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Robotics Manipulation Jobs in Georgia (NOW HIRING)

Robotics Software Engineer I - Integration

Suwanee, GA · On-site

$96K - $130K/yr

Implement and test algorithms for robotic manipulation tasks such as picking, packing and execution of material handling processes * Work with 3D Packing algorithms to optimize parameters based on ...

Senior Robotics & Software Engineer

Atlanta, GA · Hybrid

$117K - $155K/yr

Design and implement robot control and behavior systems for real-world manipulation tasks * Build modular, extensible software architectures adaptable across customers and use cases * Develop ...

Controls Engineering Manager

Suwanee, GA

$77K - $100K/yr

Display comprehensive experience in the safeguarding, maintenance, and manipulation of industrial robots, ensuring their optimal performance and safety in various applications * Strong leadership and ...

Controls Engineering Manager

Suwanee, GA · On-site

$77K - $100K/yr

Display comprehensive experience in the safeguarding, maintenance, and manipulation of industrial robots, ensuring their optimal performance and safety in various applications * Strong leadership and ...

Controls Engineering Manager

Suwanee, GA · On-site

$77K - $100K/yr

Display comprehensive experience in the safeguarding, maintenance, and manipulation of industrial robots, ensuring their optimal performance and safety in various applications * Strong leadership and ...

... robotics * Experience in warehouse, logistics, or material handling automation * Certifications: OSHA 10, NFPF 70E, Scissor Lift Ability to meet physical demands of job: * Use and manipulation of ...

Demonstrated expertise in GenAI, NLP, RPA, predictive modeling, computer vision, and recommendation ... Advanced Python proficiency including async patterns, data manipulation (pandas, NumPy), and REST ...

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Robotics Manipulation information

What is robotics manipulation?

Robotics manipulation refers to the ability of robots to interact with and physically manipulate objects in their environment. This field involves designing robotic systems that can grasp, move, and control a variety of items using sensors, actuators, and advanced algorithms. Robotics manipulation is used in industries such as manufacturing, healthcare, and logistics, where robots handle tasks that require precision and adaptability. Researchers in this area focus on improving robot dexterity, perception, and autonomy to enable more complex and delicate operations.

What is the difference between Robotics Manipulation vs Robotics Software Engineer?

AspectRobotics ManipulationRobotics Software Engineer
Required CredentialsEngineering degree, robotics certificationsComputer science or software engineering degree
Work EnvironmentHands-on with robotic hardware, labs, manufacturingSoftware development, simulation, coding
Industry UsageManufacturing, automation, researchSoftware development for robotic systems
Common Search IntentRobotics manipulation skills, hardware focusRobotics programming, software tools

Robotics Manipulation involves working directly with robotic hardware to develop and improve physical interaction capabilities, often in manufacturing or research settings. Robotics Software Engineers focus on developing the software that controls robotic systems, including algorithms and simulations. While both roles require technical skills, Robotics Manipulation emphasizes hands-on hardware work, whereas Robotics Software Engineering centers on coding and software development for robotics applications.

What are the key skills and qualifications needed to thrive as a Robotics Manipulation Engineer, and why are they important?

To thrive as a Robotics Manipulation Engineer, you need expertise in robotics, mechanical engineering, and computer science, often supported by a relevant degree and experience in automation or robotics. Proficiency with programming languages like Python or C++, robotic operating systems (ROS), and simulation tools is typically required. Strong problem-solving, teamwork, and communication skills help you design, test, and refine complex robotic systems effectively. These skills are crucial for developing reliable, intelligent robots that can safely and efficiently interact with their environment.

What are some typical challenges faced by professionals working in robotics manipulation, and how can they be addressed?

Professionals in robotics manipulation often encounter challenges such as integrating complex hardware and software systems, handling uncertainty in object recognition and grasping, and ensuring robust performance in unstructured environments. Collaboration with multidisciplinary teams—including mechanical engineers, software developers, and AI specialists—is key to overcoming these challenges. Staying up to date with the latest research, leveraging simulation tools, and iterative prototyping can also help address common obstacles and drive innovation in this rapidly evolving field.
What cities in Georgia are hiring for Robotics Manipulation jobs? Cities in Georgia with the most Robotics Manipulation job openings:
Robotics software Engineer

Robotics software Engineer

Optimal Inc.

Embry Hills, GA

Contractor

Posted 18 days ago


Job description


Robotics Software Engineer - Manipulation & Automation


Position Overview

We are seeking a Robotics Software Engineer to support advanced robotics R&D initiatives focused on robotic manipulation, grasp planning, automation, and intelligent robotic systems for automotive manufacturing applications.

This role involves developing and modifying robotics software in C++ and Python, designing new robotic manipulation strategies, integrating ROS2-based robotic platforms, and supporting real-world robotic system development using collaborative and industrial robotic systems.

The ideal candidate has strong hands-on experience with robotics software engineering, ROS2 development, controls systems, motion/path planning, and industrial robotic integration in research or production environments.

Key Responsibilities
Develop and enhance robotic manipulation and grasp planning solutions for automated pick-and-place applications
Design, modify, debug, and optimize robotics software primarily in C++ and Python
Develop ROS2-based robotic applications for real-world robotic systems
Integrate robotic software with collaborative robots, sensors, and industrial robotic platforms
Design and evaluate motion planning, path planning, and robotic control strategies
Support robotic system testing, validation, troubleshooting, and performance optimization
Work with robotic perception, sensor integration, and real-world production part handling
Collaborate with cross-functional R&D and engineering teams on advanced robotics initiatives
Maintain technical documentation and follow software engineering best practices

Required Qualifications
Master's degree or higher in Robotics, Computer Science, Mechanical Engineering, Electrical Engineering, or related field
Strong hands-on experience with C++ software development for robotics applications
Experience developing robotics software using Python and ROS/ROS2
Experience with robotic manipulation, motion planning, path planning, or robotic controls systems
Hands-on experience integrating robotic software with real robotic hardware and industrial robotic systems
Strong understanding of robot kinematics, dynamics, and control systems
Experience working in Linux/Ubuntu environments with Git version control
Strong debugging, troubleshooting, and software integration skills
Ability to understand existing codebases and develop new robotics strategies and solutions
Strong communication and collaboration skills in R&D or engineering environments

Preferred Qualifications
Experience with MoveIt, Nav2, Gazebo, Isaac Sim, MuJoCo, or similar robotics frameworks/simulators
Experience with robotic perception, SLAM, sensor fusion, or machine learning for robotics
Experience with collaborative robots (Cobots) or industrial automation systems
Experience deploying robotics solutions in manufacturing or production environments
Familiarity with robotic sensors such as LiDAR, depth cameras, IMUs, or robotic vision systems