logoAiPathly

Robotics Field Technician

first image

Overview

A Robotics Field Technician, also known as a Robotics Field Engineer or Robotics Technician, plays a vital role in the installation, maintenance, and troubleshooting of robotic systems. This overview provides comprehensive information about their responsibilities, required skills, working conditions, and career prospects.

Job Responsibilities

  • Install, maintain, and repair robotic equipment and automated production systems at customer sites
  • Troubleshoot electrical and mechanical issues in robotic systems
  • Provide rapid response to customer support requests and deliver training on equipment operation
  • Document support cases, collaborate with support engineers, and deploy system upgrades
  • Configure, test, and calibrate robotic systems to ensure optimal performance

Skills and Knowledge

  • Proficiency in electronics, mechanics, hydraulics, pneumatics, and computer technology
  • Strong troubleshooting and diagnostic abilities
  • Excellent communication and customer service skills
  • Critical thinking and problem-solving capabilities
  • Knowledge of programming languages, microprocessors, and networking technology

Education and Training

  • Bachelor's degree in electrical engineering, mechanical engineering, or computer science preferred
  • Associate or technical degree with relevant experience may be acceptable
  • Certifications in robotics technology beneficial
  • Hands-on experience through internships or apprenticeships valuable

Working Conditions

  • On-site work at customer locations, including manufacturing facilities and industrial settings
  • Full-time schedules with potential overtime
  • Frequent travel to different customer sites
  • Advanced and safe work environments with proper personal protective equipment (PPE)

Career Outlook

  • Salary range: $74,500 to $151,000 annually, depending on experience and role
  • Growing field with good job security
  • Opportunities may vary by geographical location The role of a Robotics Field Technician offers a dynamic and challenging career path in the rapidly evolving field of robotics and automation.

Core Responsibilities

Robotics Field Technicians play a crucial role in ensuring the efficient operation of robotic systems across various industries. Their core responsibilities include:

Installation and Maintenance

  • Install, program, and repair robotic systems, including controllers, end-of-arm tooling, and conveyors
  • Perform scheduled maintenance, corrective service, and warranty work on robotic equipment

Troubleshooting and Repair

  • Identify and resolve electrical and mechanical issues in robotic systems
  • Use diagnostic tools such as oscilloscopes and multimeters to assess equipment performance
  • Disassemble and reassemble robots and peripheral equipment as needed

Testing and Calibration

  • Conduct thorough testing of robotic systems before deployment and during maintenance
  • Evaluate efficiency and reliability of industrial robotic systems
  • Make necessary adjustments and calibrations to optimize performance

Documentation and Record-Keeping

  • Maintain accurate and timely documentation of support cases, activities, and resolutions
  • Keep detailed service records for automated production systems and robotic equipment

Collaboration and Training

  • Work closely with robotics engineers and specialists to diagnose and resolve complex issues
  • Assist in the design, configuration, and application of robotic systems
  • Provide training to customers and other personnel on robot installation, use, and maintenance

Preventive Maintenance

  • Implement preventive maintenance programs to ensure optimal performance and longevity of robotic systems
  • Identify potential issues before they lead to equipment failure or downtime

Analytical and Problem-Solving

  • Analyze equipment events and performance data
  • Apply critical thinking to identify challenges and develop effective solutions

Customer Support

  • Respond promptly to customer support requests
  • Provide on-site troubleshooting and resolution of customer-reported issues By fulfilling these responsibilities, Robotics Field Technicians contribute significantly to the reliability and efficiency of automated systems in various industrial settings.

Requirements

To pursue a career as a Robotics Field Technician, candidates must meet specific educational, skill, and certification requirements. Here's a comprehensive overview of what's needed:

Education

  • Postsecondary education is typically required, such as:
    • Trade school certificate
    • Diploma from a specialized training program
    • Associate degree in robotics, automated manufacturing, electronics, or computer science
  • Programs usually last 1-2 years, covering topics like:
    • Manufacturing systems
    • Digital electronics
    • Industrial networking
    • Computer programming
    • Mechanical systems

High School Preparation

  • Recommended courses:
    • Sciences: Biology, Chemistry, Physics
    • Mathematics: Algebra, Trigonometry, Geometry, Calculus
    • Computer Science
    • Vocational classes: Blueprint reading, Electrical schematic interpretation, Hand tools, Drafting

Essential Skills

  • Technical skills:
    • Manual dexterity and hand-eye coordination
    • Mechanical and electrical aptitude
    • Blueprint and schematic reading
    • Computer programming
  • Soft skills:
    • Troubleshooting and problem-solving
    • Attention to detail and precision
    • Strong communication
    • Ability to work independently and in teams

Certifications

While not mandatory, professional certifications can enhance career prospects:

  • Certified Automation Professional (CAP) from the International Society of Automation
  • Certified Control Systems Technician (CCST) from the International Society of Automation
  • Electrical power testing certification from the National Institute for Certification in Engineering Technologies

Experience and Continuous Learning

  • Internships or vocational training provide valuable hands-on experience
  • Ongoing education and training are crucial due to rapidly evolving technology
  • Participation in employer-sponsored or professional association training programs

Specific Job Requirements

Additional requirements may include:

  • Understanding of safety protocols and hazardous environments
  • Ability to set up and operate field service equipment
  • Knowledge of robotic systems and computer networks
  • Willingness to participate in performance-based training programs By meeting these requirements and continuously updating their skills, aspiring Robotics Field Technicians can position themselves for a successful and rewarding career in this dynamic field.

Career Development

To develop a successful career as a Robotics Field Technician, consider the following key areas:

Education and Training

  • Pursue a formal education in robotics technology, electrical engineering, or automation engineering. An associate's degree or postsecondary certificate is typically required.
  • Seek hands-on training programs, such as those offered by Universal Technical Institute (UTI), which cover essential topics like electronics, computer-aided design, programming, and industrial robotics.

Skills and Abilities

  • Develop proficiency in microprocessors, programmable controllers, electronics, circuit analysis, mechanics, sensor systems, hydraulics, and pneumatics.
  • Hone critical thinking, troubleshooting, and communication skills.
  • Gain expertise in relevant programming languages and design software.
  • Cultivate strong customer service skills, especially for roles involving on-site support.

Career Path and Advancement

  1. Entry-level positions:
    • Robotics and automation technician
    • Control systems technician
    • Maintenance technician
  2. Mid-level positions:
    • Senior robotics technician
    • Robotics field engineer (may require a four-year degree)
  3. Advanced positions:
    • Supervisory or management roles
    • Specialized technician in specific industries (e.g., manufacturing, healthcare, military)

Job Environment

  • Work settings vary from offices to production sites across industries such as manufacturing, healthcare, military, and service sectors.
  • Adapt to diverse environments and be prepared for on-site troubleshooting and maintenance.

Industry Outlook

  • While overall job growth for robotics technicians is projected at -3.60%, the increasing reliance on robotic and automated equipment across industries suggests a steady demand for skilled technicians.
  • Median pay for robotics technicians is approximately $60,360, with robotics field engineers potentially earning between $74,500 and $151,000, depending on experience and location. By focusing on continuous learning, skill development, and gaining practical experience across various applications of robotics, you can build a rewarding and adaptable career in this dynamic field.

second image

Market Demand

The demand for robotics field technicians is experiencing significant growth, driven by technological advancements and the expanding use of robots across various industries. Key aspects of this market demand include:

Industry Growth and Projections

  • The robotics industry, particularly in advanced manufacturing, is projected to grow by 6.4% between 2016 and 2026.
  • The U.S. is expected to need approximately 12,500 robotics engineers over the next decade.
  • Middle-skilled technical positions in the U.S. robotics industry are anticipated to increase from about 4,000 to 7,500 by the end of the decade, resulting in over 10,000 cumulative job openings.

Key Industries Driving Demand

  1. Manufacturing: The largest employer of robotics technicians, focusing on maintaining and operating robotic equipment in production processes.
  2. Agriculture: Increasing use of agricultural robots for precise farming and reduced pesticide use.
  3. Healthcare: Growing reliance on robotics technicians for surgical robots, rehabilitation robots, and other medical equipment.
  4. Warehouses and Logistics: Expansion of e-commerce leading to increased implementation of robotic systems in warehouses.

Skills in High Demand

  • Technical skills: Programming, troubleshooting, and maintenance of robotic systems
  • Soft skills: Collaboration with engineering and management staff
  • Adaptability: Ability to work with evolving technologies and systems
  • On-the-job training: Extensive practical experience, especially for mechatronics technicians

Job Stability and Future Prospects

  • While robots may replace some manual labor jobs, they create new, higher-paying positions in management, maintenance, and operation.
  • Field service technicians are unlikely to be replaced by robots due to the need for flexible decision-making, technical skills, and in-person customer service. The robust demand for robotics field technicians is expected to continue, offering promising career opportunities for those with the right skills and training in this rapidly evolving field.

Salary Ranges (US Market, 2024)

Robotics Technicians and Robotics Field Technicians in the United States can expect varied compensation based on factors such as location, experience, and specific role. Here's an overview of the salary landscape:

National Averages

  • Median annual salary (BLS, May 2023): $65,080 for robotics and automation technicians
  • Estimated total pay for Robotics Field Technicians: $59,903 per year
    • Base salary: $56,487 per year

Salary Ranges

  • Typical range: $49,874 to $80,866
  • Extended range: $27,758 to $92,677
    • Note: Extreme outliers may reach up to $531,041, but this is not typical

Regional Variations

Example: Charlotte, NC

  • Average annual salary: $67,893
  • Range: $49,874 to $92,677
  • Most common range: $58,461 to $80,866

Factors Affecting Salary

  1. Location: Urban areas and tech hubs often offer higher salaries
  2. Experience: Senior technicians and those with specialized skills can command higher pay
  3. Industry: Certain sectors, such as advanced manufacturing or healthcare, may offer premium compensation
  4. Education and certifications: Advanced degrees or industry-specific certifications can lead to higher salaries
  5. Company size and type: Large corporations or cutting-edge tech companies may offer more competitive salaries

Career Progression and Salary Growth

  • Entry-level positions typically start at the lower end of the salary range
  • With experience and skill development, technicians can move into higher-paying roles or specialized positions
  • Advancement to robotics field engineer or management positions can significantly increase earning potential While individual salaries may vary, most Robotics Technicians and Field Technicians in the US can expect to earn between $50,000 and $90,000 annually. As the field continues to evolve, staying updated with the latest technologies and expanding your skill set can lead to increased earning potential and career opportunities.

The robotics field is experiencing significant growth and evolution, driven by advancing technologies and increasing demand across various industries. Here are some key trends and insights related to robotics field technicians:

Increasing Demand

The demand for robotics technicians is rising sharply due to the expanding use of automation and robotics in multiple sectors, including manufacturing, agriculture, healthcare, and logistics. The manufacturing sector, in particular, is a major employer of robotics technicians, focusing on maintaining the smooth operation of robotic systems.

Skills and Training

There is a strong emphasis on specific technical and human skills for robotics technicians. Key skills include:

  • Programming computers and equipment
  • Monitoring processes, materials, or surroundings (quality control and testing)
  • Troubleshooting, repairing, and maintaining equipment
  • Communicating and collaborating with engineering and management staff
  • Managing unfamiliar situations and independently organizing time and priorities

Industry Sectors

Robotics technicians are in high demand across several industries:

  • Manufacturing: Maintenance and operation of robotic systems in factories
  • Agriculture: Use of agricultural robots for precise farming and reducing pesticide use
  • Healthcare: Robots in medical procedures, patient care, and other healthcare-related tasks
  • Logistics and Warehouses: Robots for storing, retrieving, and managing goods in warehouses and order fulfillment centers

Hiring Challenges and Training Gaps

Companies in the robotics industry face significant hiring challenges due to the specialized nature of the jobs. There is a need for extensive on-the-job training, particularly for roles like mechatronics technicians. The industry is addressing these gaps through targeted training programs and partnerships with vocational and technical schools.

Career Opportunities and Education

Robotics technicians can enter the field with various educational backgrounds:

  • Associate degrees or vocational training in electrical engineering, mechatronics, or related fields are common
  • Median starting salaries range from $47,000 to $90,000, depending on the specific role and industry

Specialized Recruitment

The recruitment process for robotics technicians often involves specialized agencies and executive search firms with in-depth knowledge of the field. These firms help connect employers with candidates who possess the specific skills and experience required for these roles.

Future Outlook

The robotics industry is expected to continue growing, with new technologies such as collaborative robotics (cobots) and versatile robotic systems driving innovation. This growth will create more opportunities for robotics technicians and other related professionals while highlighting the need for continuous skills development and training.

Essential Soft Skills

In addition to technical expertise, robotics field technicians require a range of soft skills to excel in their roles. These skills complement their technical abilities and contribute to overall success in the field:

Communication Skills

Effective communication is vital for explaining complex technical issues to coworkers, employers, and customers. This includes the ability to clearly instruct others on how to install, maintain, and repair robots.

Problem-Solving and Troubleshooting

Robotics technicians must be adept at solving complex problems, which involves identifying issues, assessing situations, and finding solutions. This skill is essential for troubleshooting robotics systems and resolving technical issues efficiently.

Teamwork

The ability to work well in a team is crucial. Robotics technicians often collaborate with other engineers, technicians, and stakeholders. Being a team player enhances the overall efficiency and success of projects.

Time Management

Good time management skills are necessary to handle multiple tasks, such as repairing several robots or supporting multiple customers in a single day. This ensures that important work is completed on time without feeling overwhelmed.

Persistence and Dependability

Persistence is critical when dealing with complex problems or explaining difficult concepts to others. Dependability is also important, as technicians need to be reliable and adaptable in their work.

Decision-Making

The ability to make logical and confident decisions is important for robotics technicians. This skill helps in managing daily tasks and resolving issues effectively.

Safety Awareness

Prioritizing safety is crucial. Technicians must take precautions to protect themselves and others from potential hazards while working with robotic equipment and ensure they know how to handle incidents if they occur.

Active Learning

Given the rapidly evolving nature of robotics technology, a commitment to continuous learning is essential. This involves staying updated with new technologies, obtaining necessary certifications, and actively learning on the job. By developing and honing these soft skills, robotics field technicians can enhance their performance, work more effectively with colleagues and clients, and advance their careers in this dynamic field.

Best Practices

To ensure the effective and safe operation of robotic systems, robotics field technicians should adhere to the following best practices:

Safety First

  • Prioritize safety when working with robots
  • Implement proper lockout/tagout procedures for electrical equipment during maintenance or repair
  • Keep the robot's work area clear of obstructions
  • Ensure employees are outside the robot's work zone
  • Utilize safety devices such as light curtains, shutoff sensors, and guardrails

Effective Troubleshooting and Maintenance

  • Develop strong troubleshooting skills to identify and fix problems quickly
  • Maintain a systems-level awareness of both electronic and mechanical components
  • Perform regular maintenance checks to keep robots in good working condition
  • Conduct preventive maintenance and ensure all safety devices are functioning correctly

Technical Proficiency

  • Maintain a solid understanding of electrical systems, including single and three-phase electrical knowledge
  • Develop mechanical and design knowledge to understand and fix complex robotic systems
  • Stay proficient in assembling parts, installing and programming controllers, and maintaining robotic equipment

Communication and Teamwork

  • Cultivate good communication skills to effectively explain procedures to coworkers and customers
  • Work collaboratively across multiple disciplines

Analytical and Problem-Solving Approach

  • Develop an analytical mindset to break down and solve complex problems
  • Think like a programmer to troubleshoot issues efficiently

Continuous Learning

  • Stay updated with the latest technologies and best practices in robotics
  • Pursue relevant certifications and training opportunities

Documentation and Record-Keeping

  • Maintain detailed maintenance records, repair logs, and safety procedures
  • Ensure all safety rules are communicated and posted in the workplace

Systems Thinking

  • Understand the entire system in which the robot operates, including mechanics, sensing, and integrated components
  • Apply a holistic approach to identify potential issues and optimize system performance

Time Management and Persistence

  • Manage time effectively to handle multiple tasks and priorities
  • Demonstrate persistence when dealing with complex problems or obstacles By adhering to these best practices, robotics field technicians can ensure the safe, efficient, and reliable operation of robotic systems while continuously improving their skills and value to their organizations.

Common Challenges

Robotics field technicians face various challenges in their roles, particularly in industrial robotics and field service applications. Understanding and addressing these challenges is crucial for success in the field:

Integration and Compatibility

  • Integrating new robotic systems with existing infrastructure and technologies
  • Ensuring effective communication between new robots and older equipment
  • Developing custom software solutions or leveraging expert integration services when necessary

Workforce Skills and Training

  • Addressing the need for specialized skills to operate, maintain, and troubleshoot advanced robotic systems
  • Overcoming potential shortages of skilled workers
  • Investing in training programs and partnerships with educational institutions

Safety Concerns

  • Ensuring compliance with industry-specific safety standards
  • Implementing and maintaining advanced safety features in robotic systems
  • Conducting regular safety audits and training on safety protocols

Technical Challenges and Maintenance

  • Managing compatibility issues between different systems
  • Keeping up with regular software updates and preventive maintenance
  • Developing strategies for technical support and stocking spare parts

Cost and ROI Considerations

  • Balancing the high costs of implementing and maintaining industrial robots
  • Ensuring cost-effectiveness and sustainable return on investment (ROI)
  • Managing production volumes and sales levels to recoup initial investments

Flexibility and Adaptability

  • Addressing the limited flexibility of some industrial robots in adapting to different tasks and environments
  • Implementing solutions to repurpose robots or modify workspaces as needed

Communication and Data Management

  • Ensuring effective communication between different robotic systems
  • Managing and processing data from various sensors
  • Addressing WiFi reliability issues in large or crowded spaces
  • Maintaining data transmission security

Ethical and Regulatory Considerations

  • Navigating ethical issues related to the impact of robotics on human employment
  • Complying with regulations surrounding robotic safety and operation
  • Staying informed about evolving regulatory landscapes in robotics By addressing these challenges proactively, robotics field technicians can enhance their effectiveness, ensure the efficient operation of industrial robots, and contribute to the overall productivity and safety of their work environments. Continuous learning and adaptability are key to overcoming these obstacles in this rapidly evolving field.

More Careers

Autonomous Driving AI Researcher

Autonomous Driving AI Researcher

Autonomous driving AI research is a rapidly evolving field focused on developing safe, efficient, and reliable vehicle autonomy. Key areas of research and advancement include: 1. Multi-Agent Behavior Modeling: Developing deep generative models to predict behaviors of various agents on and near roadways, enabling safe planning for autonomous vehicles. 2. Perception, Prediction, and Planning: Creating integrated autonomy stacks, vision-language foundation models, and scene understanding techniques to improve generalization to new domains and rare scenarios. 3. Algorithmic Advancements: Continuously optimizing and expanding AI algorithms for motion planning, fault diagnosis, and vehicle platoon scenarios. This includes reinforcement learning models for velocity control and specialized algorithms for pedestrian detection. 4. Safety and Reliability: Developing AI models to predict traffic movement and plan safe vehicle movements, with a focus on reducing crashes and near-misses. 5. Explainable AI (XAI): Enhancing transparency and trustworthiness of autonomous vehicles by making their decision-making processes understandable to humans. 6. Simulation and Testing: Creating realistic and controllable simulation environments through behavior modeling, language-based simulation generation, and neural simulators. Developing AI-powered methodologies for lab and real-world testing and validation. 7. Technological and Societal Benefits: Autonomous vehicles promise improved safety, enhanced traffic flow, increased accessibility, energy savings, and increased productivity. The field combines advanced probabilistic machine learning, multi-agent behavior modeling, integrated autonomy stacks, and robust simulation methodologies to create safer, more efficient, and socially acceptable autonomous vehicle systems. Researchers in this area must stay at the forefront of AI advancements and collaborate across disciplines to drive innovation in autonomous driving technology.

Digital Data Product Manager

Digital Data Product Manager

Digital Data Product Managers (DPMs) play a crucial role in leveraging data to drive business value. They bridge the gap between data science, engineering, and business strategy, overseeing the development and implementation of data-centric products. Key aspects of the DPM role include: 1. Product Lifecycle Management: DPMs guide data products from ideation to deployment, ensuring alignment with business goals and user needs. 2. Cross-functional Collaboration: They act as a nexus between technical teams and business stakeholders, facilitating effective communication. 3. Data Utilization: DPMs focus on turning data into valuable products or capabilities, built on reliable and scalable infrastructure. 4. Strategic Alignment: They define the vision for data products, aligning them with the company's broader strategy. 5. Risk Management: DPMs address data privacy concerns, algorithmic biases, and ensure compliance with data governance standards. 6. User-Centric Approach: They ensure data products are designed and iterated based on user feedback and requirements. Essential skills for DPMs include: - Technical expertise in data engineering, analysis, machine learning, and AI - Business acumen and strategic thinking - Strong analytical and problem-solving abilities - Excellent communication and project management skills - Proficiency in tools like SQL, Python, and data visualization software DPMs are responsible for: - Defining product strategies and roadmaps - Prioritizing features and ensuring timely delivery - Managing data quality, security, and regulatory compliance - Translating complex data insights into actionable business strategies - Collaborating with various teams to achieve common goals - Mitigating risks associated with data products - Specifying new data products and features based on data analyses - Developing frameworks to set and track OKRs and KPIs In summary, Digital Data Product Managers are essential in ensuring efficient and effective utilization of data to drive business value, bridging technical and business aspects of an organization.

AI Platform Manager

AI Platform Manager

An AI Platform Manager, often intertwined with the role of an AI Product Manager, plays a crucial role in developing, deploying, and maintaining artificial intelligence and machine learning (AI/ML) products and platforms. This role requires a unique blend of technical expertise, strategic vision, and leadership skills. ### Key Responsibilities - **Product Vision and Strategy**: Define the product vision, strategy, and roadmap, aligning with stakeholder needs and industry trends. - **Development Oversight**: Manage the development of AI products, working closely with data scientists, ML engineers, and software developers. - **Technical Proficiency**: Maintain a deep understanding of data science principles and AI technologies to guide product direction and set realistic expectations. - **Cross-functional Collaboration**: Effectively communicate and collaborate with various teams, including engineering, sales, and marketing. - **Data Management**: Oversee the collection, storage, and analysis of data, making data-driven decisions efficiently. - **Market Success**: Drive product success by ensuring alignment with customer needs and compliance with responsible AI practices. ### Challenges and Considerations - **Specialized Knowledge**: Navigate the demands of specialized knowledge and significant computational resources required for ML product development. - **Transparency and Explainability**: Address the challenges of explaining complex ML models to ensure trust and understanding. - **Ethical and Regulatory Compliance**: Ensure AI products adhere to ethical standards and comply with data security and regulatory requirements. ### Tools and Platforms AI Platform Managers often work with integrated AI platforms that centralize data analysis, streamline ML development workflows, and automate tasks involved in developing AI systems. These may include tools from providers like Google Cloud, Red Hat, and Anaconda. ### Essential Skills - Strong understanding of data and AI technologies - Excellent communication skills - Ability to design simple solutions to complex problems - Capacity to manage competing demands and tradeoffs - Advanced degrees in Computer Science, AI, or related fields are often beneficial This role is critical in bridging the gap between technical capabilities and business objectives, ensuring that AI solutions are not only innovative but also practical, ethical, and aligned with organizational goals.

Technical Data Engineer

Technical Data Engineer

Technical Data Engineers play a crucial role in designing, constructing, maintaining, and optimizing an organization's data infrastructure. Their responsibilities span the entire data lifecycle, from collection to analysis, ensuring data is readily available, secure, and accessible for various stakeholders. Key responsibilities include: - Data Collection and Integration: Gathering data from diverse sources and implementing efficient data pipelines. - Data Storage and Management: Selecting appropriate database systems and optimizing data schemas. - ETL (Extract, Transform, Load) Processes: Designing pipelines to transform raw data into analysis-ready formats. - Big Data Technologies: Utilizing tools like Hadoop and Spark for large-scale data processing. - Data Pipeline Construction and Automation: Building and maintaining automated data flows. - Data Quality Assurance and Security: Implementing data cleaning, validation, and security measures. - Collaboration: Working with data scientists, engineers, and stakeholders to meet business needs. Technical skills required: - Programming Languages: Proficiency in Python, Java, Scala, and SQL. - Databases and Data Warehousing: Understanding of relational and NoSQL databases. - Cloud Computing: Knowledge of platforms like AWS, Azure, or Google Cloud. - Distributed Systems: Grasp of concepts for scalable and fault-tolerant architectures. - Data Analysis: Ability to develop tools and deploy machine learning algorithms. Specializations within data engineering include big data engineers, cloud data engineers, data architects, and data integration engineers. Industry-specific knowledge is beneficial, as data solutions vary across sectors like healthcare, finance, and e-commerce. A successful Technical Data Engineer combines technical expertise with problem-solving abilities and effective collaboration skills to drive business success through data-driven insights and solutions.