Electrical safety training requirements for field technicians working in solar energy.

How STL USA is leading the field in crossover electrical safety training for the energy sector.

As the solar energy industry continues to expand, ensuring the safety of field technicians working in solar farms becomes increasingly critical. Solar energy farms, which consist of large arrays of photovoltaic (PV) panels, inverters, and substations, pose several electrical hazards that require specialized training. Electrical safety training is not only essential for protecting workers but also a regulatory requirement to meet industry standards and maintain operational efficiency. This article outlines the electrical safety training requirements, qualifications, and certifications for solar field technicians, while also highlighting the relevance of STL USA’s courses in equipping workers with the skills needed for this critical role.

Key Electrical Safety Challenges in Solar Energy Farms

Field technicians working on solar energy farms are regularly exposed to electrical systems that operate at high voltages, both during installation and maintenance. The key hazards include:

  • Arc Flash and Shock Hazards: Technicians work with inverters, transformers, and high-voltage substations, where electrical arcs and shocks can cause severe injury or fatality.

  • Lockout/Tagout (LOTO): Controlling energy sources during maintenance is critical to prevent accidental energization of equipment.

  • Fire Risks: Faults in electrical systems, improper handling, or damaged panels can result in fire hazards.

  • String Voltage and DC Power: Solar PV systems generate direct current (DC) power, which behaves differently from alternating current (AC), requiring additional knowledge for safe handling.

To address these risks, proper electrical safety training and certifications are mandatory for field technicians to comply with safety regulations and industry standards.

Essential Electrical Safety Training Requirements

Field technicians must undergo comprehensive electrical safety training to work safely and effectively in solar energy farms. The following certifications and training programs are typically required:

  1. NFPA 70E: Standard for Electrical Safety in the Workplace

    • The National Fire Protection Association’s (NFPA) 70E standard provides guidelines for identifying electrical hazards, assessing risks, and implementing safety measures. Training based on NFPA 70E focuses on:

    • Relevance: Technicians who work on inverters, combiner boxes, and substations must understand arc flash hazards and how to prevent them. NFPA 70E compliance is often a legal and industry requirement.

  2. Qualified Electrical Worker (QEW) Certification

    • The QEW certification is designed for workers who perform tasks involving live electrical systems. The training focuses on:

      • Electrical system operation and maintenance.

      • Safe switching practices.

      • Emergency response to electrical incidents.

    • Relevance: Solar energy farms require QEWs to safely perform maintenance and troubleshoot electrical components without endangering themselves or others.

  3. Lockout/Tagout (LOTO) Training

    • LOTO training teaches workers how to isolate and control hazardous energy sources before servicing equipment. The key components include:

      • Energy isolation procedures.

      • Proper use of lockout devices and tags.

      • Verifying energy isolation.

    • Relevance: LOTO procedures are essential during inverter maintenance and substation operations to ensure that equipment is properly de-energized.

  4. OSHA Electrical Safety Standards

    • The Occupational Safety and Health Administration (OSHA) mandates safety training to protect workers from electrical hazards. Relevant OSHA standards include:

      • OSHA 1910.269: Safety standards for electrical power generation, transmission, and distribution.

      • OSHA 1926 Subpart K: Electrical safety requirements in construction.

    • Relevance: Compliance with OSHA standards ensures that solar farm technicians follow best practices to prevent electrical incidents.

Professional and Regulatory Bodies for Certifications

Several professional and regulatory organizations play a key role in certifying and standardizing electrical safety training for solar energy workers:

  • National Fire Protection Association (NFPA): Sets electrical safety standards, including NFPA 70E.

  • Occupational Safety and Health Administration (OSHA): Regulates workplace safety, including electrical hazards.

  • Institute of Electrical and Electronics Engineers (IEEE): Develops standards for safe handling of electrical systems.

  • Global Wind Organization (GWO): While focused on wind energy, GWO’s safety courses include modules applicable to solar energy.

STL USA Electrical Safety Training Courses

STL USA offers several specialized training programs that align with the electrical safety requirements of solar energy field technicians. These courses provide workers with essential skills to identify hazards, manage risks, and operate safely in solar energy environments. The following courses are particularly relevant:

  1. QEW NFPA 70E Training

    • STL USA’s QEW NFPA 70E course focuses on compliance with NFPA 70E standards. Technicians gain hands-on experience in:

      • Arc flash risk analysis and PPE selection.

      • Safe work practices for live and de-energized electrical systems.

      • Emergency response for electrical incidents.

    • Application: This course equips solar farm technicians with the knowledge and skills to safely work on inverters, string arrays, and high-voltage systems.

  2. GWO Control of Hazardous Energies

    • Although originally designed for wind energy, this course’s principles are highly applicable to solar energy. Technicians learn:

      • Lockout/Tagout (LOTO) procedures.

      • Risk assessment and energy isolation.

      • Hazard identification during maintenance.

    • Application: The LOTO skills taught in this course are essential for isolating energy sources during inverter servicing and substation work on solar farms.

  3. BOP Substation Training

    • This course focuses on operating and maintaining Balance of Plant (BOP) substations, which are critical for integrating solar farms with the electrical grid. Topics include:

      • Substation safety protocols.

      • Switching operations and isolation.

      • Transformer and switchgear maintenance.

    • Application: Technicians working on large-scale solar farms rely on substation training to ensure safe grid connectivity and maintenance of critical infrastructure.

  4. PMT Switching Course

    • The PMT Switching course trains workers to safely switch and isolate high-voltage equipment for maintenance. Key components include:

      • Safe switching operations.

      • Equipment isolation and testing.

      • Risk assessment before and during switching.

    • Application: Solar energy technicians use these skills to isolate strings, inverters, and transformers when performing maintenance or upgrades.

Why Electrical Safety Training Matters

Electrical safety training is not just about compliance; it’s about protecting lives and ensuring the reliability of solar energy systems. Technicians equipped with the proper training can:

  • Identify and mitigate electrical hazards before accidents occur.

  • Safely perform maintenance and repairs without risking injury or damage.

  • Meet industry standards and regulatory requirements, ensuring legal and operational compliance.

STL USA’s courses are particularly beneficial because they combine theoretical knowledge with practical, hands-on training. By completing programs like NFPA 70E, QEW certification, and BOP Substation training, technicians gain the skills necessary to work confidently and safely in solar energy environments.

Conclusion

Field technicians working in solar energy farms face unique electrical safety challenges that require specialized training and certifications. Compliance with NFPA 70E, OSHA standards, and professional qualifications such as QEW certification ensures that workers can safely handle high-voltage systems, arc flash risks, and energy isolation. STL USA’s electrical safety courses, including QEW NFPA 70E, GWO Control of Hazardous Energies, BOP Substation, and PMT Switching, provide the essential training needed to meet these requirements. By investing in electrical safety training, solar energy companies not only protect their workforce but also ensure the reliability and success of their renewable energy projects.

Interested in learning more about our courses?

Click the button to get started

Parallel skill requirements and training needs for wind and solar

Comparing Skills and Training Requirements for Workers in Wind and Solar Energy Companies

As the renewable energy sector grows at a rapid pace, the demand for skilled workers in wind and solar energy industries has risen significantly. While these industries share many overlapping skill sets and safety concerns, they also have distinct requirements that reflect the unique nature of their operations. A well-trained workforce is essential for ensuring safety, efficiency, and reliability in both sectors, and various specialized courses like the GWO Control of Hazardous Energies, QEW NFPA 70E, BOP Substation, and PMT Switching courses offered by STL USA provide crucial training tailored to the needs of these industries. This article examines the core skills, training requirements, and specific overlaps in competencies needed by wind and solar energy workers.

Key Skills and Challenges in Wind and Solar Energy

Both wind and solar energy workers must be adept at handling complex electrical systems and work in hazardous environments. A foundational understanding of electrical theory, and mechanical systems is critical for both sectors. However, each industry also requires specialized skills due to differences in infrastructure and operations.

  • Wind Energy: Workers in this sector often need to scale wind turbines that can reach heights of over 100 meters. This demands proficiency in fall protection, and working at heights. Additionally, turbine maintenance involves knowledge of mechanical and electrical systems, major component maintenance, and composites.

  • Solar Energy: Solar workers, in contrast, focus more on ground-level tasks such as installing and maintaining photovoltaic (PV) panels, troubleshooting inverters, and optimizing system performance.

Despite these differences, both industries face common hazards, such as electrical shock arc flashes and require robust electrical safety programs. Specialized training courses address these hazards and ensure workers meet safety and operational standards.

Training Overlaps and Industry-Specific Needs

The GWO Control of Hazardous Energies, QEW NFPA 70E, BOP Substation, and PMT Switching courses offered by STL USA are particularly relevant for preparing workers for the challenges in both wind and solar industries. Below is an overview of the critical aspects of these courses and their applications.

  1. GWO Control of Hazardous Energies

    • This course, designed by the Global Wind Organization (GWO), focuses on identifying and controlling hazardous energies during installation, maintenance, and decommissioning of energy systems. Workers learn lockout/tagout (LOTO) procedures, risk assessment, and energy isolation techniques.

    • Applications in Wind Energy: The course is crucial for turbine technicians who need to safely manage the high-voltage systems within wind turbines. Turbine systems often involve multiple energy sources, such as hydraulic, mechanical, and electrical, making LOTO procedures essential.

    • Applications in Solar Energy: While solar systems involve less moving mechanical energy, the principles of hazardous energy control apply equally to PV systems—especially during inverter maintenance and troubleshooting.

  2. QEW NFPA 70E

    • This course focuses on electrical safety in line with NFPA 70E standards. Participants learn about arc flash hazards, shock protection, and the use of personal protective equipment (PPE).

    • Applications in Wind Energy: Wind technicians benefit from this course when working with high-voltage switchgear and performing electrical maintenance inside turbine nacelles. Arc flash hazards are a significant risk in such confined spaces.

    • Applications in Solar Energy: Solar electricians require this training to safely handle PV systems and manage the risks associated with arc flashes during panel installation, inverter maintenance, and string troubleshooting.

  3. BOP Substation Training

    • The Basic Balance of Plant (BOP) Substation training introduces workers to the equipment, terminology and overview function of BOP — key components in connecting renewable energy systems to the grid.

    • Applications in Wind Energy: Wind farms typically rely on substations to transmit power to the grid. Workers must understand transformer operations, relay protection, and switchgear maintenance.

    • Applications in Solar Energy: Similarly, solar farms depend on substations for grid integration. Workers trained in substation operations ensure the seamless transfer of energy from PV arrays to utility lines.

  4. PMT Switching

    • This course provides training in safe switching operations and the isolation of equipment for maintenance.

    • Applications in Wind Energy: Turbine technicians often perform switching operations to isolate turbines or other equipment for repairs. This course ensures they can do so safely and efficiently.

    • Applications in Solar Energy: Solar energy workers use similar skills when isolating strings or inverters for repairs or upgrades, particularly in large-scale solar farms.

GWO Basic Safety Training: Transferable Skills Across Sectors

The GWO Basic Safety Training (BST) course is a foundational program designed to prepare workers for the general hazards encountered in wind energy environments. However, several modules within the course provide transferable skills that are highly applicable to the solar energy sector and other industries.

  • First Aid Module: This module equips workers with life-saving techniques and emergency response skills, which are universally applicable across industries. Whether responding to accidents in a wind turbine or a solar farm, these skills are critical for ensuring worker safety.

  • Fire Awareness Module: This module teaches workers how to identify fire risks, use fire extinguishers, and evacuate safely. Solar farms and rooftop installations can also face fire hazards, making this training valuable for solar technicians.

  • Manual Handling Module: Workers are trained in safe lifting and handling techniques to reduce the risk of musculoskeletal injuries. This is a key competency in both wind and solar sectors, where workers frequently handle heavy or awkwardly shaped components like turbine parts or PV panels.

These transferable elements make the GWO Basic Safety Training course an excellent entry point for workers seeking to move between wind and solar energy roles or diversify their skill sets for broader opportunities within the renewable energy sector.

Overlapping Competencies: Building a Versatile Workforce

The training and skills required for wind and solar energy workers often intersect in areas such as electrical safety, energy isolation, and substation maintenance. Workers who complete courses like GWO Control of Hazardous Energies and QEW NFPA 70E gain competencies that are transferable between the two industries, providing flexibility in a rapidly evolving job market.

  • Electrical Safety: Understanding shock protection and arc flash protection, PPE and equipment selection is indispensable in both sectors.

  • Energy Isolation: Establishing an electrically safe work condition and safe work procedures taught in the GWO CoHE and QEW NFPA 70E are critical for preventing accidents during maintenance in both wind and solar environments.

  • Substation Skills: With many renewable projects relying on substations, our Basic Balance of Plant Training teaches safe substation entry, equipment familiarization, high and medium voltage protection principles, introduction to high and medium voltage schematics including relay, ANSI and IEE naming conventions.

Conclusion

The wind and solar energy industries share a common goal: harnessing renewable resources to produce clean energy. While their operational differences necessitate specific skill sets, overlapping competencies in areas such as electrical safety, hazardous energy control, and substation maintenance highlight the value of cross-industry training. By participating in courses like GWO Control of Hazardous Energies, QEW NFPA 70E, BOP Substation, and PMT Switching, workers can not only enhance their expertise but also adapt to the evolving demands of the renewable energy sector. Investing in such training is not just about compliance—it’s about building a skilled workforce capable of advancing the global transition to sustainable energy.

Interested in learning more about our courses?

Click the button to get started

2025 wind tech training requirements

The Evolving Role of Wind Technicians: Implications and considerations for 2025

The wind energy sector has experienced remarkable growth in recent years, driven by global efforts to transition to renewable energy. As one of the fastest-growing sources of energy, wind power plays a critical role in achieving carbon neutrality. Alongside this growth, the role of wind technicians—those responsible for maintaining, repairing, and optimizing wind turbines—has transformed dramatically.

Technological advancements and increasing turbine complexity have fundamentally reshaped the requirements of the role. Looking ahead to 2025, original equipment manufacturers (OEMs) are setting high expectations for their workforce, demanding advanced skills, multidisciplinary expertise, and a commitment to safety. Recognizing these needs, STL USA has launched an expanded program of specialized training courses aimed at building skills and competency among wind technicians, ensuring they are prepared for the industry’s evolving demands.

The Shifting Role of Wind Technicians

Technological Evolution in Wind Turbines

Over the past decade, wind turbines have become larger, smarter, and more efficient. Offshore turbines now reach staggering heights, with blade spans exceeding 100 meters and individual turbines capable of producing over 15 MW of power. These advancements have introduced new challenges for technicians, who must work with increasingly sophisticated systems.

Modern turbines are equipped with advanced sensors, real-time monitoring tools, and AI-driven analytics. These technologies optimize turbine performance but require wind technicians to adopt new skill sets. Proficiency in data analysis, remote diagnostics, and control system troubleshooting has become just as important as traditional mechanical repair skills.

Integration with Broader Energy Systems

Wind farms are no longer isolated power generators. They are increasingly integrated with battery storage systems, substations, and advanced grid management tools. This evolution has expanded the scope of a wind technician’s work to include tasks like managing energy storage systems, performing substation maintenance, and understanding grid interconnection processes.

Emphasis on Safety and Efficiency

As turbines grow taller and more powerful, safety risks have also increased. Wind technicians work in extreme environments—whether climbing 100-meter towers, operating offshore, or navigating high-voltage systems. This makes safety training a critical aspect of the role. Beyond ensuring personal safety, technicians must also focus on efficiency, minimizing downtime for turbines to optimize energy output.

OEM Expectations for 2025

OEMs are rapidly adapting their workforce expectations to meet industry advancements. In 2025, they will require wind technicians to possess:

  1. Advanced Technical Skills: OEMs are prioritizing expertise in electrical systems, data-driven diagnostics, and software management, in addition to traditional mechanical skills.
  2. Specialized Training: As turbines and supporting systems grow more complex, OEMs expect technicians to complete specialized training programs tailored to their roles.
  3. Multidisciplinary Competency: Wind technicians must adapt to diverse tasks, including substation operations, energy storage maintenance, and turbine troubleshooting.
  4. Safety Expertise: Safety will remain paramount. Technicians must be proficient in fall protection, self-rescue, and evacuation procedures.
  5. Adaptability to Offshore Environments: The offshore wind sector is booming, and technicians will need training to handle the unique challenges posed by offshore operations, including harsh weather and remote locations.

A great example of this is that from next year, a number of large OEMs will be mandating the GWO Control of Hazardous Energies (CoHE) course for all their wind technicians. At STL USA, we believe this is the right appraoch, highlighting the importance of high quality electrical safety training and accompanying skills and competencies that this training gives wind techs. We run our GWO CoHE training courses on an on-demand basis, booking out weeks in advance, working wth our customers to ensure their workforce is best placed to meet the demands of the job and the objectives of their employer.

STL USA: Preparing Wind Technicians for the Future

In response to these growing demands, STL USA has emerged as a leader in wind technician training, offering a robust program of specialized courses designed to enhance skills, competency, and safety. With a commitment to preparing the workforce for the challenges of tomorrow, their courses are tailored to the real-world needs of wind technicians and aligned with industry standards.

New Courses for 2025

STL USA’s 2025 curriculum introduces several cutting-edge courses that address both current and emerging needs in the wind energy sector:

  1. Competent Person Equipment (PPE and Device Inspection): This course trains technicians to inspect and maintain personal protective equipment, ensuring compliance with safety standards and extending equipment lifespans.
  2. Competent Person Fall Protection: This training focuses on advanced fall protection techniques, enabling technicians to work confidently at great heights while mitigating risks.
  3. Climber Training: Designed for technicians who regularly climb turbine towers, this course emphasizes safe climbing techniques, physical conditioning, and equipment use.
  4. Evacuation & Self-Rescue Wind (Solo X/Other): Technicians learn self-rescue and evacuation procedures for emergency scenarios, such as turbine fires or structural failures.
  5. Evacuation & Advanced Rescue (Red Pro/Other): Building on basic rescue training, this course equips technicians with advanced skills for complex emergency situations, such as rescuing incapacitated colleagues.
  6. BOP Substation/PMT Switching: Focused on substation maintenance and switching operations, this course bridges the gap between turbine maintenance and broader grid management.
  7. BOP Substation with Practical: This hands-on course provides technicians with real-world experience in substation operations, offering a deeper understanding of high-voltage systems.
  8. BOP Substation Theory Only: A theoretical counterpart to the practical course, this training focuses on the principles of substation design, operation, and maintenance.
  9. PMT Switching: This specialized course trains technicians in high-voltage switching procedures, emphasizing safety and operational efficiency.

The Importance of Specialized Training

Specialized training is no longer optional in the wind energy sector. As the industry grows more complex, technicians must continuously update their skills to stay competitive and ensure safety. STL USA’s courses address this need by:

  • Improving Competency: Comprehensive training programs build the technical and problem-solving skills technicians need to excel.
  • Enhancing Safety: By focusing on fall protection, evacuation, and high-voltage systems, these courses empower technicians to work safely in challenging environments.
  • Supporting Career Growth: With OEMs demanding specialized expertise, technicians who complete advanced training are well-positioned for career advancement.
  • Meeting Industry Standards: STL USA’s courses align with international safety protocols, ensuring participants meet the requirements set by GWO and other governing bodies.
Conclusion

The role of a wind technician is more dynamic and demanding than ever before. As turbines grow in size and complexity and as wind farms integrate with broader energy systems, technicians must adapt to a rapidly evolving landscape. By 2025, OEMs will require their workforce to possess advanced technical skills, multidisciplinary expertise, and a strong commitment to safety.

Through its comprehensive training programs, including new courses for 2025, Safety Technology USA is playing a pivotal role in preparing technicians for these challenges. By focusing on skill-building, competency, and safety, Safety Technology ensures that wind technicians are equipped to meet the demands of the future, contributing to the growth and success of the renewable energy sector.

Interested in electrical safety training courses?

Click the button to get started

What you need to know about GWO Control of Hazardous Energies

In high-risk industries such as renewable energy, manufacturing, and industrial electrical work, the dangers of improperly managed hazardous energies are significant. For professionals working with electrical systems, particularly wind technicians who maintain and repair towering turbines, understanding how to control these energies is not just important—it’s essential. The Global Wind Organisation (GWO) Control of Hazardous Energies (CoHE) course provides specialized training that empowers workers to manage energy risks safely and effectively. Offered by Safety Technology USA on an on-demand basis, this course is a critical resource for wind technicians and anyone working with high-voltage equipment. Moreover, it can be paired with their Qualified Electrical Worker (QEW) to NFPA 70E training, making it a comprehensive solution for workplace safety.

What is the GWO Control of Hazardous Energies Course?

The GWO Control of Hazardous Energies (CoHE) course is designed to educate workers on the principles and practices necessary to safely control hazardous energy in the workplace. Hazardous energy refers to any form of energy—electrical, mechanical, hydraulic, thermal, or pneumatic—that, if not properly controlled, can result in serious injury or fatalities.

The course focuses on three key areas:

  1. Lockout/Tagout Procedures (LOTO): Workers learn how to safely de-energize equipment using locks and tags to prevent accidental reactivation during maintenance or repair.
  2. Risk Assessment and Energy Isolation: The training emphasizes identifying potential hazards, isolating energy sources, and verifying systems are safe to work on.
  3. Emergency Response: Participants are taught how to respond to incidents involving uncontrolled energy releases.

This course is particularly relevant in the wind energy sector, where technicians often work on towering turbines that contain multiple energy sources, including high-voltage electrical systems, mechanical components, and hydraulic systems. The CoHE course equips them with the skills to navigate these hazards confidently.

Why is the CoHE Course So Important?
1. Protecting Lives and Preventing Accidents

Accidents involving hazardous energy can result in severe injuries, including burns, electrocution, and amputations. According to the Occupational Safety and Health Administration (OSHA), failure to control hazardous energy accounts for nearly 10% of serious workplace injuries. For wind technicians working at heights or near live electrical systems, the risks are amplified. The CoHE course ensures workers know how to properly isolate and control energy sources, reducing the likelihood of life-threatening incidents.

2. Enhancing Operational Efficiency

While safety is the primary goal, properly managing hazardous energy also improves operational efficiency. Uncontrolled energy releases can damage expensive equipment, disrupt workflows, and cause costly downtime. Workers trained in CoHE can identify and mitigate potential risks before they escalate, saving companies time and money while maintaining productivity.

3. Complying with Industry Standards

In industries like renewable energy, adherence to safety standards is non-negotiable. The GWO Control of Hazardous Energies course aligns with international safety protocols and standards, including OSHA regulations and NFPA 70E guidelines for electrical safety. Employers who prioritize this training demonstrate their commitment to workplace safety and compliance, which can enhance their reputation and reduce liability risks.

Who Should Take This Course?

While the CoHE course is designed with wind technicians in mind, it is highly relevant to anyone working with high-risk equipment. This includes:

  • Industrial Electricians: Professionals handling electrical systems in factories, data centers, and other industrial settings.
  • Maintenance Workers: Individuals responsible for servicing machinery and systems that involve electrical, mechanical, or hydraulic energy.
  • Renewable Energy Professionals: Solar panel installers, battery storage technicians, and others in the clean energy sector who interact with complex energy systems.
Safety Technology USA: Delivering On-Demand Training Solutions

Safety Technology USA is a leader in providing high-quality training programs for professionals in high-risk industries. Our GWO Control of Hazardous Energies course is offered on an on-demand basis, allowing organizations to schedule training sessions that fit their unique operational needs.

This flexibility is particularly beneficial for businesses that need to minimize disruptions to their daily operations while ensuring their employees receive top-tier safety training. Safety Technology USA’s instructors are certified experts who bring years of industry experience to the classroom, offering practical, real-world insights that go beyond theoretical knowledge.

Combining CoHE with QEW to NFPA 70E Training

For a more comprehensive approach to electrical safety, Safety Technology USA allows participants to combine the GWO CoHE course with their Qualified Electrical Worker (QEW) to NFPA 70E training.

The QEW to NFPA 70E course is specifically designed to help workers understand and implement the National Fire Protection Association’s 70E Standard for electrical safety in the workplace. This standard focuses on reducing electrical hazards through risk assessment, personal protective equipment (PPE), and safe work practices. When paired with the CoHE training, participants gain a holistic understanding of electrical safety, from controlling hazardous energies to managing arc flash risks.

This dual training approach ensures workers are equipped with the knowledge and skills to handle even the most complex safety challenges, making them invaluable assets to their organizations.

Conclusion

The GWO Control of Hazardous Energies course is an essential training program for wind technicians and other professionals working in high-risk environments. By teaching workers how to safely control energy sources, it helps prevent accidents, enhances operational efficiency, and ensures compliance with industry standards.

With Safety Technology USA offering this course on an on-demand basis and providing the option to combine it with their QEW to NFPA 70E training, organizations can deliver tailored, comprehensive safety education to their teams. For those committed to creating a safer workplace, these courses are invaluable tools in building a culture where safety is the foundation of every task.

Want to learn more and book?

Click the button to learn more about our GWO CoHE course

New Pad Mount Transformer

pad mount transformer

A new addition to the STL USA training facilities

Meet the new Pad Mounted Transformer

STL USA took delivery today of the latest addition to our technical and electrical safety site, a brand new pad mounted transformer. This fantastic piece of kit will drastically improve the range and scope of the electrical safety courses on the STL USA roster.

Courses that will use the pad mounted transformer include:

1. BOP Substation/PMT Switching: A New Offering for 2025

The Basic Balance of Plant (BOP) Substation/PMT Switching Training is designed to equip participants with the foundational knowledge and skills necessary to work safely in substation environments. This course emphasizes safety protocols, equipment familiarity, and the fundamental principles of medium and high-voltage systems. It also introduces key concepts such as ANSI and IEEE naming conventions, inspection practices, and switching order basics. While this training provides a solid foundation, workers must still receive task-specific approval from a qualified professional and employer validation before undertaking independent tasks.

Course Highlights
  • Safe substation access and equipment familiarization.
  • Principles of high and medium voltage protection.
  • Introduction to electrical schematics, including ANSI/IEEE standards.
  • Conducting basic substation inspections.
  • Switching order fundamentals.
  • Written assessments and hands-on exercises for switching orders.
  • Practical application: PMT switching, energy state verification, and personal grounding procedures.
  • Substation walk-throughs with authorized personnel.
  • Optional practical switching in the substation (per client request).
Why This Training Matters

BOP Substation/PMT Switching training is critical for electrical workers managing medium-to-high voltage systems. A simple error in switching procedures can have dire consequences, including injuries, asset damage, and prolonged downtime. Additionally, substations and transformers form the backbone of power distribution systems, essential for uninterrupted operations. By equipping workers with a deep understanding of substation and transformer functionality, this course ensures operational reliability, safety, and reduced risk of system failures. This training is more than a technical requirement—it’s a commitment to safeguarding personnel and assets.

Learn more about the course here

2. Control of Hazardous Energies (CoHE) Course: Essential for Wind Technicians

Managing hazardous energies is a critical skill for technicians working on machinery where stored or active energy poses a threat. The Control of Hazardous Energies (CoHE) course, although not currently a mandatory GWO certification, is increasingly recognized as indispensable for wind energy professionals. STL USA champions this training as essential for anyone working on turbines, especially up-tower technicians. Industry trends suggest that leading OEMs will soon include CoHE as a required qualification, emphasizing its growing importance.

Course Content
  1. Understanding Hazardous Energies: This module explains the types of energy (electrical, hydraulic, and mechanical) encountered in turbines and their potential risks.
  2. Lockout/Tagout (LOTO): A comprehensive guide to de-energizing and securing equipment before maintenance or inspection.
  3. Risk Assessments and Safe Practices: Participants learn to conduct risk evaluations, select appropriate PPE, and follow strict safety protocols to mitigate hazards.
Why It’s Crucial

Wind turbines are complex machines with numerous energy sources, from electrical circuits to hydraulic systems. Proper CoHE training empowers technicians to handle these high-risk environments confidently, preventing accidents and reducing downtime. Beyond routine safety measures, this course instills a culture of proactive risk management, demonstrating a commitment to safety that benefits both technicians and employers.

Bonus Insight

You can combine the GWO CoHE course with NFPA 70E training for a comprehensive approach to electrical and hazardous energy safety.

Learn more about the course here

3. Qualified Electrical Worker (QEW) Training Aligned with NFPA 70E Standards

As wind turbines grow larger and more powerful, the electrical risks for technicians increase significantly. The Qualified Electrical Worker (QEW) course, combined with NFPA 70E certification, is tailored to equip technicians with advanced electrical safety knowledge. This training addresses the unique challenges of working with electrical systems in wind turbines and emphasizes the safe handling of both energized and de-energized equipment.

Course Content
  1. Understanding NFPA 70E Standards: Participants learn the guidelines established by the National Fire Protection Association, including arc flash protection, shock hazard analysis, and appropriate PPE selection.
  2. Electrical Hazard Identification: Training focuses on recognizing electrical risks, assessing hazards, and implementing preventative measures.
  3. Safe Work Practices: Technicians gain practical knowledge of lockout/tagout procedures, maintaining safe approach distances, and adhering to best practices for working around electrical systems.
Why This Training Is Vital

Electricity remains one of the most significant hazards on wind farms, often leading to severe injuries or fatalities if mishandled. The QEW with NFPA 70E certification equips technicians to minimize these risks effectively. It not only ensures compliance with safety standards but also enhances employability by qualifying workers for advanced roles. Employers also benefit from reduced incident rates and a workforce skilled in maintaining safe operations in high-risk environments.

For wind technicians, this course represents a step toward greater competency, safety, and career advancement in the evolving wind energy sector.

Learn more about the course here

Interested in electrical safety training courses?

Click the button to get started

A typical day in the life of a wind technician

A day in the life of a wind technician in the USA

Wind energy is a cornerstone of the renewable energy revolution, a sector undergoing huge growth currently. With this growth, the demand for workers has rocketed, with programs such as STL USA’s WindStart – Get Into Wind supporting bringing new people into the field.  Wind technicians, often called “wind techs,” are the unsung heroes keeping the turbines spinning. Working high above the ground in remote locations, their job is as challenging as it is rewarding. Let’s take a look at a typical day for a wind technician on a U.S. wind farm, where technical expertise and an unwavering commitment to safety go hand in hand.

Starting the Day: Morning Safety Briefing

Before the sun rises over the rolling hills or open plains where wind farms are typically located, wind technicians arrive at the site headquarters. Their day begins with a team meeting and safety briefing, a critical component of their routine. This session includes a review of the day’s tasks, weather conditions, and any specific hazards. Safety is paramount in this line of work; the risks of high-altitude maintenance, electrical systems, and remote environments demand meticulous planning and strict adherence to protocols.

Technicians inspect their personal protective equipment (PPE) during this time, ensuring everything from their hard hats to their fall arrest systems is in peak condition. This equipment is their lifeline, protecting them from the inherent risks of working at heights of up to 300 feet.

Inspections and Maintenance: The Heart of the Job

After the briefing, the team heads out to the turbines. On most wind farms, these massive structures are spread across vast areas, so technicians typically use specialized utility vehicles to reach them.

Each turbine undergoes routine inspections to ensure it operates efficiently and safely. A single turbine can generate power for hundreds of homes, and downtime can impact the local power supply and the wind farm’s revenue. Technicians climb the towering structures, either using ladders built into the turbines or automated hoist systems, to inspect the mechanical components, electrical systems, and software that control the turbine.

Key maintenance tasks include:

  • Inspecting Blades: Cracks, erosion, or debris can reduce the efficiency of the blades. Technicians use binoculars or drones for initial assessments and, if necessary, perform hands-on repairs suspended by ropes or platforms.
  • Checking the Nacelle: This housing at the top of the turbine contains the gearbox, generator, and other essential components. Technicians ensure all systems are lubricated, properly aligned, and functioning as intended.
  • Electrical System Checks: The control systems that regulate turbine operations are complex. Technicians use diagnostic tools to identify faults or inefficiencies in these systems and recalibrate or replace parts as needed.
The Role of Weather

Weather plays a significant role in a wind technician’s day. Wind turbines are most active in windy conditions, but high winds, thunderstorms, or icy weather can make climbing hazardous. Technicians must be acutely aware of changing weather patterns, often consulting real-time forecasts to determine whether it’s safe to ascend a turbine. If conditions deteriorate, they may pivot to ground-level tasks, such as preparing parts for future repairs or performing data analysis.

Midday Break and Continuous Learning

After a busy morning, technicians regroup for a lunch break. This period also serves as a time to document their work, review turbine performance data, and plan for the rest of the day. Wind farms often rely on digital monitoring systems, and part of a wind technician’s job involves interpreting data to identify trends or anomalies that might indicate emerging issues.

The renewable energy industry evolves rapidly, and continuous learning is a core part of the job. Wind technicians frequently participate in training sessions to stay updated on new technologies, safety standards, and repair techniques.

Problem-Solving: Emergency Repairs

Not all tasks are planned. Occasionally, technicians respond to alarms signaling an issue with a turbine. Diagnosing and resolving these problems requires a mix of mechanical knowledge, electrical expertise, and creativity. For instance, a gearbox failure might demand a temporary fix until a replacement part arrives.

Emergencies underscore the importance of teamwork. Technicians work in pairs or groups, communicating constantly to ensure that no task is performed alone. This approach enhances safety and fosters a collaborative spirit on-site.

The Drive Home: Reflecting on a Job Well Done

By late afternoon, technicians return to the headquarters to debrief. They document their work, report any unresolved issues, and prepare for the next day. Maintaining wind turbines is physically demanding and mentally stimulating, and many technicians find a deep sense of satisfaction in their work. Knowing they contribute to clean energy production motivates them to face the job’s unique challenges.

Safety: The Backbone of the Profession

Throughout the day, safety remains the cornerstone of a wind technician’s work. From harnessing themselves securely during climbs to following strict lockout/tagout procedures when working on electrical systems, technicians are trained to minimize risk. A single misstep can have severe consequences, making vigilance essential.

Technicians undergo regular safety drills and certifications, ensuring they are always prepared for potential emergencies. This culture of safety extends beyond individual responsibility; it is woven into the very fabric of wind farm operations.

A word from up the tower?

We asked our training team, who all have years and years experience in the field as wind technicians, to share some of the things they’ve learned during their careers, as well as some of the things they wished they’d know when starting out.

  • “How critical electrical safety training is!”If I had a chance to start over, I would’ve focused on getting plenty of good quality electrical training under my belt. I wasn’t aware of what the most common electrical hazards are for wind technicians and having that knowledge and supporting skills early on would’ve been a huge bonusCody Ramos, Trainer
  • “Understanding schematics”I’d never had any previous sight of any kind of schematics before, it’s a real skill understanding them and being able to use them properly. Once I did, I felt I was able to take a huge leap forward in my competency as a wind technician and perform my job so much more effectivelyKeyon Demas, Trainer
  • “What are the parts of an actual wind turbine”I know it sounds super basic, but really knowing all the individual parts that make up a wind turbine, their names and functions, and how they all work together, that would’ve been great base knowledge to have starting outMarshall Miller, Training Manager
  • “How physically demanding it can be, and how much travel can be involved”I’ve had a great time seeing so many amazing places across the US and working with the most incredible people. Doing a job where you can be outside and challenge yourself mentally and physically is a brilliant experience, one I’ll cherish forever. But if you want to make a career out of working in the wind industry sector, it’s important to appreciate the implications of this and how you can develop your career as you move through life. Learning from those around us, people who have been there and done that in the real world, is invaluableBrandon McKelvain, Head of Training
Conclusion

A day in the life of a wind technician is a blend of technical skill, problem-solving, and physical endurance. It’s a career that demands resilience and a passion for renewable energy. Above all, it’s a role built on safety—a principle that ensures these dedicated professionals can continue their vital work, helping to power communities across the U.S. with clean, sustainable energy.

Considering starting your career as a wind tech?

Click the button to learn more about WindStart