additionally, you will receive a PDF guide containing step-by-step instructions on how to utilize the platform to access live sessions and learning materials.
Our instructors are the industry experts with a minimum working experience of 10 years with a strong technical and teaching background. They bring industry knowledge and practical expertise to the course.
Yes, the course includes online assignments, quizzes, and a final project to reinforce your learning and assess your proficiency in Autonomous Robotics Programming Engineer.
Yes, you can interact with instructors and fellow students through discussion forums, live Q&A sessions. We encourage a supportive learning community.
We offer a 100% money-back guarantee to ensure your complete satisfaction. If you're not satisfied, you can request a full refund within 3 days of purchase or before the second session, whichever comes earlier. Simply contact our support team(support@edyoda.com) with your purchase details, such as the order ID or email address, and share your reason for the refund. Requests made after 3 days or after the second session will not be eligible for a refund. There are no hidden charges, you will receive the full amount paid. Refunds are processed within 7–10 business days and credited back to your original payment method.
Recommendations


