NRG Systems, a global leader in wind and solar resource measurement and intelligence, announced its role in the wind resource assessment for the 600 MW Monsoon Wind Power Project in Laos. As the first wind plant in Laos and the largest in Southeast Asia, this landmark project marks a significant step in the region’s transition to clean energy, underscoring NRG’s role in driving global renewable energy growth.
The Monsoon Wind Power Project was set to be completed by the end of February. (Courtesy: NRG Systems)
In collaboration with Thailand’s authorized NRG Systems dealer, Strong Engineering and Consultant Co., NRG provided its advanced resource measurement technologies for the Monsoon Wind project’s pre-construction phase. NRG’s solutions enabled the collection of critical data to estimate the project’s annual energy production (AEP), assess financial viability, and identify potential risks, including site-specific challenges such as wind shear and wake effects.
The site, located on the Dak Cheung Plateau, an area 1,200 meters above sea level, posed significant logistical challenges due to its remote location and lack of road access. SEC selected NRG Systems’ resource assessment solutions for flexibility and performance in diverse climates and terrains.
“We are incredibly proud to play a key role in the Monsoon Wind Project’s success,” said Evan Vogel, President of NRG Systems. “Our wind resource assessment systems are designed for rapid deployment and ease of installation, even in the most difficult locations. With seamless data accessibility and high-quality measurement capabilities, our systems ensure efficient and reliable resource assessment campaigns. This capability was critical for determining the Monsoon Wind project’s viability and optimizing future performance.”
“NRG’s team provided expert technical support throughout the resource assessment campaign, helping us navigate the complexities of the site and optimize performance. Their solutions significantly reduced the need for site visits, saving time and money while ensuring accurate data collection,” said Wisa Wattanakankit, SEC managing director.
The Monsoon Wind Power Project features a 500kV transmission line connecting Laos and Vietnam. As Southeast Asia’s largest wind project, it sets an industry benchmark with its cross-border Power Purchase Agreement, showcasing the viability of large-scale wind energy in the region.
“NRG’s solutions are instrumental in advancing wind energy across Southeast Asia,” Vogel said. “By providing accurate, reliable data, we are helping lay the foundation for a sustainable energy future in the region, with wind energy playing an increasingly significant role in meeting energy demands and reducing carbon emissions.”
The Monsoon Wind Power Project installation was scheduled to be completed by the end of February 2025.
As part of Engineers Week, Combilift opened its doors to local schools in an initiative aimed at promoting STEM education and announced the Regional VEX Robotics championships will be within the Combilift headquarters, with winners getting a chance to qualify in the world championships.
Combilift recently hosted the Regional VEX Robotics championships at its headquarters, with winners getting a chance to qualify in the world championships. (Courtesy: Combilift)
Combilift, a global leader in innovative material-handling solutions, is dedicated to supporting STEM education and nurturing the future workforce. By hosting this event, the company aims to bridge the gap between classroom learning and industry applications, encouraging students to explore careers in engineering and technology.
At the event, St. Macartan’s VEX Robotics Team, winners of the 2025 North West Regional Finals, presented their award-winning robot to more than 250 students from local schools and talked about the process and skills involved in designing, building, and programming a robot. To get a full overview of the competitions, a friendly match was held, highlighting the excitement and technicalities of the high-caliber VEX competitions. “I am the computer science teacher and in 15 years of teaching, this is probably the best thing I’ve ever been involved in,” said St. Macartan’s College teacher Brendan McAvera. “It really shows the inspiration you can get back from your students when you give them a project to do, and they put their heart and soul into it, and they get their rewards since they’ve won three awards this year.”
Through interactive demonstrations and hands-on experiences, young learners gained insight into the real-world applications of STEM and the vital role robotics plays in modern industries.
“By engaging with these cutting-edge technologies, students can develop skills specific to robotics, hydraulics, and programming, as well as other vital skills such as teamwork, strategy, and problem-solving,” said Martin McVicar, Combilift CEO and founder. “These abilities are essential for students’ curricula and are transferable to their future careers in STEM, including potential apprenticeships at Combilift or paths in engineering. Listening to the skills these students have developed; it makes you proud. It feels like you have a Formula One team in front of you. When you look at the different roles each person plays and the skills they have developed, these abilities will serve them well throughout their lives.”
Through initiatives like this, Combilift continues to play a prominent role in motivating young minds to think innovatively and develop the skills necessary for their futures. By investing in the next generation of engineers, Combilift is helping to shape a brighter tomorrow for everyone.
Xodus CEO Steve Swindell: “Xodus was founded 20 years ago to deliver independent, integrated thinking to the energy industry.” (Courtesy: Xodus)
Global energy consultancy Xodus recently acquired Daymark Energy Advisors to expand its power networks capabilities across international energy transition projects.
The power networks market is set for growth as electrification will require significant upgrades to networks around the world. The transmission and distribution (T&D) of electricity from source to demand is critical to the commercial success of energy-transition projects.
The acquisition of Daymark will allow Xodus to advise on projects from generation to demand. The additional capability, alongside Xodus’ advisory and engineering expertise, will allow integrated advice on technical challenges, regulatory frameworks, and the market pricing dynamics associated with T&D.
The acquisition also bolsters Xodus’ advisory capability and energy transition offering. This will include battery storage and onshore wind and solar, while also providing a critical differentiator in other transition fields, such as sustainable aviation fuels (SAF).
“Xodus was founded 20 years ago to deliver independent, integrated thinking to the energy industry,” said Steve Swindell, CEO of Xodus. “The energy landscape has evolved beyond recognition in that time, and the needs of the industry have changed. Xodus wants to continue to be at the forefront of delivering integrated advice to the industry and acquiring Daymark Energy Advisors supports this effort. Our involvement in energy transition projects has grown considerably, with many developments either delivering electrons to the grid or drawing upon power from the grid/local power source in the production of hydrogen or the storage of carbon.
Daymark brings deep knowledge and an integrated view of energy infrastructure, regulation, and markets to help clients succeed in the face of uncertainty and transformative change. This acquisition will combine our expertise to offer clients more complete solutions to the challenges they face and the questions they have about this growing, global market.” The acquisition will add to Xodus’ existing operations in Houston and Boston with Daymark’s team working across the U.S. and Canada.
“Xodus has a long track record of activities in the global offshore wind, oil and gas, cables, and interconnectors sectors as well as CCUS and hydrogen,” said Marc Montalvo, Daymark’s CEO. “Both parties bring different — but complementary — knowledge and skillsets to the energy market and infrastructure project consultancy. We have a 45-year history in delivering strategic advice and expert opinion to senior teams across North America and look forward to implementing this with Xodus going forward.
We are known for combining rigorous analytical methodology with knowledge of ISO operations and market rules, transmission planning, state and federal policies, and regulatory and rate structures to provide comprehensive solutions that address client needs. Our blended expertise will offer more complete solutions to industry challenges.” Daymark will initially work independently following the acquisition at the beginning of March 2025 but is expected to integrate and be fully Xodus in the future.
The National Ocean Industries Association (NOIA) recently released the Offshore Energy Industry’s Innovation and Workforce Excellence report that showcases the advancements and commitments of the offshore energy sector in innovation, environmental stewardship, and workforce development, featuring 16 case studies from NOIA member companies and other partner organizations.
NOIA’s Offshore Energy Industry’s Innovation and Workforce Excellence report features 16 case studies from NOIA member companies and other partner organizations. (Courtesy: NOIA)
“This report not only reflects our industry’s dynamic progress but also our commitment to smart, efficient, and responsible energy production,” said Erik Milito, NOIA president. “American offshore energy production is where innovation meets environmental responsibility, and this report, with its 16 comprehensive case studies, is a testament to that achievement. We’re not just meeting expectations — we’re surpassing them, pushing technology forward, and empowering our world-class workforce. That drive runs through every level of our industry, from the Gulf of (Mexico) to the Atlantic coast and beyond, reflecting a shared commitment to excellence.”
Case studies include American Bureau of Shipping (ABS), Danos, Equinor, Exmar Offshore, Fugro, Kosmos, Noble, Ørsted, SEACOR Marine, Seadrill, SLB, Talos, TechnipFMC, TGS, Valaris, and the NEED Project.The report delves into cutting-edge projects such as the 20,000 projects in the Gulf of Mexico, highlighting how the industry is pushing boundaries in ultra-deep-water exploration.
The document underscores the sector’s dedication to environmental, social, and governance principles, offering insights into carbon capture, use, and storage, and sustainable offshore transport and operations.
Emphasizing durability and safety, the report features case studies and initiatives from industry leaders, showcasing how companies are nurturing the next generation of energy professionals. NOIA’s dedication to ESG extends to educational initiatives through its long-standing partnership with the National Energy Education Development (NEED) Project. For more than 25 years, this collaboration has aimed at enhancing energy education, including in the realm of offshore energy.
The report celebrates the achievements of companies such as TechnipFMC, SEACOR Marine, LLOG, and SLB, who have been recognized for their exemplary practices in ESG and safety.
NOIA encourages all stakeholders, from policymakers to industry professionals, to explore the detailed insights and case studies that highlight the sector’s leadership in innovation and workforce excellence.
The United States is making significant strides toward a greener future, with wind energy emerging as a cornerstone of its renewable energy strategy. An analysis by global engineering firm, BGB, recently uncovered which U.S. states are spearheading this transition and those that are falling behind in their wind-energy efforts.
To understand which states are leading the U.S. toward a greener future, BGB analyzed six key data points to evaluate turbine shortfall and overall wind-energy efficiency across the country, including the number of turbines in each state, the estimated monthly output, and number of turbines required to meet residential energy demand.
Iowa, Texas, and Oklahoma lead the U.S. in wind energy efficiency. (Courtesy: BGB)
Iowa has more than 6,400 turbines generating more than 5.4 billion kWh of electricity per month, producing enough energy to power its 1.4 million homes, leaving a surplus of more than 4,000 turbines. Iowa’s open plains and consistently high wind speeds make it a national leader in wind-energy efficiency, particularly in addressing residential energy demands.
Leading the nation with 19,137 turbines, Texas produces 16.1 billion kWh of wind energy monthly. This output is sufficient to power all 11.5 million homes in the state, demonstrating Texas’ commitment to renewable energy and its capacity to fulfill residential energy requirements.
Oklahoma is home to 5,527 turbines, generating 4.6 billion kWh monthly — enough to power all 1.7 million of the state’s homes while maintaining a surplus of more than 3,000 turbines. Its expansive geography and modern infrastructure position it as a major player in the wind industry and a key contributor to meeting residential energy needs.
The U.S. is home to more than 70,000 wind turbines, each helping the U.S. work toward ambitious climate targets by reducing greenhouse gas emissions, improving air quality, and enhancing energy security. Beyond environmental benefits, the U.S. wind industry also boosts economic growth, creating more than 120,000 in turbine manufacturing, maintenance, and operations.
Two states that don’t fare as well are North Carolina and Pennsylvania: North Carolina has the largest wind-turbine shortfall, requiring 5,983 turbines to be installed if it were ever to meet the energy demand of its 4.7 million homes.
Pennsylvania doesn’t fare much better, with its 766 turbines not able to satisfy the demand of 5.7 million homes. To make up the difference, the state would need another 5,072 turbines.
“Research like this shows just how important wind is to the U.S. energy mix,” said James Wood, CFO at BGB in Virginia. “The top states showcased in our research show what’s possible with strategic investment in renewable energy infrastructure. With the new administration putting a pause on the development of new turbine installations both onshore and offshore, it’s never been more important to illustrate the power of renewable energy and how it can help the average American save on their energy bills.”
CLEANPOWER 2025 is set for Phoenix, Arizona, May 19-22. To prepare for the event, Wind Systems talked with ACP Chief Operating Officer Kelly Darnell about what to expect at this year’s premier renewable-energy conference.
This year’s CLEANPOWER show will be in Phoenix, Arizona. What about this venue made it ideal for the 2025 show?
Arizona is one of the nation’s epicenters for clean-energy manufacturing and solar project development. Arizona ranks eighth in the nation for operating clean-energy capacity with more than 8,000 MW, and our industry employs more than 10,000 workers in the state. Hosting our conference in Phoenix is a perfect opportunity to demonstrate the value of clean power in the Southwest and America as part of an “all-of-the-above” energy approach.
How will this year’s show differ from what attendees experienced in Minneapolis last year?
The core mission of CLEANPOWER, uniting leaders from across this energy sector for targeted networking, dealmaking, and top-level industry insight, remains consistent — but this year in Phoenix, we are taking everything to the next level. The demand for energy is skyrocketing, and at CLEANPOWER 2025, we’re investing in the industry’s ability to overcome barriers.
The CLEANPOWER program is unparalleled. In a defining moment for the industry, when the pressure to unite, navigate challenges, and seize opportunities has never been greater, joining the conference has never been more important.
We’re investing in expanding and strengthening our talent pipeline; we are introducing “CLEANPOWER in Color,” a brand-new event specifically tailored to elevating and connecting diverse, mid-level professionals in our industry, and we’re once again hosting the EmpowHER luncheon, back from last year by popular demand, to meaningfully connect women across the industry.
We’re fine-tuning logistics by bringing stages back to the show floor — enhancing attendee access to as much content as possible. The biggest change this year is that the exhibition will be split across two floors in the Convention Center.
If I were a first-time exhibitor, what should I expect from this year’s show?
CLEANPOWER is the place to build your brand and close deals. We consider the show the “goldilocks” of events — we unite nearly 10,000 decisionmakers and leaders from across the industry, to maximize your visibility with the right people. CLEANPOWER attendees mean business. In fact, “CEO” was the third most common attendee job title last year. For anyone considering exhibiting, be sure to reach out to our team as soon as possible.
What issues should I expect presenters to address?
The theme for this year’s event is, “Built to Power,” which serves as an ode to the incredible impact clean energy is making in revitalizing domestic manufacturing across the country.
Across six show-floor stages plus the general sessions, we’ll address the most critical, future-defining topics for American energy including: the manufacturing renaissance driven by clean energy, the grid buildout needed to support growing demand, the importance of an all-of-the-above energy strategy for reliability and affordability, the impact of federal policy shifts on energy investment and deployment, what’s next for permitting reform, innovations in technology across all the technologies, and more.
What kind of networking opportunities will be available for attendees?
Our team specifically curates networking opportunities to ensure attendees leave with meaningful, powerful connections. From large events such as the opening reception, networking breakfasts, and evening exhibit hall happy hours, to specific meet ups such as a veterans reception, women’s meetup, 5K run/2.5K walk and an entire CLEANPOWER in Color program, there is something for everyone. All of these events are sponsorable, and we especially encourage exhibitors to sponsor to maximize their visibility at the event.
Any notable speakers at this year’s event?
Every speaker at CLEANPOWER is notable, but we do have a few extra-exciting household names we will be announcing closer to the event. For now, I can share that we’re thrilled to welcome Trevor Noah to the stage during the Closing General Session on May 22 as well as many of our Board company CEOs, federal and state government leaders, and top policy and subject matter experts across the duration of the event.
TE Connectivity, a world leader in connectors and sensors, a world leader in connectors and sensors, recently entered into a definitive agreement to acquire Richards Manufacturing Co. from funds managed by Oaktree Capital Management, L.P. and members of the Bier family, long-standing owners and leaders of the business. The transaction will strengthen TE’s position in serving electrical utilities in North America by combining complementary product portfolios and adding the expertise of the Richards team, enabling TE to benefit from strong growth trends in underground electrical networks.
Richards is widely recognized as a best-in-class provider of utility grid products and, over the last several years, has experienced double-digit revenue growth. The company, headquartered in Irvington, New Jersey, is a leader in underground distribution equipment, with differentiated positions in both medium-voltage cold-shrink cable accessories and network protector products. The Richards management team is committed to TE and will continue to lead the business post-closing.
“One of the key pillars of our strategy is investing in long-term secular growth trends that further our commitments to being a trusted partner to customers around the world and creating value for our owners,” said TE Connectivity CEO Terrence Curtin. “We have been strategically investing in our energy business over the past several years to be a growth driver for TE. We’ve benefited from our focus on utility scale renewables and grid reliability by providing our customers with innovative products required for the ongoing evolution of the energy grid. The acquisition of Richards Manufacturing aligns with our strategy and positions us to further capitalize on an accelerating grid replacement and upgrade cycle in North America, driven by aging infrastructure, the increased hardening of the network and the upgrades that are required to support the increase in energy demand. We look forward to building on the momentum of Richards’ growth trajectory and welcoming their talented team to TE.”
“We are thankful for the partnership, strategic support, and resources that Oaktree brought to our firm,” said Joe Bier, CEO of Richards Manufacturing. “Together, we have made significant investments in our facility, products, and team to serve our customers. We are thrilled for the next stage of our business as part of TE Connectivity. We have been working in the utilities market for nearly 80 years supporting the design, protection, and life of critical infrastructure. We believe TE is a great home for the business our family has built and are excited for a bright future ahead for Richards in TE.”
The all-cash transaction is valued at approximately $2.3 billion, subject to customary post-closing adjustments. The transaction will be financed through cash and additional debt.
TE expects mid-teens return on invested capital upon completion of tax, revenue, and cost synergies. Upon completion of the transaction, the acquired business will be reported as part of TE’s Industrial Solutions segment and is expected to contribute annual sales of approximately $400 million and EBITDA margins in the mid-30 percent range.
LiCAP Technologies, a leader in advanced energy storage and solutions, recently received a multimillion-dollar order from a major wind energy company. This order marks a significant milestone in LiCAP’s mission to enhance the efficiency and reliability of renewable energy storage with its innovative ultracapacitor and Activated Dry Electrode® technology.
LiCAP’s Ultracapacitor Retrofit solution improves lifetime, lowers maintenance cost, and reduces operational safety concerns for wind-energy applications requiring rapid energy discharge and recharge capabilities. (Courtesy: LiCAP)
The partnership underscores the growing demand for high-performance energy storage and ultracapacitor based solutions for emergency pitch control in wind turbines with electrical pitch systems. LiCAP’s Ultracapacitor Retrofit solution is designed to be a drop-in replacement for lead-acid batteries. All cable and hardware solutions adapt natively to all the OEM’s component configurations without modification required.
Compared with the traditional lead-acid battery-based solution, LICAP’s solution contains no toxic materials and is environment friendly. It also improves lifetime (10-plus years), lowers maintenance cost, and reduces operational safety concerns — critical factors for wind-energy applications requiring rapid energy discharge and recharge capabilities.
“This order is a testament to the strength and value of LiCAP’s advanced energy storage solutions,” said Martin Mills, vice president of sales – LiCAP Technologies. “Our Activated Dry Electrode® technology provides unparalleled performance, and we are excited to support the wind energy industry with solutions that drive efficiency and sustainability.”
LiCAP’s ultracapacitors and Activated Dry Electrode® technology are increasingly recognized for their ability to enhance the reliability of energy storage in many applications. This latest order further positions the company as a key supplier for renewable energy infrastructure, reinforcing its commitment to supporting the global transition to clean energy.
If a wind or solar installation doesn’t last as long as its expected 20-30 year service life, is it really a sustainable use of resources? With corrosion as a key enemy of wind and solar longevity, Cortec® reminds manufacturers and investors not only of the importance of proper materials selection during the design phase, but also of the benefits of a few simple corrosion preventative steps during shipping and maintenance.
One of the first corrosion prevention tasks is to get wind turbines to the jobsite in like-new condition. (Courtesy: Cortec)
One of the first corrosion prevention tasks is to get solar panels and wind turbines to the jobsite in like-new condition. This can be challenging when fluctuating temperatures, humidity, and even salt spray heighten the risk of corrosion during the journey. The right protective packaging can eliminate this problem.
In the case of wind-turbine components, size, rather than ESD protection, is one of the big issues. Large wind-turbine shafts, rings, and hubs often receive the brunt of attack from harsh weather because they may be transported on open truck beds or stored onsite for several years until installation is completed. Fortunately, VpCI®-126 HP UV Shrink Film and MilCorr® VpCI® Shrink Film are two anticorrosion films designed to hold up well in outdoor conditions and available in sizes large enough to shrink wrap giant components. If needed, additional protection can be added, such as VpCI®-368 D removable coating for more vulnerable surfaces and/or Desicorr® VpCI® Pouches for additional corrosion protection plus desiccant action within equipment and packaging voids.
Once solar panels and wind turbines are put into service, the job of corrosion protection is not over. Solar panels and wind turbines are inherently equipped with wires and electrical contact points that merge inside control boxes potentially subject to the ingress of oxygen, humidity, and chlorides.
Placing a small self-stick device such as the VpCI®-105 or VpCI®-111 Emitter inside is an easy and effective way to guard against corrosion surprises that would require early repair or replacement of any exposed electrical contact points within the panel. Similar to VpCI® films, these devices release corrosion inhibiting vapors that diffuse throughout the space and adsorb on metal surfaces (ferrous and non-ferrous) to which they are attracted. It is much easier to replace these once every two years as part of routine maintenance rather than risk the potential of corroded metal contacts that could interrupt operations and require more extensive repair.
In some cases, extra coatings may be desirable on various structural components. For instance, wind-turbine base bolts are especially prone to corrosion and are good candidates for VpCI®-368.
Although classified as a removable coating, VpCI®-368 offers such heavy-duty corrosion protection that it is often used in offshore platform layups. If (unlike normal) solar panel frames and supports are made of carbon steel rather than corrosion resistant aluminum or galvanized steel, an extra protective coating such as EcoShield® VpCI®-386 or a primer/topcoat combo such as VpCI®-396 and VpCI®-384 is definitely in order to reduce solar structural corrosion. In some extreme conditions, owners may even find supplementary coatings warranted for an additional layer of protection on aluminum or galvanized steel in the most severe environments. In these cases, a wash primer such as VpCI®-373 should be used before top-coating for better adhesion.
Protecting solar and wind components during transit is critical to getting off to a good start, while protecting control panels and vulnerable structural components as part of routine maintenance can promote desired longevity by reducing corrosion at some of the easiest points to address.
North Star and its shipbuilding partner, Cochin Shipyard Ltd., have cut first steel on EnBW’s new hybrid-electric service operations vessel (SOV). It is on schedule to commence a decade-long minimum charter to service to the He Dreiht wind farm off the coast of Germany, from the end of 2026.
The milestone was celebrated at Cochin Shipyard Ltd. in India, where the planning, engineering design and construction work are being carried out. North Star chief technology officer James Bradford attended the ceremony.
James Bradford, North Star chief technology officer, attends steel cutting of EnBW’s new SOV at Cochin Shipyard Ltd. in India. (Courtesy: North Star)
The new build will provide premier accommodation in field for up to 34 wind technicians as they maintain the development’s 64 wind turbines, located around 90 km northwest of the island of Borkum. The SOV will also act as a logistics hub and warehouse.
The ship is of VARD 407 design and has been tailored to meet EnBW’s specific requirements. To drive high performance and efficiencies, the high specification SOV includes Electric Voith Schneider propulsion (eVSP) and is designed to use methanol as a fuel in the future. The ship is also fully equipped with a height adjustable motion compensated gangway and 3D compensated crane.
Construction of its renewables fleet is being project managed entirely in-house by North Star. In the last year, North Star has managed shipbuilding programs at four separate shipyard locations around the globe, building its fleet designed to support the energy transition. Delivered on schedule and within budget, the firm’s successful construction projects demonstrate the team’s ability to locally manage the new-build process in the UK and overseas.
“The first steel cutting is always an exciting moment in the construction phase, and we were pleased to join the build team in India to mark the occasion,” said Bruno Bartel, North Star European renewables lead.
“This milestone also represents the beginning of our ambitious growth strategy in the region, as we expand our footprint in offshore wind markets around Europe,” Bartel said.
Trafag AG, a manufacturer of high-accuracy measurement devices, has launched the 8719 Gas Density Monitor, designed to revolutionize gas insulated switchgear monitoring in the renewable energy industry. This device addresses the unique challenges of maintaining operational safety and efficiency in diverse renewable energy environments.
Trafag AG, a manufacturer of high-accuracy measurement devices, has launched the 8719 Gas Density Monitor. (Courtesy: Trafag)
The 8719 Gas Density Monitor sets a new standard in insulating gas monitoring with its large 75mm dial, providing easier needle position readability for technicians working on renewable energy installations and reducing maintenance time. This feature enables monitoring of exact gas density levels. The monitor offers up to five galvanically separated circuits, allowing for independent monitoring of multiple density levels and enhanced alarm capabilities, crucial for complex renewable energy systems such as offshore wind turbines.
The device is engineered for reliability, delivering precise switching output across all temperature ranges and ensuring alarm triggering regardless of environmental conditions.
The 8719 Gas Density Monitor offers installation options of IP65/IP67 protection, it is suitable for both outdoor and indoor applications. This flexibility allows renewable energy providers to install the monitor across a range of locations, from solar farms to offshore wind turbines, ensuring consistent monitoring across diverse environments.
The 8719 Gas Density Monitor’s maintenance-free design reduces operational costs and downtime for renewable energy providers, while its shock resistance up to 70g ensures reliable operation in harsh environments typical of wind farms and remote solar installations.
The optional integrated test/refill valves facilitate easy on-site maintenance, minimizing disruption to renewable energy production. This feature is particularly valuable for remote installations where frequent maintenance visits can be costly and time-consuming.
The device’s gas density reference chamber principle offers the most reliable monitoring solution for insulating gas density, crucial for maintaining the integrity of power transmission from renewable sources. The floating change-over contact (SPDT) output signal provides switching output for alarm systems, enhancing safety in renewable energy facilities.
Accurate measurements of atmospheric turbulence enable durable and efficient wind turbine design as well as optimized wind farm operation. To advance this, Vaisala participated in a research consortium with global wind-energy players to develop better algorithms that improve measurement accuracy of turbulence in offshore weather conditions.
The research project, the POWSEIDOM JIP, led by France Energies Marines, aims to provide the industry with high-performance measurement and modeling tools for assessing turbulence at offshore wind-energy sites. Such measurements and tools enable better design of offshore wind turbines and farms, making them safer and more efficient to operate.
Lidar technology, which is both cost-effective and reliable, is fully certified and bankable for wind-resource assessment at sea. (Courtesy: Vaisala)
Installing traditional met masts and anemometers offshore is often impractical due to the high costs of installation, operation, and maintenance. Lidar technology, which is both cost-effective and reliable, is fully certified and bankable for wind-resource assessment at sea. However, there has been a need to develop proper algorithms to derive turbulence metrics from the Lidar signal, as Lidars have not been widely used to characterize atmospheric turbulence at sea in the past.
Sites with a high potential for the development of floating wind turbines face challenges of atmospheric turbulence. Such turbulence corresponds to rapid variations in air speed and direction, generating vortex structures that induce considerable loads on wind turbines.
As such, offshore measurements are required to validate the numerical models used to assess wind conditions and associated turbulence at sea to enable cost optimization, as well as safe and efficient operation of the wind farm.
To gather data, the researchers used a Vaisala WindCube v2.1 profiling Lidar at the research site at Planier Island. Located nine kilometers offshore, this site allowed them to capture undisturbed atmospheric events that represent the conditions encountered at floating offshore wind farm sites in the Mediterranean.
At the end of the first 12 months of the research period, the measurements taken with Lidar enabled them to compile a valuable set of data (mean winds and direction, turbulence intensity, shear, occurrence, and intensity of low-layer jets).
As a result of this work, the researchers were able to make recommendations for further calculating the turbulence forces induced on turbines. Such information is invaluable for optimizing system design and increasing the profitability of projects, especially in the Mediterranean Sea.
At sea, Lidars are generally deployed on buoys in continuous motion. Such motion has to be accurately taken into account to ensure more accurate measurements of wind conditions. For this, the project team also created research setting where a Lidar was installed on a mobile platform reproducing the movements of a buoy deployed at sea.
The measurements obtained were compared with those from a fixed Lidar, and a preliminary version of a motion compensation algorithm for measuring turbulence was developed. These results were also published in an international peer-reviewed journal called Remote Sensing in April 2024.
All in all, the research project provided valuable learnings and resulted in the development of more advanced measurement tools that enable more efficient offshore wind-farm operations in the future. Work on the POWSEIDOM JIP is continuing as part of the DRACCAR-NEMO JIP started in 2023.
The renewable energy sector is booming, presenting a wealth of opportunities for those ready to make a career switch. But how do you transition into this growing industry? What skills do you need to thrive in renewable energy roles?
The answer lies in transferable skills — abilities you’ve gained from past experiences that can be applied to new roles.
Technical skills are particularly valuable in the renewable-energy sector. (Courtesy: Shutterstock)
Understanding Transferable Skills
Transferable skills are abilities you’ve developed in one setting that can be applied to another. They can be gained from previous jobs, volunteer work, or even hobbies. These skills are crucial when transitioning to a new industry like renewable energy, allowing you to leverage your existing expertise and adapt to new roles more easily.
The renewable energy sector is experiencing rapid growth worldwide, driven by increasing awareness of climate change and the need for sustainable energy solutions. In Australia, the renewable energy industry is projected to create 193,900 jobs by 2050. This presents a wealth of opportunities for individuals with a diverse range of skills, making it an attractive field for career transition.
Technical Skills That Transition Well
Technical skills are particularly valuable in the renewable-energy sector. This industry is driven by technology and innovation, making technical expertise highly sought after.
According to the International Renewable Energy Agency (IRENA), the renewable energy sector is expected to create about 40 million jobs worldwide by 2050. This growth underscores the importance of technical skills in driving the industry’s expansion and innovation.
Data Analysis
Skills in data analysis are crucial for optimizing energy production and distribution. Data analysts in the renewable-energy sector use advanced analytics to monitor and improve the efficiency of energy systems.
For instance, they might analyze data from wind turbines to predict maintenance needs and prevent downtime, or optimize the performance of solar panels based on weather patterns.
The ability to interpret and act on data is essential for improving the reliability and efficiency of renewable energy sources. In Australia, for example, the demand for data analysts in the energy sector is projected to grow by 15 percent over the next five years.
Engineering Principles
Engineering principles are fundamental to the design and operation of renewable energy systems. Engineers in this field apply their knowledge to develop and maintain technologies such as wind turbines, solar panels, and bioenergy systems.
For example, mechanical engineers might design more efficient turbine blades, while electrical engineers work on improving grid integration for renewable energy sources.
Automation and artificial intelligence (AI) are becoming increasingly important in the renewable energy sector. (Courtesy: Shutterstock)
Renewable Energy Technology
Technical expertise in renewable energy technology is highly valued. This includes knowledge of specific technologies such as photovoltaic systems, wind energy, and energy-storage solutions. Professionals with experience in these areas are essential for advancing the development and deployment of renewable energy projects.
For instance, expertise in battery technology is critical for improving energy storage solutions, which are key to managing the intermittent nature of renewable energy sources. The global market for energy storage is expected to grow from 4 GW in 2019 to 15 GW by 2024, highlighting the increasing demand for technical skills in this area.
Automation & Artificial Intelligence
Automation and artificial intelligence (AI) are becoming increasingly important in the renewable energy sector. These technologies can enhance the efficiency and reliability of energy systems.
For example, AI can be used to predict energy demand and optimize the operation of renewable-energy plants. Automation can streamline maintenance processes and reduce operational costs. The integration of AI and automation in renewable energy is expected to create new job opportunities and require a workforce skilled in these advanced technologies.
Technical Project Management
Technical project management skills are also highly valuable. Project managers in the renewable energy sector oversee the planning, execution, and completion of projects. They ensure that projects are delivered on time, within budget, and meet technical specifications.
This role requires a combination of technical knowledge and management expertise. The ability to manage complex projects is crucial for the successful deployment of renewable energy technologies
Soft Skills in High Demand
While technical skills are important, soft skills are equally valuable in the renewable energy sector. These skills facilitate effective teamwork and problem-solving, which are crucial in this field.
In fact, about 36 percent of the world’s energy workers are in high-skilled occupations, compared with about 27 percent for the wider economy. This highlights the importance of a well-rounded skill set that includes both technical and soft skills.
Communication Skills
Communication skills are essential for cross-disciplinary collaboration on renewable energy projects. Effective communication ensures that all team members, regardless of their technical background, can understand project goals, timelines, and challenges. This is particularly important in renewable energy projects, which often involve diverse teams of engineers, scientists, and business professionals.
According to a report by the International Renewable Energy Agency (IRENA), the renewable energy sector will require a workforce of about 40 million people worldwide by 2050. This growth underscores the need for strong communication skills to manage and coordinate large, multidisciplinary teams.
As you prepare to enter the renewable-energy job market, it’s important to understand the specific skills and qualifications employers are seeking. (Courtesy: Shutterstock)
Adaptability
Adaptability is key in an industry that is rapidly evolving and constantly introducing new technologies. The renewable energy sector is characterized by continuous innovation and change, driven by the need to develop more efficient and sustainable energy solutions. Workers who can quickly adapt to new technologies and methodologies are highly valued.
The ability to learn and apply new skills is crucial, as the sector is expected to see significant technological advancements and shifts in the coming years. For instance, the wind-energy workforce is projected to grow by more than 50 percent by 2030, from 360,000 workers in 2024 to 550,000. This rapid growth will require a workforce that is adaptable and capable of handling new challenges.
Problem-Solving
Problem-solving skills are indispensable in the renewable energy sector. This industry faces numerous challenges, from technical issues in energy production to logistical problems in energy distribution.
Effective problem-solving involves not only identifying and addressing these issues but also developing innovative solutions that can improve efficiency and sustainability. Creative and analytical thinking are essential for overcoming the complex problems that arise in renewable energy projects.
Teamwork
Teamwork is another critical soft skill in the renewable-energy sector. Successful renewable energy projects often require collaboration between various stakeholders, including engineers, project managers, policymakers, and community members.
The ability to work effectively in a team ensures projects are completed on time and within budget. It also fosters a collaborative environment where ideas can be freely exchanged, and innovative solutions can be developed.
Leadership
Leadership skills are also in high demand in the renewable-energy sector. Effective leaders can inspire and motivate their teams, manage resources efficiently, and navigate the complexities of large-scale projects.
Leadership is particularly important in this field, where projects often involve significant investment and high stakes. Strong leaders can drive project success and ensure that renewable energy initiatives meet their goals and contribute to a sustainable future.
Adapting Your Skills to Renewable Energy
Adapting your skills to the renewable-energy sector involves understanding how your existing abilities can be applied in this context.
Here are some further examples of professions and related skills that transition well into the renewable energy industry:
Application: Project management skills can be used to oversee the development and implementation of renewable energy projects. This includes coordinating teams, managing resources, and ensuring projects are completed on time and within budget. For example, a project manager in the construction industry can transition to managing the installation of solar farms or wind turbines.
Leadership skills, in particular, are important for driving team performance and ensuring projects are completed on time and within budget. These skills are also crucial for managing the complexities and challenges that often arise in renewable energy projects.
Application: Engineers can apply their knowledge of principles and practices to the design and operation of renewable energy systems. Mechanical engineers might work on designing more efficient wind-turbine blades, while electrical engineers could focus on improving grid integration for renewable energy sources. Civil engineers can contribute to the construction of infrastructure for renewable energy projects, such as wind farms and solar power plants.
Data Analysis
Skills: Statistical analysis, data modeling, machine learning, data visualization.
Application: Data analysts can optimize energy production and distribution by analyzing performance data from renewable energy systems. For instance, they might use predictive analytics to forecast energy demand and adjust production accordingly. This role is crucial for improving the efficiency and reliability of renewable energy sources.
Application: Environmental scientists can assess the environmental impact of renewable energy projects and ensure compliance with regulations. They play a key role in conducting environmental impact assessments and developing strategies to mitigate negative effects on ecosystems. Their expertise is essential for promoting sustainable practices within the renewable energy sector.
IT & Cybersecurity
Skills: Network security, software development, systems administration, cybersecurity protocols.
Application: IT professionals and cybersecurity experts are increasingly important in the renewable energy sector, where digital technologies and smart grids are becoming more prevalent. They ensure the security and reliability of energy-management systems, protect against cyber threats, and develop software solutions for monitoring and controlling renewable energy systems.
Sales & Marketing
Skills: Market analysis, customer relationship management, sales strategy, digital marketing.
Application: Sales and marketing professionals can help promote renewable-energy products and services. They develop strategies to reach potential customers, manage client relationships, and analyze market trends to identify new opportunities. Their skills are vital for driving the adoption of renewable energy solutions in both residential and commercial markets.
Application: Legal professionals can navigate the complex regulatory landscape of the renewable energy sector. They ensure projects comply with local, national, and international regulations, negotiate contracts, and provide legal advice on policy developments. Their expertise helps renewable energy companies operate within legal frameworks and advocate for favorable policies.
Application: Finance and accounting professionals can manage the financial aspects of renewable energy projects. This includes securing funding, budgeting, and financial planning. They analyze investment opportunities, assess financial risks, and develop strategies to ensure the economic viability of renewable energy initiatives.
Application: Sustainability consultants advise organizations on how to implement renewable energy solutions and improve their environmental impact. They develop customized sustainability strategies, conduct environmental impact assessments, and ensure compliance with regulations.
Problem-solving skills are essential for identifying and addressing barriers to the adoption of renewable energy technologies. For instance, a sustainability consultant might devise innovative strategies for optimizing energy production from renewable sources or solve technical challenges related to the design and operation of renewable energy systems.
These examples illustrate how various professions and skills can transition into the renewable energy sector. However, they are not exhaustive. The main point is to emphasize that the concept of transferable skills is highly applicable and can open numerous opportunities in this dynamic and growing industry.
Enhancing Your Skill Set for Renewable Energy
To enhance your skill set for a career in renewable energy, consider pursuing additional training or certification in relevant areas. This could include courses in renewable-energy technology, sustainability practices, or project management.
You might also consider gaining practical experience through internships or volunteer work in the renewable-energy sector. This can provide valuable insights into the industry and help you develop a deeper understanding of the skills required.
Continuous Learning & Education
Continuous learning and education are crucial in the renewable energy sector. This industry is rapidly evolving, with new technologies and practices emerging regularly.
Staying current with these developments requires a commitment to ongoing learning. This could involve attending industry conferences, participating in webinars, or reading industry publications. It’s also beneficial to pursue further education, such as advanced degrees or certifications in renewable energy or related fields.
Preparing for the Renewable-Energy Job Market
As you prepare to enter the renewable-energy job market, it’s important to understand the specific skills and qualifications employers are seeking. Research job postings in your desired field to identify common requirements and tailor your resume accordingly.
Networking can also be a valuable tool in your job search. Attend industry events, join professional organizations, and connect with professionals in the field to learn about job opportunities and gain insights into the industry.
Resume & Interview Tips
When crafting your resume for a job in renewable energy, highlight your transferable skills and any relevant experience or education. Be sure to provide specific examples of how you’ve used these skills in past roles.
In interviews, be prepared to discuss your interest in renewable energy and your commitment to sustainability. Employers in this sector value candidates who are passionate about their work and have a clear understanding of the industry and its future potential.
In conclusion, the renewable energy sector is poised for significant growth in the coming years. As the world continues to grapple with the impacts of climate change, the demand for clean, sustainable energy sources is only going to increase.
For those with the right skills and a passion for sustainability, a career in renewable energy offers the opportunity to make a meaningful impact. By identifying and developing your transferable skills, you can position yourself for success in this exciting and rapidly evolving field.
Wind-farm operators know that the bolted connections between the hub and rotor blade of a wind turbine are constantly subjected to dynamic loads, leading to stud and bolt failures. To help prevent the possibility of failure, technology is needed to detect broken bolts or studs in the blade root. This system should be able to prevent fractured components from falling into the hub, thereby avoiding costly damages to pitch systems and other critical components.
BLADEcontrol with web-based visualization from Weidmuller provides an intelligent solution for blade condition monitoring. (Courtesy: Weidmuller)
Broken bolts can be held securely in place with detection plates, preventing consequential damage that would result if the pieces fell into the hub and ricocheted as it rotated. By continuously monitoring the rotor blade bolts, downtime is minimized, while repair costs are reduced, ensuring the safe uninterrupted operation of the turbine.
This type of system as the potential to bring many benefits, including:
Prevention of damage: Broken bolts are held securely in place to avoid damage to the hub and components.
Ensures continued operation: Safety at the turbine site is improved, while reducing the number of climbs needed for repairs.
Safe and economical: Downtime is reduced and O&M costs are more easily controlled when the blade bolts are continuously monitored.
Quick and easy to retrofit: Must be adaptable and have the ability to be customized to different turbine types.
Blade condition monitoring
Along with the need to monitor the condition of a turbine’s bolts, it is also paramount to introduce an intelligent solution for blade condition monitoring as well.
A logical solution would measure the vibration response inside the blade to detect structural-related issues such as cracks, delamination, debonding, blade bearing damage and blade-tip damage caused by such factors as lightning strikes or ice accumulation. Wind turbine performance can also be optimized through detection and aerodynamic imbalances.
Additionally, wind-park managers could unlock turbine insights using a web-based visualization and analysis suite. To make such analysis as user friendly as possible, this software should be able to highlight single turbine and fleet-wide diagnostics to help identify anomalous behavior, minimize unplanned downtime, and maximize productivity. Advantages would include increased turbine availability, extended service life of the rotor blades, reduced downtime, ability to plan repairs, optimum turbine efficiency, and a measurable increase in revenue.
Advantages of such a system should include:
Ice detection in the millimeter range during operation and standstill.
Automatic stop in case of ice accumulation.
Automatic re-start when blades are ice-free per threshold definition.
Yield maximization through less downtime.
Installation in any type of wind turbine.
Optimization of rotor blade heating systems.
Support from knowledgeable specialists.
Icing status, data visualization in graphic user interface.
Should be tested and certified.
Solar energy solutions
Other renewables, such as solar energy, also need innovative approaches to make the process more efficient and economical.
For example, with solar power, monitored and unmonitored combiner box technology that can provide reliable power distribution is needed along with real-time string monitoring. This advanced feature will allow operators to pinpoint potential revenue losses by detecting performance issues or defects that, if undetected, could lead to low output, overheating, increased costs, and unplanned downtime.
Why is string monitoring important? When it comes to monitoring utility scale photovoltaic arrays, the U.S. has lagged behind other countries as it was deemed too expensive to routinely incorporate the string monitoring process. However, PV system integrators are well aware that a blown fuse negates the output of an entire string. Without monitoring, finding a blown fuse requires manual inspection at each combiner box and could go undetected for months. This results in output losses, higher maintenance costs, and diminished ROI.
Weidmuller’s BOLTcontrol blade monitoring system detects broken bolts or studs in the blade root that connects to the hub and alerts operators immediately. (Courtesy: Weidmuller)
Advantages of monitored or unmonitored combiner boxes should include:
Optimized design: Product variants should operate at the maximum mechanical and thermal efficiency in the most compact housing site.
All technical data is available online: User-friendly web tools should support any selected model for the best application.
Cost-optimized variants: Cost-optimized models with special accessories should be designed to cover the most common applications in PV power plants.
Longer lifetime: Design should allow for longer lifetime and higher performance under extreme climate conditions.
Better LCDE and ROI: Should be able to greatly simplify product due-diligence and insurance contracts while increasing the value of the asset in case it is sold in the future.
Combiner boxes for high power panels
To allow solar energy to be collected on the back of the panel and increase the energy yield of the solar energy system, combiner boxes for high power panels should feature bifacial solar panels with solar cells on both the front and back of the panel. Using four combination boxes for bifacial half-cell modules also can allow for a higher current consumption due to the fuse holders used. These combiner boxes should be compact and durable solutions for bifacial half-cell modules.
Advantages for combiner boxes for high power panels should include:
Easily available standard options: Combiner boxes for high power panels should fit into the installation concepts of many brands of PV modules.
Overvoltage protection: Several configurations of surge protection should be possible.
Optimized design: Product variants should operate with maximum mechanical and thermal efficiency in the most compact enclosure possible.
Special fuse protection: This new technology should include specially developed fuses and fuse holders.
Weidmuller USA solutions
For the wind industry, Weidmuller USA has recently released its innovative BOLTcontrol root connection monitoring system to complement its Blade Monitoring CMS with web-based visualization features that both address the necessity of monitoring any potential damage from broken bolts and structural-related issues in the turbine blades to aerodynamic imbalances that decrease overall turbine yield.
For solar energy, Weidmuller has introduced its PV DC combiner boxes that are assembled in its Richmond, Virginia, headquarters and feature a five-year warranty. The PV DC combiner boxes are available in monitored and unmonitored versions. Those with monitoring can receive up to 16 inputs and the unmonitored version can handle up to 32 inputs.
Weidmuller USA is proud to celebrate its 50th anniversary in 2025, marking five decades as a pioneer of innovation in smart industrial connectivity and automation products and solutions. The company will be exhibiting at CLEANPOWER 2025 in Phoenix, Arizona, May 19-22, at Booth 1763. Weidmuller will showcase some of its innovative clean energy solutions with a focus on the wind and solar industries.
Designing and building massive offshore wind structures involves an enormous amount of planning and data-gathering in order for the assets to start generating power.
But some variables can’t be controlled, only monitored — specifically, the weather. That’s where the experts at StormGeo stand at the ready to make weather conditions less of a surprise at best, and predict potentially dangerous conditions at worst.
Floating wind turbines being prepared to sail off. (Courtesy: StormGeo/iStock)
“Our goal is to help the wind industry maximize efficiency, reduce costs, and ensure the safety of operations through precise weather information,” said Linn Berge Olsen, global industry manager for offshore wind with StormGeo. “We provide a range of services tailored to support the offshore wind industry. Our key offering is weather forecasting and decision support. We deliver accurate and timely weather predictions, which is crucial for planning and operational decisions.
This includes short-term forecasts for daily operations and long-term forecasts for project planning. In addition, we deliver customized services like forecasting vessel response by combining advanced meteorology and hydrodynamics to help optimize vessel performance. Also, StormGeo offers tailored early warnings and alerts to enhance proactive asset and personnel safety — all supported by our fully operational forecasting desks providing meteorology expertise and the most accurate and reliable weather information.”
Supporting client operations
Offering this vital service is key to StormGeo’s ability to help its clients operate efficiently and free of incidents that could hinder the construction of a wind farm, according to Olsen.
“We provide advanced weather information and decision support services to help clients unlock the value of data and navigate in a changing environment,” she said. “Our core values include passion, integrity, bravery, and innovation, and they drive our commitment to delivering high qualityweather intelligence all around the globe to weather sensitive industries. That’s the philosophy behind StormGeo. Our approach — which we think distinguishes us from our competitors or more publicly available sources — is that we combine technological innovation with human expertise so we can deliver reliable and effective solutions.”
What that means is that 24/7 operational support comes with an essential human factor, according to Olsen.
StormGeo’s presence can be felt in all parts of the world, especially when it comes to offshore wind. (Courtesy: StormGeo/Unsplash)
“As our client, you always have a person at the end of the line you can talk to — it’s not just pure weather models and machine computation,” she said. “Keeping this kind of expertise going forward is also going to be a challenge, since data is getting better and better and becoming more available. The key going forward is gathering and utilizing different information and data effectively. In addition to having the best weather models available, our trained meteorologists understand the strengths and weaknesses of these models and know which one to apply in various situations. We maintain that crucial human element, which many of our competitors lack to the same extent.”
Global footprint
StormGeo’s presence can be felt in all parts of the world, especially when it comes to offshore wind, according to Olsen.
“We are well established in Europe and expanding,” she said. “We have been forecasting for over 25 years, 16 of those specifically for the offshore industry. We were first movers into the U.S and Taiwan and are also quite active in other expanding new markets like Vietnam, Japan, and Korea. Australia is another exciting new market for offshore wind energy, with several projects in the pipeline.”
With its varied operations all over the world, it’s important that StormGeo continues to evolve with the industry, according to Olsen.
“We have evolved alongside the industry by continuously innovating and expanding and even adapting our services to meet the changing needs of the sector with advanced weather forecasting,” she said. “We have sophisticated weather forecasting tools that provide accurate and timely information, which is going to be even more crucial considering climate change in the future. This is important information for the planning, installation, and maintenance of an offshore wind farm.”
Innovation and machine learning integration
Part of that strategy is implementing AI and machine learning integration, according to Olsen.
“Using machine learning in our operational forecasting is not new to us,” she said. “We already started this process a decade ago, so we’re deep into it, and I would say we are a market leader in that respect.”
One of StormGeo’s key innovations is the DELFI system (Deep Learning Forecast Improvement), which uses machine learning to improve the accuracy of weather forecasts.
“In term of innovation, we expand our expertise,” she said. “For instance, by applying severe weather forecasting and hurricane forecasting expertise from our U.S. team to new markets like Asia, this demonstrates a strategic use of specialized knowledge, addressing region-specific weather challenges.”
Olsen refers to this as customizing solutions for offshore wind.
“Given the industry’s relative novelty, the challenges and requests we encounter are unique, but we are adapting quickly by providing enhanced weather risk assessments,” she said. “We tailor our decision support tools to be more individualized. Additionally, we collaborate with industry leaders, offshore developers, operators, and even competitors and various data providers. In some regions, we cooperate; in others, we compete. Flexibility is key depending on the market.”
Working with a client
Even though StormGeo adapts to the needs of its clients, it starts with a solid foundation, which gives Olsen and her team the ability to make adjustments as required.
“We sell off-the-rack solutions and build volume, which also gives us room to develop tailor-made services,” she said. “We adopt a very customer-centric approach. When clients come to us with a challenge, we collaborate closely to provide solutions. First, we need to understand their requirements; we assess this before potentially developing and proposing a solution. Our customer services are designed to meet specific needs, but they must be effective and relevant to the industry needs. When we first started working with offshore wind, we used to do more one-offs. Now we take a more holistic approach, tailoring our services to be more industry specific. Providing these services, we offer round-the-clock support to ensure clients have access to expert advice and solutions whenever needed.”
TV beginnings
Although StormGeo now has a significant global weather-forecasting presence for hundreds of international offshore wind farms, the company began in 1998 as a collaboration between Norway’s largest commercial broadcaster at the time and Siri Kalvig, a well-known Norwegian meteorologist. Soon after, StormGeo delivered its first weather service to a hydroelectric power company and then to its first offshore energy company. In 2014, StormGeo doubled in size, acquiring the American weather service provider, Applied Weather Technology.
That acquisition made StormGeo the world’s largest weather forecasting company for the shipping and offshore industries. Over the years, StormGeo has continued to grow through various acquisitions that include Met Consultancy in the Middle East, Impact Weather in the U.S., Nena Analysis in Norway, and Climatempo in Brazil. In 2021, StormGeo was acquired by Alfa Laval’s marine business division. This acquisition enabled StormGeo to leverage Alfa Laval’s expertise in marine operations and also aligns with StormGeo’s strategy to provide environmentally friendly marine solutions.
These acquisitions have collectively strengthened StormGeo’s global presence, diversified its service offerings, and enhanced its ability to provide precise and reliable weather intelligence across various industries and regions, according to Olsen.
Wind farm field with supply boats. (Courtesy: StormGeo/iStock)
Global leader
“StormGeo has transformed from a weather news channel to a 750-person global leader in weather intelligence,” she said. “And now, we’re part of Alfa Laval, which is a new chapter in our growth and integration into a larger organization. We still maintain our entrepreneurial spirit, but we recognize the need to adapt our mindset as we become one of the major players in the industry.” Currently, StormGeo has 26 offices worldwide with 4,000-plus customers, according to Olsen, supporting about 150 offshore wind farms.
“This makes us contribute to the generation of renewable energy for millions of homes,” she said. “We proudly support major industry players like energy companies, service suppliers, and leading marine contractors globally. We deliver essential weather insights that enhance safety and efficiency in operations. Our commitment to innovation, deep learning, forecasting, and a customer-first approach remains unwavering. Today, we hold a strong position, and we are a trusted partner in the energy maritime sector today.”
Keeping an eye on the changing climate
With the changing global climate, Olsen said predicting major weather events will be a challenge, but StormGeo is up for the task.
“The forecasts are continually improving, making it increasingly difficult to justify the human factor, as they are costly and prone to errors,” she said. “We are facing new competitors and entrants we haven’t encountered before, which presents its own challenges. But the offshore wind industry is expected to continue its rapid expansion over the next decade. With the advancement in technology, increased investments, and strong political support — despite some exceptions — the industry will remain crucial in the global shift to renewable energy. StormGeo has a deep industry expertise in this sector, and we’re committed to innovation and sustainability. I am confident that this will ensure we remain a key player in weather intelligence. We’re well positioned to lead in the adaptation of AI and machine learning technologies, allowing us to leverage our expertise and continue providing cutting edge weather intelligence.”
The family of Liebherr mobile cranes boasting the latest crane design and next-generation LICCON3 control system is growing. Not only will all completely new crane types receive the new control system, but Liebherr will also successively be converting its existing crane types. To signify the changes, the last digit of the type designation is incremented by one: the LTM 1120-4.1 is now the LTM 1120-4.2. The cranes’ performance parameters and lifting capacities remain unchanged.
The LTM 1120-4.2 is a another crane in Liebherr’s all-terrain crane portfolio that features the new LICCON3 control system and new crane design. (Courtesy: Liebherr)
With what is now the third generation of the LICCON control system (Liebherr Computed Control), Liebherr is taking proven operating concepts to a new technological level — completely new software and programming language, faster data bus, significantly more memory, and higher computing power.
Proven hardware components, such as the mobile operating and display unit BTT, have been adopted. The touchscreen function on the new large display in the superstructure cab means that it is now even easier and more comfortable to control. The way in which the information is shown has also been revised and simplified. In addition, LICCON3 cranes are prepared for telemetry and fleet management as standard. In the future, crane contractors will be able to view and evaluate all the relevant data using the MyLiebherr customer portal.
As a result of the high synergy effects involved, Liebherr is launching the new driver’s cabin at the same time as the LICCON3 control system. The modern design features premium materials and timeless lines as well as delivering a whole host of improvements for the crane driver. These include the new multifunction steering wheel, side roller blind on the driver’s door, improved instruments, and modules as well as new displays. Additional convenience is offered by options such as a central locking system with remote key and the “Coming and Leaving Home” function.
A completely new, modern automatic heating and air-conditioning system in both the driver’s cab and the crane operator’s cab ensures a high level of comfort. A sun sensor detects strong sunshine and automatically adjusts the heating settings. The lighting packages for the crane cab, the superstructure, the rear of the vehicle, the front headlights and the telescopic boom as well as the lattice fly jib have been optimized and can be operated with LEDs. The benefits of LED technology include a longer service life and superior lighting performance.
In 2020, Liebherr set new standards in the field of all-terrain cranes and launched the LTM 1120-4.1 — a 120-ton crane — its concept: maximum performance on 4 axles. This made it the most powerful 4-axle all-terrain crane ever built and pushed the boundaries of its class. It pushed forward into performance ranges that were previously reserved for the larger 5-axle cranes and thus completely redefined the possibilities of a compact crane.
As far as boom length is concerned, the LTM 1120-4.2 is even on a par with 200-ton class cranes: its 66-meter telescopic boom is the longest ever to be installed on a 4-axle mobile crane. The LTM 1120-4.2 delivers outstanding lifting capacity values, particularly with the boom fully raised. Its lifting capacity of 9 tons on the 66-meter telescopic boom makes it ideal for erecting tower cranes and radio masts. Lattice extensions enable the 120-ton crane to achieve hook heights of up to 91 meters and radii of up to 64 meters.
The compact design of a 4-axle crane makes the LTM 1120.4.2 the ideal choice for applications where there is simply no room for larger cranes. Liebherr’s VarioBase® and VarioBallast® innovations come into their own on tight construction sites and ensure increased performance, flexibility, and safety. With its VarioBallast® system, the crane’s ballast radius can be flexibly adjusted between 3.83 and 4.77 meters. Thanks to the standard, mechanically swiveling ballast cylinders, the radius can be easily reduced by 940 mm — ideal for confined spaces. The larger ballast radius, on the other hand, increases performance and often reduces costs, as many operations can be carried out with less counterweight, eliminating the need for additional ballast transport.
Deutsche Windtechnik (DWT), a global independent service provider for renewable energy assets, was recently awarded the repowering and post-repower operation and maintenance (O&M) contracts for Eurus Energy America’s 179-MW Bull Creek Wind Farm. This repowering project will revitalize the wind farm while adhering to the guidelines of the Inflation Reduction Act of 2022 (IRA).
Located in Borden County, Texas, Bull Creek Wind Farm consists of 179 Mitsubishi MWT-1000A wind turbines. The repowering project is set to be completed and commissioned by the end of 2025. The wind asset will continue to be operated and maintained by DWT under the post-repower O&M contract, bolstering Eurus’s commitment to sustainable energy and furthering the growth of clean, affordable power in the region.
DWT’s selection for these significant contracts comes on the heels of its long track record of successfully serving the wind-energy sector. The company’s deep knowledge of broad turbine technologies and operations, combined with its extensive experience in project execution, ensures optimal energy production and seamless integration of the latest turbine innovations.
“Our team is thrilled to be chosen for this important repowering project,” said Melf Lorenzen, CEO at Deutsche Windtechnik USA. “Our ability to effectively optimize and maintain wind-energy systems is built on years of expertise with many turbine platforms and operational excellence. By leveraging this knowledge, we are confident the Bull Creek Wind Farm will continue to produce reliable, clean energy for many years to come.”
Additionally, DWT’s comprehensive O&M services – compliant with the Prevailing Wage and Apprenticeship provisions (PWA) of IRA – ensure ongoing support and optimization beyond the repowering phase.
The IRA includes substantial provisions for promoting sustainability and renewable energy solutions. Under IRA’s 80/20 repowering regulation, wind-asset owners are able to retrofit and upgrade wind turbines in an effort to continuing to provide environmental and economic benefits to their customers and local communities.
In alignment with the IRA and its prevailing wage and apprenticeship requirements, DWT is proud to uphold the highest standards of labor compliance. The repowering project at Bull Creek will adhere to the IRA’s wage regulations and provide valuable apprenticeship opportunities for wind-turbine technicians. With its own registered apprenticeship program, DWT is dedicated to fostering a skilled workforce that not only meets the demands of the renewable energy industry but also contributes to the long-term growth of green energy employment.
“The Bull Creek project is driven to generate continued economic and employment benefits through the prevailing wage and apprenticeship requirements of IRA,” Lorenzen said. “The IRA has significantly enhanced the potential of partial repowering of wind assets in the United States, and DWT is exceptionally well-positioned to serve this market. We look forward to leveraging our deeply rooted engineering capabilities to repower many more wind farms in the future.”
Ocean Installer, a leading marine construction and operations provider, was recently appointed by Cerulean Winds to join the alliance of companies developing the Aspen floating offshore wind (FLOW) project in the North Sea.
Ocean Installer’s addition to the alliance is vital to driving down cost of installation, a critical component within FLOW development.
The Aspen, Beech, and Cedar wind farms, once built, will comprise more than 300 turbines. (Courtesy: Cerulean Winds)
The company’s existing fleet of vessels and a highly skilled workforce, developed over decades working in subsea oil and gas construction, can be transferred to the FLOW sector without significant adaptation. Furthermore, Ocean Installer will work in conjunction with fellow alliance member Haventus, owners of the Port of Ardersier, on dry storage of the structures, batched installation, and quick connect/disconnect systems to optimize processes and create a convention for how future FLOW projects are installed.
“For FLOW to be successful in the North Sea, we’ve got to use expertise and experience from the oil and gas sector to turbo-charge the speed of cost reduction – that is what Ocean Installer are bringing to our project,” said Dan Jackson, founding director of Cerulean Winds.
“Using Ocean Installer’s capabilities, we believe we can develop a standardized process to cut installation costs and make FLOW’s Levelized Cost of Energy (LCOE) comparable to fixed offshore wind.”
“We are very pleased to have been selected as the marine construction and operations partner for the Cerulean Winds alliance,” said Gregor Scott, U.K. managing director at Ocean Installer. “It is another reminder of our commitment to using our specialist expertise and collaborative approach to unlock energy, in all its forms, from the global oceans.”
Ocean Installer will provide proven engineering expertise and installation services, post-FID, for the mooring system installation, inter array cables system, and marshalling of the floating units during the fabrication phase, tow-out, and hookup.
Ocean Installer’s history in supporting floating oil and gas developments, including dynamic flexible product procurement and the availability of its vessels for mooring system installation, makes it well placed to deliver green-energy projects in the North Sea.
Aspen, Beech, and Cedar, once built, will comprise more than 300 turbines.
The 1-GW Aspen site will be developed first, providing new offshore wind capacity helping to meet the U.K. government’s 50-GW-by-2030 target.
As the world moves toward reducing carbon emissions and combating climate change, wind energy has emerged as a key player in the renewable-energy sector. With technological advancements pushing the boundaries of what’s possible, the industry is seeing a shift toward artificial intelligence (AI) to optimize wind-farm layouts, enhance energy production, and minimize environmental impact.
Industry experts and researchers have embraced AI-driven frameworks that revolutionize the way wind farms are conceptualized and developed. These frameworks leverage high-resolution geospatial data, environmental and economic analysis, and AI-powered predictive modeling to design the most efficient wind-energy solutions. By integrating AI into every stage of wind-farm development, from site selection to turbine placement, planners can ensure maximum efficiency, sustainability, and cost-effectiveness.
The application of AI in wind farm layout optimization represents a major step forward in renewable energy. (Courtesy: Shutterstock)
Mapping the landscape: The role of high-resolution geospatial data
One of the foundational steps in wind-farm planning is obtaining and analyzing high-resolution geospatial data. This data provides topographic maps, land-use information, and crucial details about the environment that influence turbine placement.
Advanced tools such as Google Earth Engine, QGIS, and ArcGIS allow planners to visualize landscapes and analyze critical parameters such as elevation, slope, and land-cover types. These factors play a significant role in determining the feasibility of a wind farm. For example, steep slopes or densely forested areas may not be suitable for turbine installation, while open plains or coastal regions with strong wind currents may present ideal conditions.
The Role of Meteorological Data in Site Selection
Apart from geospatial data, meteorological analysis is essential in understanding wind patterns. Platforms such as the Weather Research and Forecasting (WRF) model and ERA5 provide historical and real-time data on wind speed, direction, and seasonal variations. AI-driven wind-flow simulations use these datasets to predict long-term performance, ensuring turbines are placed where they can capture the strongest and most consistent winds.
By integrating these meteorological models with geospatial data, planners can accurately assess potential sites and avoid locations where wind speeds may be inconsistent or obstructed by natural barriers such as hills, valleys, or urban developments.
Innovations such as autonomous drone inspections for turbine maintenance, AI-driven energy grid balancing, and real-time adaptive turbine controls will continue to optimize wind energy production. (Courtesy: Shutterstock)
Balancing Environmental and Economic Considerations
Sustainable energy development requires careful consideration of the environment. Poorly planned wind farms can disrupt local ecosystems, affect wildlife, and lead to community resistance. AI-driven solutions incorporate ecological factors into the planning process to minimize negative impacts.
For instance, machine learning algorithms can analyze satellite imagery to identify sensitive ecological areas such as bird migration routes, wetlands, and endangered species habitats. This ensures wind farms are developed in locations that do not interfere with local biodiversity. In addition, AI-powered noise and visual impact modeling help assess the potential effects of wind turbines on nearby communities, further aiding in responsible decision-making.
Economic Viability and Cost Optimization
Beyond environmental factors, economic considerations also play a critical role in wind-farm optimization. The costs associated with wind-farm development include land acquisition, infrastructure development, grid connectivity, and transportation logistics. AI-driven economic analysis models can evaluate these factors to ensure cost-effective project planning.
For example, proximity to power grids and transportation networks significantly influences operational efficiency. AI tools can analyze these factors and determine the most economically viable turbine locations, balancing energy output with the cost of transmitting power to consumers. By optimizing logistics, wind-farm developers can lower operational costs and improve overall project returns.
AI-driven solutions can incorporate ecological factors into the planning process to minimize negative impacts. (Courtesy: Shutterstock)
The Power of AI: Interactive 3D Modeling for Smarter Planning
A significant leap in wind-farm design has been achieved through AI-driven interactive 3D modeling. These virtual models enable designers to simulate and visualize wind-farm layouts in a highly interactive environment.
By using engines such as Unity, Unreal Engine, or custom AI-powered GIS platforms, planners can create real-time, dynamic simulations of wind farms. These models consider multiple variables, such as wind-speed variations, terrain effects, and energy-output predictions.
One of the most impactful benefits of 3D modeling is the ability to test different turbine configurations before construction begins. AI algorithms can run thousands of simulations to find the optimal turbine placement, reducing inefficiencies and ensuring maximum energy capture.
Machine Learning and Site Suitability Analysis
Beyond 3D simulations, AI employs machine learning models to conduct site suitability analysis. Libraries such as Scikit-Learn, TensorFlow, and PyTorch are used to assess multiple data points, ranking potential sites based on performance indicators like wind consistency, economic feasibility, and environmental impact.
To further refine site selection, AI-driven satellite imagery analysis is incorporated. Platforms such as Sentinel Hub and Google Earth Engine extract critical land characteristics, while object detection algorithms such as YOLO (You Only Look Once) or Faster R-CNN identify obstacles, infrastructure, or other land features that may have an impact on wind-farm efficiency.
By leveraging these technologies, developers can eliminate unsuitable locations early in the planning process, saving time and resources while ensuring only the best sites are chosen for wind-farm construction.
AI-Driven Predictive Maintenance and Energy Forecasting
AI not only optimizes wind-farm layout but also improves turbine performance through predictive maintenance. Wind turbines are exposed to harsh environmental conditions, leading to wear and tear over time. Predictive maintenance powered by AI helps identify potential failures before they occur, minimizing downtime and reducing repair costs.
By analyzing data from IoT (Internet of Things) sensors, vibration monitoring systems, and temperature sensors, AI models can detect irregularities in turbine operations. If an issue is detected, maintenance teams can be alerted in advance, preventing costly breakdowns and ensuring consistent energy production.
Predictive maintenance powered by AI helps identify potential failures before they occur, minimizing downtime and reducing repair costs. (Courtesy: Shutterstock)
AI-Powered Energy Production Forecasting
In addition to maintenance, AI is transforming energy forecasting, a crucial aspect of wind-farm management. Deep learning algorithms analyze historical wind data and real-time meteorological inputs to predict energy output with high accuracy. These predictions help energy grid operators efficiently balance supply and demand, preventing power shortages or surpluses.
Furthermore, AI-driven forecasting enables wind-farm operators to make data-informed decisions about energy storage and distribution, optimizing grid performance and ensuring stable electricity delivery.
The Future of AI in Wind Energy: A Sustainable Path Forward
The convergence of AI, data analytics, interactive modeling, and predictive analysis is ushering in a new era of smart wind-energy solutions. By harnessing AI-driven insights, the renewable energy sector is moving toward a future where wind farms are designed with unprecedented precision, efficiency, and sustainability.
Potential Advancements in AI for Wind Energy
Looking ahead, AI is expected to further enhance automation in wind farm operations. Innovations such as autonomous drone inspections for turbine maintenance, AI-driven energy grid balancing, and real-time adaptive turbine controls will continue to optimize wind energy production.
Moreover, the integration of AI with blockchain technology may revolutionize energy trading and grid security, allowing decentralized wind farms to efficiently sell surplus energy to the grid with transparent and secure transactions.
The Role of AI in a Greener Future
The application of AI in wind farm layout optimization represents a major step forward in renewable energy. Through high-resolution geospatial data, AI-driven simulations, predictive maintenance, and energy forecasting, the industry is improving efficiency, reducing costs, and minimizing environmental impact.
As AI technology continues to evolve, its role in wind energy will expand, further solidifying wind power as a dominant force in the global transition to sustainable energy. With these advancements, AI is not just optimizing wind farms — it is shaping the future of energy itself, bringing the world closer to a cleaner, greener, and more sustainable tomorrow.
