NFPA 70E for wind technicians

NFPA for wind techs

Electrical safety for wind techs, all you need to know.

Wind technicians, working with both low and high-voltage electrical systems in wind turbines, must have a comprehensive understanding of electrical safety to comply with NFPA 70E, the standard for electrical safety in the workplace. This standard provides guidelines to protect workers from electrical hazards such as shock, arc flash, and arc blast, which are particularly relevant in the wind energy sector. Below is a breakdown of the key electrical safety knowledge and practices that wind technicians need to be familiar with for both low and high-voltage systems:

Understanding Electrical Hazards

  • Shock Hazard: Wind technicians must understand the dangers of electric shock, which can occur when they come into contact with energized parts. Both low and high-voltage systems can pose significant risks, with high-voltage systems capable of causing severe injury or death.
  • Arc Flash and Arc Blast: Arc flash hazards occur when an electric current passes through the air between conductors or from a conductor to ground. This can cause extreme heat and pressure waves (arc blast), which can be fatal. Technicians must recognize the conditions that can lead to arc flash and how to protect themselves.

Voltage Definitions and Categories

  • Low Voltage (typically under 1,000 volts): Wind turbines often operate on systems that fall under this category for controls, lighting, and communication systems. Technicians need to understand the specific risks and safety measures associated with low-voltage work, which can still be dangerous if not handled properly.
  • High Voltage (typically over 1,000 volts): This includes the primary generation and transmission components within wind turbines. High-voltage work involves greater risks, and technicians must be trained in specific safety protocols for working with such systems, including the use of specialized personal protective equipment (PPE) and tools.

Personal Protective Equipment (PPE)

  • Arc-Rated Clothing: Technicians must wear appropriate arc-rated clothing when working on or near electrical equipment. This clothing is designed to withstand the heat generated by an arc flash and prevent burns.
  • Insulated Gloves and Tools: For both low and high-voltage work, insulated gloves are essential to protect against shock. Technicians must also use insulated tools to prevent accidental contact with live parts.
  • Face Shields and Helmets: Arc flash face shields and helmets protect against burns and flying debris caused by arc blasts. These should be used whenever there is a risk of exposure to arc flash hazards.

STL USA partners with world leading PPE manufacturer OEL Worldwide to provide PPE equipment and arc flash clothing for our QEW NFPA 70E standard Low and High Voltage Electrical Safety Training course.

Here are some of the key things that make OEL world-leaders in PPE provision for the wind industry.

  • Specialization: OEL Worldwide Industries focuses specifically on electrical safety, providing specialized products designed to protect workers from electrical hazards like arc flash, shock, and electrocution.
  • Expertise: Their deep knowledge and expertise in electrical safety allow them to design and produce highly effective and reliable safety gear.
  • Standards Compliance: Their products comply with rigorous safety standards such as NFPA 70E, ASTM, and OSHA regulations, ensuring maximum protection for users
  • Advanced Materials: OEL uses advanced materials and technologies to enhance the protective properties of their PPE, ensuring it meets the latest safety standards and provides superior protection.

Lockout/Tagout (LOTO) Procedures

  • Establishing an Electrically Safe Work Condition: Before beginning any work on electrical equipment, technicians must de-energize the equipment and follow LOTO procedures. This involves shutting off the power, locking the switch in the “off” position, and tagging it to indicate that work is being done. This ensures that the equipment cannot be inadvertently re-energized.
  • Verification of De-Energization: After applying LOTO, technicians must verify that the equipment is de-energized using testing instruments. This step is crucial to ensure that no residual voltage is present before beginning work.

Approach Boundaries and Safe Work Distances

  • Limited and Restricted Approach Boundaries: NFPA 70E defines specific approach boundaries for different voltage levels. Technicians must be aware of these boundaries and maintain safe distances from live parts unless properly equipped and authorized to enter these areas.
  • Prohibited Approach Boundary: This is the closest distance a worker can approach an exposed energized part without proper PPE. High-voltage systems have stricter boundaries, and only highly trained personnel should enter these zones.

Training and Competency

  • Electrical Safety Training: Technicians must undergo regular training on electrical safety practices as outlined by NFPA 70E. This training should cover the identification of electrical hazards, the use of PPE, LOTO procedures, and emergency response protocols.
  • Qualified Personnel: Only qualified personnel, as defined by NFPA 70E, are permitted to work on or near exposed energized parts. Technicians must demonstrate competency in the specific electrical tasks they are assigned, including understanding the risks and how to mitigate them.

The low and high voltage electrical safety training to standard NFPA 70E course run by STL USA is a wind-specific, face-to-face training program designed to equip wind technicians with the electrical safety knowledge, best work practices in electrical safety and how to apply them in real-world situations.

Head of Training at STL USA, Brandon McKelvain had this to say;

In my opinion QEW is one of, if not the most important courses for anyone working in an energized wind turbine. This should be a day one course and should be renewed at least every three years. Technicians need and deserve to fully understand the hazards they are being exposed to and what measures must be taken to do their job safely. Unfortunately, it’s still quite common for technicians and companies alike not to fully understand PPE, labels, and how to create an electrically safe work condition. At STL USA we are leveraging our many decades of wind industry experience to create content and exercises that relate to wind technicians. In our QEW LV & HV courses, technicians will put their hands on many different pieces of equipment; absence of voltage testers, load break switches, learn about DMM safety, practice dawning PPE, hang grounds, demonstrate hot-cold-hot checks using proving units, and so much more. We believe QEW training should be more than theoretical, each participant will use critical thinking to apply the knowledge they are learning throughout the training, and prove they understand the safety measures designed to get them home safe!

Arc Flash Risk Assessment

  • Arc Flash Labels: Equipment must be properly labeled to indicate the potential arc flash risk, including the incident energy level and the required PPE. Technicians must be able to read and understand these labels to take appropriate safety measures.
  • Incident Energy Calculations: Technicians should understand how incident energy is calculated and how it influences the selection of PPE and the determination of safe working distances.

Emergency Response Procedures

  • First Aid and CPR Training: Given the risks of electrical shock and arc flash, technicians should be trained in first aid and CPR to respond effectively in case of an accident.
  • Emergency Communication Plans: In remote wind farm locations, having a clear communication plan and knowing the steps for summoning emergency assistance are critical.

Conclusion

Wind technicians working with both low and high-voltage systems need to be thoroughly trained in the electrical safety standards outlined by NFPA 70E. This includes understanding electrical hazards, using appropriate PPE, following LOTO procedures, maintaining safe distances, and being prepared for emergencies. Regular training and adherence to these safety protocols are essential to ensuring the safety of personnel and the reliable operation of wind energy systems.

Learn more about our QEW training course

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Electrical safety for wind technicians

electrical safety for wind technicians

Electrical Safety in the Wind Energy Sector: Ensuring Safe and Efficient Operations

The wind energy sector is a rapidly growing industry, contributing significantly to the global shift towards renewable energy. However, it also presents unique challenges, particularly in terms of electrical safety. Wind turbines are complex electrical systems operating under various environmental conditions, often in remote locations. Ensuring electrical safety in this sector is crucial to protect workers, maintain reliable operations, and prevent accidents that could lead to costly downtime or even fatalities. This article will explore the key requirements and best practices for electrical safety in the wind energy sector.

1. Understanding the Electrical Hazards

Wind turbines generate electricity by converting kinetic energy from the wind into electrical energy. The systems involved in this process include high-voltage components, transformers, inverters, and cabling. These components pose several electrical hazards, such as:

  • Arc Flash: A sudden release of electrical energy that can cause severe burns, blindness, and even death. Arc flashes can occur during maintenance or when electrical equipment fails.
  • Electric Shock: Direct contact with live electrical components can result in electric shock, potentially leading to serious injury or death.
  • Fire Hazards: Electrical faults, such as short circuits, can ignite fires within the turbine’s nacelle or electrical cabinets, which are often difficult to extinguish given their location and the presence of high winds.

2. Regulatory and Standards Compliance

Electrical safety in the wind energy sector is governed by various international and national standards. Adherence to these standards is not only a legal requirement but also a best practice for ensuring safety. Key standards include:

  • IEC 61400 Series: These are international standards covering all aspects of wind turbines, including safety, performance, and testing. IEC 61400-1, in particular, outlines design requirements that help ensure the electrical safety of wind turbines.
  • NFPA 70E: This standard, developed by the National Fire Protection Association, focuses on electrical safety in the workplace, providing guidelines for safe work practices to protect workers from electrical hazards.
  • OSHA Regulations: In the United States, the Occupational Safety and Health Administration (OSHA) provides specific regulations for the energy sector, including wind energy, to ensure worker safety.
  • ISO 45001: This is an international standard for occupational health and safety management systems, which helps organizations improve employee safety, reduce workplace risks, and create better, safer working conditions.

3. Risk Assessment and Safety Planning

Before any work is conducted on wind turbines, a comprehensive risk assessment must be carried out. This assessment should identify potential electrical hazards and evaluate the risks associated with specific tasks. Key elements include:

  • Hazard Identification: Identify all potential electrical hazards associated with the specific tasks to be performed, such as maintenance, repair, or inspection.
  • Risk Evaluation: Determine the likelihood and severity of each hazard, taking into account factors like the condition of the equipment, weather conditions, and the experience level of the workers involved.
  • Safety Planning: Develop a detailed safety plan that includes control measures to mitigate identified risks. This plan should outline the specific safety procedures to be followed, the protective equipment required, and the emergency response protocols.

4. Training and Competency

Proper training is essential to ensure that personnel working in the wind energy sector are aware of the electrical hazards and know how to mitigate them. Training programs should cover:

  • Basic Electrical Safety: Workers should understand the principles of electricity, the dangers of electric shock, and the importance of grounding and bonding.
  • Advanced Training: For those directly involved in electrical work, advanced training in topics such as arc flash protection, lockout/tagout procedures, and working at heights is necessary.
  • Emergency Response: Workers must be trained in emergency procedures, including how to respond to electrical accidents, administer first aid, and perform rescues in confined spaces or at height.

5. Personal Protective Equipment (PPE)

The use of appropriate PPE is a critical component of electrical safety in the wind energy sector. Depending on the specific tasks and identified risks, PPE may include:

  • Arc-Rated Clothing: Protective clothing designed to withstand the thermal hazards of an arc flash. This clothing is rated based on its ability to protect against heat and flames.
  • Insulated Gloves and Boots: To prevent electrical shock, workers should wear insulated gloves and boots when working with or near live electrical equipment.
  • Safety Helmets: Helmets equipped with face shields or visors provide protection against flying debris and arc flashes.
  • Fall Protection Gear: Given the height of wind turbines, fall protection gear, such as harnesses and lanyards, is essential for all personnel working at height.

6. Lockout/Tagout (LOTO) Procedures

Lockout/tagout (LOTO) is a safety procedure used to ensure that electrical equipment is properly shut off and not restarted until the completion of maintenance or repair work. LOTO procedures involve:

  • Isolating Electrical Energy: Before any maintenance work begins, the equipment must be completely de-energized by isolating it from its power source.
  • Locking Out the Equipment: A physical lock is placed on the power source, preventing it from being turned back on until the work is complete.
  • Tagging the Equipment: A tag is attached to the lock, indicating that the equipment is under maintenance and should not be operated. The tag also includes the name of the person responsible for the lockout.

7. Regular Maintenance and Inspections

Routine maintenance and inspections are vital to ensure the ongoing safety and reliability of wind turbines. This includes:

  • Preventive Maintenance: Regular checks and servicing of electrical components to prevent failures and reduce the risk of electrical hazards.
  • Condition Monitoring: Using technology such as thermal imaging and partial discharge testing to monitor the condition of electrical equipment and identify potential issues before they lead to failures.
  • Inspection of Safety Systems: Regular testing and inspection of safety systems, such as grounding systems, circuit breakers, and emergency shutdown mechanisms, to ensure they are functioning correctly.

8. Emergency Preparedness

Despite all precautions, emergencies can still occur. Therefore, it is essential to have robust emergency preparedness plans in place, including:

  • Emergency Response Teams: Designate and train personnel to respond to electrical emergencies, including fire, electric shock, and arc flash incidents.
  • Rescue Plans: Develop and practice rescue plans for workers who may be injured or incapacitated at height or in confined spaces.
  • First Aid Kits and AEDs: Ensure that first aid kits and automated external defibrillators (AEDs) are available and accessible at all wind farm locations.

Conclusion

Electrical safety in the wind energy sector is critical to protecting workers, ensuring reliable operations, and preventing accidents. By adhering to regulatory standards, conducting thorough risk assessments, providing proper training, and implementing robust safety procedures, the industry can mitigate the unique electrical hazards associated with wind turbines. Continuous vigilance and a commitment to safety are essential as the wind energy sector continues to grow and play a pivotal role in the global energy landscape.

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STL USA – Shortlisted for Training Team of the Year, North America

Wind technicians up a wind turbine

STL USA is delighted to have been shortlisted for this year's GWO Training Team of the Year!

The awards, first launched in 2021, shine a light on the teams and individuals who make delivery of GWO standards possible, training hundreds of thousands of wind technicians in GWO courses every year in over 50 countries worldwide.

Jakob Lau Holst, CEO of Global Wind Organisation, says: “The GWO Safety & Training Awards are one of the highlights on our calendar and I am delighted to see them back for 2024. The programme is back, bigger and better than ever before and I know that the competition from entrants will be intense.”

GWO revealed the shortlist for the 2024 Training Team of the Year award a short while ago, with STL USA one of just three in the running for the North America award. This award recognizes outstanding work by GWO training providers, celebrating distinction in all aspects of training.

Whatever the outcome, we are proud to be amongst such excellent company in the running for this year’s award. We would like to congratulate all the finalists for being shortlisted and thank them for their contributions to our industry and their ongoing commitment to keeping all our wind energy colleagues safe.

Have a watch of the video below, where our superb Training Team showcase their incomparable passion and pride for what they do.

Learn more about the team

Click the button to meet some of our amazing team.

How to climb a wind turbine

Wind technicians up a wind turbine

Learn about what it takes to climb a wind turbine

Climbing a wind turbine is a specialized task that requires training, safety equipment, and adherence to strict protocols due to the height and complexity of the structures. Here’s how it is typically done:

1. Preparation and Training

  • Certification: Workers must have the necessary certifications, such as Global Wind Organization (GWO) training, which covers working at heights, first aid, fire awareness, and manual handling.
  • Health and Safety Checks: Climbers must undergo health checks to ensure they are fit for working at heights. Safety briefings and risk assessments are also conducted before any climb.

2. Personal Protective Equipment (PPE)

  • Harness and Fall Arrest System: Workers wear a full-body harness attached to a fall arrest system. This system includes a lanyard or self-retracting lifeline connected to an anchor point on the turbine.
  • Helmet and Gloves: A safety helmet protects against head injuries, and gloves provide a secure grip while climbing.
  • Climbing Suit and Footwear: A climbing suit, often flame-resistant, and sturdy, non-slip boots are worn to protect against environmental hazards and ensure a good grip.

3. Climbing the Turbine

  • Internal Ladder: Most wind turbines have an internal ladder running up the tower. This ladder is equipped with a vertical safety rail or cable system to which climbers attach their fall arrest lanyard.
  • Climbing in Stages: Climbers typically ascend in stages, resting at intermediate platforms. These platforms also serve as emergency exit points in case of fatigue or other issues.
  • Self-Retracting Lifeline: This device automatically adjusts the length of the lanyard, preventing slack and minimizing the risk of falling.

4. Using the Elevator (If Available)

  • Service Lifts: Some wind turbines are equipped with service lifts (small elevators) that can carry workers part or all of the way up the tower, reducing the physical strain of climbing.
  • Lift Safety Protocols: When using the lift, workers must adhere to safety protocols, including checking the lift’s condition and following weight limits.

5. Reaching the Nacelle

  • Final Ascent: The last part of the climb may involve transitioning from the internal ladder to access the nacelle, the housing that contains the gearbox, generator, and other critical components.
  • Securing in Place: Once at the nacelle, workers secure themselves with additional lanyards to ensure they remain safely tethered while performing tasks.

6. Working in the Nacelle and on the Blades

  • Confined Space Procedures: The nacelle can be a confined space, requiring specific procedures to ensure safe movement and ventilation.
  • Blade Access: For work on the blades, technicians may use rope access techniques, hanging from the nacelle, or they might use platforms or cranes for maintenance tasks.
  • Continuous Monitoring: Workers remain in constant communication with the ground team, and their condition is monitored to ensure safety.

7. Descent

  • Controlled Descent: After completing their work, climbers carefully descend using the same ladder or lift system, ensuring they remain attached to the fall arrest system at all times.
  • Emergency Descent: In case of an emergency, climbers can use an emergency descent device that allows them to rappel down the tower safely.

8. Post-Climb Procedures

  • Equipment Check: After the climb, workers inspect their equipment for any damage and ensure it is in good condition for future use.
  • Reporting and Debriefing: Workers complete any necessary reports and participate in a debriefing to discuss any issues encountered during the climb and ensure continuous safety improvements.

Safety Considerations

  • Wind Conditions: Climbing is typically restricted or halted in high winds or severe weather conditions, as these can make the climb more dangerous.
  • Emergency Preparedness: Workers are trained in emergency procedures, including self-rescue and the use of emergency descent devices.
  • Regular Training: Regular refreshers in safety protocols and climbing techniques are necessary to keep certifications current and ensure safety standards are maintained.

Climbing a wind turbine is a highly skilled task that prioritizes safety at every step, from preparation and equipment to the climb itself and subsequent descent.

Book a Course

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How to make money from wind turbines?

How to make money from wind turbines?

Wind Farms - How do they actually return a profit?

How to make money from wind turbines? A question we get asked a lot, so here goes…

Wind farms are large-scale installations of wind turbines that generate electricity by harnessing the kinetic energy of the wind. These farms can be located onshore (on land) or offshore (in bodies of water), and they are designed to produce significant amounts of renewable energy for distribution to the electrical grid. Wind farms are a crucial part of the global shift towards renewable energy, with countries worldwide investing in wind energy as a means to reduce dependence on fossil fuels, enhance energy security, and meet climate goals. They play a significant role in the energy transition, contributing to cleaner and more sustainable energy systems.

Building a wind farm is a significant endeavor requiring careful planning, substantial investment, and ongoing management. The process is complex but vital for harnessing renewable energy and contributing to a sustainable energy future. But with such huge amounts of resource required to build and operate a wind farm, including staff, training, maintenance, equipment and repairs, how do companies get a return on their investment?

Companies make money from wind energy through several revenue streams, all of which are tied to the generation and sale of electricity, incentives, and related services.

Here’s how it works:

1. Selling Electricity

  • Power Purchase Agreements (PPAs): Wind energy companies enter into long-term contracts with utilities, businesses, or governments to sell electricity at a fixed price. These agreements provide a steady income stream and reduce financial risk for both parties.
  • Wholesale Market Sales: In some cases, wind energy producers sell electricity directly on the wholesale electricity markets, where prices can fluctuate based on demand and supply conditions.

2. Renewable Energy Certificates (RECs)

  • Selling RECs: Wind energy companies generate Renewable Energy Certificates (RECs) for each megawatt-hour (MWh) of electricity produced. These certificates can be sold to utilities or corporations to help them meet renewable energy mandates or voluntary sustainability goals. RECs provide an additional revenue stream independent of the electricity itself.

3. Government Incentives and Subsidies

  • Production Tax Credits (PTCs): In countries like the U.S., wind energy companies can benefit from tax credits based on the amount of electricity they produce. The Production Tax Credit (PTC) provides a per-kilowatt-hour tax credit for the first ten years of a wind farm’s operation.
  • Investment Tax Credits (ITCs): Some wind projects might qualify for Investment Tax Credits, which allow a percentage of the cost of developing a wind farm to be deducted from taxes.
  • Grants and Loans: Governments sometimes offer grants, low-interest loans, or other financial incentives to support the development of wind energy projects.

4. Selling Carbon Offsets

  • Carbon Credits: Wind energy projects reduce carbon emissions, and companies can sell carbon credits generated from these reductions. Corporations or governments seeking to offset their carbon footprint purchase these credits, adding another revenue stream.

5. Equipment Manufacturing and Maintenance

  • Turbine Sales: Companies that manufacture wind turbines, blades, and other components profit from selling these to wind farm developers.
  • Operations and Maintenance Services: After wind farms are operational, companies can earn money by providing maintenance services, ensuring the turbines are functioning efficiently and minimizing downtime.

6. Ownership and Operation of Wind Farms

  • Energy Companies and Utilities: Some energy companies build, own, and operate wind farms themselves, generating revenue from electricity sales while benefiting from government incentives and RECs.
  • Independent Power Producers (IPPs): These companies develop and operate wind farms, selling electricity to utilities or directly to large industrial users under PPAs.

7. Leasing Land

  • Land Lease Payments: Wind energy developers often lease land from farmers or other landowners to build wind farms. Landowners receive lease payments, while the wind energy company profits from the electricity generated.

8. Exporting Technology and Expertise

  • Consulting Services: Wind energy companies may offer consulting services, sharing their expertise in wind farm development, grid integration, and project management with other developers or governments.
  • Exporting Equipment: Companies in countries with advanced wind energy industries might export wind turbines, blades, and other components to countries where the wind energy sector is still developing.

9. Innovative Financing Structures

  • Yieldcos: Some companies create yieldcos, publicly traded entities that own wind farms and other renewable energy assets. Yieldcos provide investors with a steady return from the revenue generated by these assets, while the parent company raises capital by selling shares.

Wind energy companies make money through a combination of direct sales of electricity, leveraging government incentives, selling environmental credits, and providing related products and services. As the global push for clean energy continues, these revenue streams are expected to grow, making wind energy an increasingly profitable industry.

If you’re interested a career in wind, click the button to learn about our innovative WindStart program

STL USA Fall onsite GWO training program – get your site on the list?

fall onsite GWO training

Onsite visits and locations for 2024

The STL USA fall onsite GWO training program is taking shape as we plan our visits through until Christmas. 

Each year STL USA trains 100s of wind technicians onsite, as this saves employers both time and money. The schedule fills up very quickly, as compnies are keen to get their site visits booked in to take advantage of this fantastic training service, so be sure you regiaster your interest and get your site added to the program ASAP!

STL USA is acutely aware that the costs associated with sending wind technicians away from the site for extended periods for training can be inhibitive. This coupled with the reduction in manpower onsite makes our program the perfect solution. With this in mind, STL USA is now planning where we will be visiting this fall for onsite GWO training and more.

Core courses for fall onsite GWO training
  • GWO Basic Safety Training and Refreshers
  • GWO Advanced Rescue Training and Refreshers
Confirmed visits

Iowa area in early September scope for 1-2 additional site visits

West Virginia late September scope for 1-2 additional site visits

Planned

October:

Early month West Virgnia/Upstate New York 

Late month Iowa, Kansas, Oklahoma

November:

Early month California

December:

South Texas (Harlingen Location)

If you need training and your site is in or close to these regions get in touch and we can organise a visit

Why Choose STL USA for Onsite GWO Training?

Safety Technology USA is a leader in providing high-quality training due to several key factors:

  1. Expert TrainersExperienced trainers with extensive field knowledge.
  2. Convenience: Onsite training with mobile units for maximum efficiency.
  3. Proven Track Record: Over 5,000 technicians trained, including major clients like RWE, Siemens Gamesa, and GE.
  4. Comprehensive Offerings: Additional training programs such as NFPA 70E Electrical Safety training.
What else can STL USA train Onsite ?

Alongside the GWO courses mentioned above STL USA can also deliver QEW to NFPA 70E onsite and enhance the onsite visit with a number of blot-on options:

  1. 1 day QEW (Qualified Electrical Worker to NFPA 70E) Low Voltage course
  2. 1 day QEW (Qualified Electrical Worker to NFPA 70E) High Voltage course
  3. 1/2 day Rescue plan development, includes written rescue plan for a range of scenarios with video/images
  4. EAP/ERP (Emergency Action/Response Plan) site evaluation and reporting (equipment, existing plans), development of updated plan and testing of plan to include video, written documentation and live trial. 
  5. 1/2 day local first responder sessions. Intro for local first responders to the wind turbine environment

Join the onsite schedule?

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Where do we train Onsite GWO courses?

What is onsite GWO training? Technicians onsite at a wind farm

Let us bring GWO training to you.

At STL USA, we appreciate that investing in high-quality training comes with a significant financial burden for our customers, not only the cost of the courses themselves, but also downtime, travel and accommodation costs, as well as staff being away from site for extended periods of time.
That’s why we have developed our onsite training facilities, meaning we can bring the training to you, at your facility, thanks to our state-of-the-art mobile training unit.

The Advantages of Onsite Training

STL USA provides onsite training across the United States, bringing their mobile training units directly to wind farms or other operational sites delivering onsite wind technician training across a variety of courses. This onsite approach enhances the relevance and applicability of the skills learned, allowing technicians to train in real-world settings.

These mobile units are fully equipped to deliver GWO-compliant training, enabling companies to maintain high safety standards without the logistical challenges of sending employees to offsite training centers. This method saves time, reduces costs, and minimizes operational disruptions.

Core GWO courses delivered onsite include:

  • GWO Basic Safety Training and refreshers
  • GWO Advanced Rescue Training and refreshers
Where are we provide onsite training?

Simply put, we go where the wind takes us! In reality, this means that we focus on areas across the entire United States where there is a high density of wind farms, including, but not exclusively:

  • Iowa
  • California
  • Oklahoma
  • Illinois
  • Kansas
  • Kentucky
  • South/North Dakota
  • Minnesota
  • Colorado
  • Oregon
  • West Virginia
  • New York
Why Choose STL USA for Onsite GWO Training?

Safety Technology USA is a leader in providing high-quality training due to several key factors:

  1. Expert Trainers: Experienced trainers with extensive field knowledge.
  2. Convenience: Onsite training with mobile units for maximum efficiency.
  3. Proven Track Record: Over 5,000 technicians trained, including major clients like RWE, Siemens Gamesa, and GE.
  4. Comprehensive Offerings: Additional training programs such as NFPA 70E Electrical Safety training.
What else can STL USA train Onsite ?

Alongside the GWO courses mentioned above STL USA can also deliver QEW to NFPA 70E onsite and enhance the onsite visit with a number of blot-on options:

  1. 1 day QEW (Qualified Electrical Worker to NFPA 70E) Low Voltage course
  2. 1 day QEW (Qualified Electrical Worker to NFPA 70E) High Voltage course
  3. 1/2 day Rescue plan development, includes written rescue plan for a range of scenarios with video/images
  4. EAP/ERP (Emergency Action/Response Plan) site evaluation and reporting (equipment, existing plans), development of updated plan and testing of plan to include video, written documentation and live trial. 
  5. 1/2 day local first responder sessions. Intro for local first responders to the wind turbine environment
Testimonials and Industry Recognition

Clients like Siemens Gamesa praise STL USA for their knowledgeable trainers and high-quality training sessions, highlighting the value and impact of STL USA’s training programs.

So, if you are interested in taking advantage of the many and significant benefits of onsite training for your team, including bespoke rescue plans created specifically for your site and technicians, click below to get in touch via the button below.

 

Book an Onsite Course

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ANNOUNCEMENT – STL USA partners with Kito Crosby

STL USA is proud to announce yet another world-class partner, Kito Crosby

Kito Crosby is a leading manufacturer and supplier of lifting and rigging equipment. They produce a comprehensive range of Crosby-branded products including shackles, hooks, wire rope clips, lifting clamps, turnbuckles, blocks, and sheaves, as well as customized lifting solutions. These products are critical components in various industries such as construction, oil and gas, mining, transportation, and renewable energy, where they are used to safely lift and move heavy loads.

What makes Kito Crosby the ideal partner for STL USA?

STL USA has selected Kito Crosby to exclusively supply Crosby training materials and resources, as well as rigging equipment for our GWO Slinger Signaller and Crane & Hoist courses. Here’s why we believe they are the ideal partner for us:

High Manufacturing Standards: Crosby products are known for their stringent manufacturing processes, ensuring that every product meets or exceeds industry standards. Kito Crosby’s commitment to quality ensures that Crosby equipment is reliable and durable, providing users with confidence in their lifting operations.

Rigorous Testing: Every product undergoes rigorous testing for safety and performance. This dedication to quality control helps prevent accidents and equipment failure, making Crosby products some of the safest on the market.

Advanced Technology: Kito Crosby invests heavily in research and development to incorporate the latest technologies and innovations into their products. This focus on innovation helps improve the efficiency and safety of lifting operations.

Environmental Responsibility: Kito Crosby is committed to sustainable practices, ensuring that their manufacturing processes minimize environmental impact.

Crosby products stand out due to their unparalleled quality, safety, and innovation, which align perfectly with STL USA’s core values as a training provider. Their products are trusted worldwide for their reliability and performance, making them a leader in the lifting and rigging industry. By continuously pushing the boundaries of engineering excellence and maintaining a customer-centric approach, Crosby products have earned their reputation as the best in the field.

crosby alliance logo

Want to learn more?

Click the button to learn more about our GWO Slinger Signaller and Crane & Hoist courses

Slinger Signaller – What does the job entail?

Role of a Slinger Signaller - what can I expect from the job?

A slinger signaller is a crucial role in lifting operations, particularly in industries like construction and wind energy. This role involves the safe and efficient directing of crane and lifting operations, ensuring that loads are securely attached, balanced, and moved without causing accidents or damage. The slinger signaller works in close coordination with crane operators, riggers, and other personnel involved in lifting activities.

Responsibilities of a Slinger Signaller

  1. Load Attachment and Security
    • Sling Selection: Choosing the appropriate slings and lifting gear for the load based on its weight, shape, and material.
    • Attachment: Securing the load to the crane or lifting equipment using slings, chains, or other rigging materials.
    • Load Balancing: Ensuring that the load is properly balanced to prevent swinging or tipping during the lift.
  2. Signalling and Communication
    • Hand Signals: Using standardized hand signals to communicate with the crane operator to guide the movement of the load.
    • Radio Communication: Utilizing radios or other communication devices to relay instructions and coordinate operations.
    • Safety Coordination: Ensuring that all personnel involved in the lifting operation are aware of their roles and that the work area is clear of unnecessary personnel.
  3. Safety Checks and Compliance
    • Pre-Lift Inspections: Conducting inspections of the lifting gear and load to ensure they are in good condition and compliant with safety standards.
    • Risk Assessments: Identifying potential hazards associated with the lifting operation and implementing measures to mitigate these risks.
    • Compliance: Adhering to safety regulations, standards, and best practices to prevent accidents and ensure a safe working environment.
  4. Guiding the Load
    • Movement Direction: Directing the crane operator to move the load to the desired location safely and efficiently.
    • Positioning: Ensuring the load is placed accurately and safely at its final destination.
    • Monitoring: Continuously monitoring the load during lifting and lowering to prevent accidents.

Specialization and Training

The role of a slinger signaller is highly specialized and requires specific training and certification. This training typically includes:

  1. Rigging and Slinging Techniques
    • Types of Slings: Knowledge of different types of slings (wire rope, synthetic, chain) and their appropriate use.
    • Load Calculations: Understanding how to calculate load weights and the capacity of lifting equipment.
  2. Signalling Methods
    • Hand Signals: Training in standardized hand signals used to communicate with crane operators.
    • Communication Skills: Effective use of radios and other communication devices.
  3. Safety Practices
    • Risk Assessment: Identifying and mitigating potential hazards in lifting operations.
    • Equipment Inspection: Conducting pre-use checks on lifting equipment to ensure safety.
  4. Legal and Regulatory Knowledge
    • Standards and Regulations: Familiarity with industry standards and regulations governing lifting operations.

Role on Top of the Wind Technician Job

For a wind technician, taking on the role of a slinger signaller adds significant responsibilities and requires additional skills and knowledge. Here’s how it integrates with their primary duties:

  1. Complex Lifting Operations
    • Turbine Components: Wind technicians often work with large and heavy turbine components. Being a trained slinger signaller ensures these components are lifted and positioned safely.
    • Tight Spaces: Wind turbines are often in areas where space is limited, requiring precise lifting and signalling to avoid accidents.
  2. Enhanced Safety
    • Reduced Risk: By being both a wind technician and a slinger signaller, the individual can better manage and reduce the risks associated with lifting operations.
    • Holistic Understanding: Combining technical knowledge of wind turbines with lifting expertise leads to a comprehensive understanding of the operations, further enhancing safety.
  3. Operational Efficiency
    • Streamlined Processes: Having dual roles can streamline operations, as the individual can directly oversee and manage the lifting processes, reducing the need for additional personnel.
    • Improved Coordination: Better coordination between the lifting team and the technical team, as one person understands the requirements and limitations of both areas.
  4. Career Advancement
    • Skill Diversification: Adding slinger signaller qualifications to a wind technician’s skill set can open up more advanced roles and responsibilities within the wind energy sector.
    • Higher Demand: Technicians with dual qualifications are often in higher demand, offering more job security and potential for increased earnings.

Conclusion

The role of a slinger signaller is essential in ensuring the safe and efficient execution of lifting operations, particularly in industries like wind energy. For wind technicians, acquiring slinger signaller qualifications adds significant value, enhancing safety, operational efficiency, and career prospects. This dual expertise allows for a more integrated approach to managing the complex and demanding tasks associated with maintaining and constructing wind turbines.

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