Grid Parity

To say it's been a pleasure attending InstallerSHOW 2022 is an understatement! They had an amazing time at the UK’s largest heating, plumbing and renewables trade show and didn’t want it to end! Their commercial team: Bruce MacPherson (CCO), Robert Illsley (Sales Director), Elisa Alexieva (Brand Marketing Manager), Kiren Matharu (Marketing Assistant) as well as their co-founder & CTO, Carlton Cummins got to network with people in the industry, learn more about customers’ challenges, and take home knowledge that can be applied to provide better support. Clean energy multiplier A huge thanks to everyone who visited their stand and showed interest in the world’s first fully modular and serviceable energy storage system, Offgen. The system is flexible (off-grid + grid-tie) and scalable, growing with the households’ increased energy requirements. Its unique features give installers the benefit of easy installation (indoor or outdoor), the opportunity for building repeat business by returning to customers for service, repair and upgrade over time, as well as the chance to pioneer a circular approach to energy storage. Thanks to the design, it has a potentially endless lifespan which will keep long-term costs down and is much kinder to the environment. It has the ability to work with the grid, storing the cheapest electricity to be used during peak tariffs, to be used in an off-grid setting in combination with solar PV, or as a clean energy multiplier (for example, pairing it with a heat pump). It was insightful to hear first-hand from installers how the Offgen could make a positive difference to their business. All in all, they had plenty going on over the three days and would like to give gratitude to the Show organisers for making the event a huge success! It truly was a ‘Great Industry Get Together’ and they look forward to attending the 2023 exhibition!

Illegal connections are one of the pioneering causes of electricity-related injuries and deaths in South Africa, as reported by Eskom. Not only is there danger involved for those who connect their electricity illegally, but also for the rest of the community due to the fires and electrocutions that can be caused. Along with these devastating tolls, Dr. Andrew Dickson, Engineering Executive at CBI-electric: low voltage notes that there are also costs to the power utility and the municipalities it serves which, in turn, impair their ability to provide service delivery and repay debts. However, leveraging Industrial Internet of Things (IIoT) solutions could aid in mitigating these. Network and infrastructure In addition, the network and infrastructure are under strain as new links are made due to urbanization Illegal power connections are syphoning off 37 GWh of electricity per day from Eskom, costing the power utility around R15 million daily. While regular audits are conducted to identify and dismantle these connections, the situation is worsening. Power theft, including illegal connections, now accounts for 70% of Eskom’s total energy losses – up from 30% in 2022. In addition, the network and infrastructure are under strain as new connections are made due to urbanization. These two factors result in technicians being required to create new connections, remove illegal connections and, in many cases, restore power due to failed infrastructure. Tackling illegal connections This is over and above the normal operational maintenance and restoration processes which ultimately impacts service delivery. It also prevents funds and resources from improving and upgrading the existing systems, thereby keeping the country stuck in a legacy environment, unable to develop and move forward. Tackling illegal connections forms part of Eskom’s funding application for the 2023/24 and 2024/25 financial years, with data analytics to detect and resolve incidents being one of the strategies put forward by the power utility. This could be achieved through the roll-out of industrial IoT solutions which are comprised of internet-connected devices and advanced analytics platforms that process the data that is produced. Real-time data collection and processing capabilities The real-time data array and processing abilities offered by these keys, coupled with the granular data The real-time data collection and processing capabilities offered by these solutions, coupled with the granular data they churn out, give power utilities and municipalities greater visibility and control over the consumed electricity. This can be used to distil what electricity is being consumed illegally and where - equipping them with actionable, on-the-ground insights into what is happening within the distribution network. At the same time, the technology enables them to audit and better understand their systems. Not only could this help prevent energy and financial losses but could ultimately save lives. Benefits for Eskom and municipalities Beyond mitigating the consequences of illegal connections, IIoT could have broader-reaching economic and environmental benefits for Eskom and municipalities. This could include remote asset monitoring and maintenance to improve the reliability of power transmission and distribution, optimizing the distribution of power supply to reduce losses in the system and redistributing excess energy generated by rooftop solar panels or wind plants to the grid, amongst other possibilities. Problem of illegal connections They find themselves in a catch-22 situation: if the problem of illegal connections persists, they will never achieve universal electricity access for all and financial strain on the fiscus will continue. While not a cure-all, IIoT solutions could help to enable a smarter, safer, and more sustainable energy future for South Africa.

The withdrawal of funding from the Just Energy Transition Partnership (JETP) is a setback for South Africa’s move to a low-carbon economy. This initiative was designed to mobilize public and private investment to help developing nations transition from fossil fuels to cleaner energy sources and accelerate the decarbonization of key sectors. However, the funding cut threatens to delay critical programs already hampered by slow financial inflows and resistance from the Department of Mineral Resources and Energy to a full shift toward renewables. Given these challenges, South Africa must consider a more balanced energy strategy-one that includes nuclear power. Uninterrupted power generation “Nuclear energy provides a stable base-load supply, ensuring uninterrupted power generation. In contrast, renewables like solar and wind experience output gaps when the sun sets or the wind stops blowing, requiring costly backup solutions,” explains Dr. Andrew Dickson, Engineering Executive at CBi-electric: low voltage. He adds, “Additionally, a typical nuclear reactor generates 1 GW of electricity using just 3.4 km² of land, whereas solar requires 116 km² to 200 km² and wind between 670 km² and 930 km² for the same output.” Other forms of electricity generation Dickson says nuclear energy is competitive with other forms of electricity generation Dickson adds that, unlike renewables, which are constrained by grid capacity in regions like the Northern, Western, and Eastern Cape, where renewable resources are abundant, nuclear plants can be built in areas with better capacity. From a financial perspective, Dr. Dickson says nuclear energy is competitive with other forms of electricity generation. Dr. Andrew Dickson states, “Nuclear power’s total system costs are lower than those of wind and solar, which require heavy investment in storage and backup systems to manage fluctuations. Given the reduced funding available, South Africa would benefit from prioritizing this energy source.” Emissions from large-scale battery storage Nuclear power also aligns with South Africa’s climate commitments. “Nuclear plants emit no greenhouse gases during operation and, over their lifecycle, produce carbon emissions comparable to wind and lower than solar,” notes Dr. Andrew Dickson. He adds, “This excludes emissions from large-scale battery storage necessary for intermittent renewables, including those from material sourcing, production, and recycling.” Zero-emission sources In France, for example, 92% of electricity comes from zero-emission sources, with nuclear accounting for 65% Globally, nuclear energy has proven its effectiveness. In France, for example, 92% of electricity comes from zero-emission sources, with nuclear accounting for 65% and wind and solar just 14%. This has made France one of the European Union’s largest producers of clean power, with plans to phase out coal by 2027. Despite all this, Dr. Dickson points out that South Africa generates only 1.9 GW from nuclear compared to 3.4 GW from wind and 2.3 GW from solar.  “Concerns around nuclear safety are often linked to two major historic accidents - Chernobyl in Ukraine in 1986, and Fukushima in Japan in 2011 - but the reality is that coal-fired power plants are far deadlier. A report by the Center for Research on Energy and Clean Air found that Eskom’s coal plants are responsible for around 2,200 deaths annually due to air pollution. In contrast, nuclear is among the safest energy sources, even more so than wind.” states Dr. Andrew Dickson. Renewable Independent Power Producer Program Dickson highlights that while nuclear plants take longer to construct - about eight years on average versus two to 24 months for wind farms and eight to 12 months for solar - delays in South Africa’s Renewable Independent Power Producer Program mean that these projects aren’t being built much faster. Dr. Andrew Dickson states, “Additionally, nuclear plants generate gigawatts of electricity, whereas renewable projects often produce only a few hundred megawatts at a time.” Integrating nuclear with renewables “With renewable projects facing funding setbacks and delays, nuclear power provides South Africa’s with a path to a stable, low carbon future,” concludes Dr. Dickson, adding “A diversified approach, integrating nuclear with renewables, will help secure the country’s energy needs while meeting climate goals.”

Comau is presenting its latest advancements in battery cell formation and manufacturing at The Battery Show Europe 2025. Taking place June 3–5 in Stuttgart, Germany, the event offers a strategic platform for Comau to showcase how it is pioneering next-generation scalable technologies that adapt to the rapidly evolving demands of battery manufacturing, e-Mobility, and energy transition landscapes. This includes the company’s innovative battery cell formation system, which is specifically designed to support small batch operations. Battery Show Comau’s innovative Lab Fixtures for Formation and Testing solution is a modular and highly adaptable battery cell formation system Making its debut at the Battery Show, Comau’s innovative Lab Fixtures for Formation and Testing solution is a modular and highly adaptable battery cell formation system created to support small-batch and laboratory-scale operations. First developed for the National Institute of Chemistry in Slovenia, its flexible and easy to use platform ensures secure handling activities and allows testing of multiple sizes and formats of advanced cell technologies at varying working temperatures. In doing so, it helps expedite product validation and reduce time-to-market while also enhancing safety and efficiency. Comau’s Racer-5 SENSITIVE ENVIRONMENTS robot During the 3-day event, in Hall 7 and Booth E10, visitors can also see Comau’s Racer-5 SENSITIVE ENVIRONMENTS robot, a high-speed, compact articulated robot expressly designed for cleanroom and dry room compliance. Perfect for sensitive processes such as battery cell formation and electronics manufacturing, Racer-5 SE ensures precision handling and operational efficiency in contamination-controlled environments. Comau’s collaboration with Reinova Comau is also highlighting its collaboration with Reinova, through which the companies will combine Reinova’s Connective Engineering methodology and Comau’s automation and system integration expertise to accelerate innovation in end-of-line (EOL) systems, data connectivity, and the validation of advanced powertrain components in order to redefining the standards of future mobility. Advantages of dual-layer laser cladding The Battery Show Europe is the perfect opportunity for Comau to discuss the advantages of dual-layer laser cladding Finally, The Battery Show Europe is the perfect opportunity for Comau to discuss the advantages of dual-layer laser cladding with its high-speed, fully automated brake disc coating system developed in collaboration with Prima Additive by Sodick. Featuring a combination of advanced laser systems, high-speed robotic arms, additive manufacturing processes and safe powder management, the coating system increases the wear-resistance of brake discs, reducing pollutant emissions by up to 80%. Comau’s powerful electrification and battery manufacturing solutions reflect the company’s strategic emphasis on flexibility as a cornerstone of innovation. To efficiently address the industry’s push to meet global electrification goals, Comau-engineered systems are modular, scalable, and ready to evolve alongside shifting market dynamics. Words from Comau CMO “Comau has long been at the forefront of electrification, delivering best-practice technologies across the entire battery lifecycle to fully support the electrification transition, as reflected in the range of solutions shown here at The Battery Show,” said Stefania Ferrero, CMO Comau. “This end-to-end approach enables our customers to address both current and future production challenges, which is why we continue to invest in new technologies capable of enhancing and accelerating the battery manufacturing value chain.”

Global energy investment is set to increase in 2025 to a record $3.3 trillion despite headwinds from elevated geopolitical tensions and economic uncertainty, a new IEA report says, with clean energy technologies attracting twice as much capital as fossil fuels. Investment in clean technologies – renewables, nuclear, grids, storage, low-emissions fuels, efficiency and electrification – is on course to hit a record $2.2 trillion this year, reflecting not only efforts to reduce emissions but also the growing influence of industrial policy, energy security concerns and the cost competitiveness of electricity-based solutions, according to the 2025 edition of the IEA’s annual World Energy Investment report. Investment in oil, natural gas, and coal is set to reach $1.1 trillion. World Energy Investment report In addition to a comprehensive assessment of the current investment landscape across fuels, technologies and regions, this 10th edition of the World Energy Investment report explores some of the major changes over the past decade. “Amid the geopolitical and economic uncertainties that are clouding the outlook for the energy world, we see energy security coming through as a key driver of the growth in global investment this year to a record $3.3 trillion as countries and companies seek to insulate themselves from a wide range of risks,” said IEA Executive Director Fatih Birol. “The fast-evolving economic and trade picture means that some investors are adopting a wait-and-see approach to new energy project approvals, but in most areas, we have yet to see significant implications for existing projects.” Global clean energy spending China’s share of global clean energy spending has risen from a quarter to almost a third “When the IEA published the first ever edition of its World Energy Investment report nearly ten years ago, it showed energy investment in China in 2015 just edging ahead of that of the United States,” Dr Birol added. “Today, China is by far the largest energy investor globally, spending twice as much on energy as the European Union – and almost as much as the EU and United States combined.” Over the past decade, China’s share of global clean energy spending has risen from a quarter to almost a third, underpinned by strategic investments in a wide range of technologies, including solar, wind, hydropower, nuclear, batteries and EVs. At the same time, global spending on upstream oil and gas is gravitating towards the Middle East. Current investment trends Current investment trends clearly show a new Age of Electricity is drawing nearer. A decade ago, investments in fossil fuels were 30% higher than those in electricity generation, grids and storage. This year, electricity investments are set to be some 50% higher than the total amount being spent bringing oil, natural gas and coal to market. Globally, spending on low-emissions power generation has almost doubled over the past five years, led by solar PV. Investment in solar, both utility-scale and rooftop, is expected to reach $450 billion in 2025, making it the single largest item in the global energy investment inventory. Battery storage investments are also climbing rapidly, surging above $65 billion this year. Nuclear power Capital flows to nuclear power have grown by 50% over the past five years Capital flows to nuclear power have grown by 50% over the past five years and are on course to reach around $75 billion in 2025. Rapid growth in electricity demand also underpins continued investment in coal supply, mainly in China and India. In 2024, China started construction on nearly 100 gigawatts of new coal-fired power plants, pushing global approvals of coal-fired plants to their highest level since 2015. In a worrying sign for electricity security, investment in grids, now at $400 billion per year, is failing to keep pace with spending on generation and electrification. Maintaining electricity security would require investment in grids to rise towards parity with generation spending by the early 2030s. However, this is being held back by lengthy permitting procedures and tight supply chains for transformers and cables. Fall in upstream oil investment The expected 6% drop is driven mainly by a sharp decline in spending on US tight oil Lower oil prices and demand expectations are set to result in the first year-on-year fall in upstream oil investment since the Covid slump in 2020, according to the report. The expected 6% drop is driven mainly by a sharp decline in spending on US tight oil. By contrast, investment in new liquefied natural gas (LNG) facilities is on a strong upward trajectory as new projects in the United States, Qatar, Canada, and elsewhere prepare to come online. Between 2026 and 2028, the global LNG market is set to experience its largest-ever capacity growth. Spending patterns Spending patterns remain very uneven globally – with many developing economies, especially in Africa, struggling to mobilize capital for energy infrastructure, the report finds. Presently, Africa accounts for just 2% of global clean energy investment. Despite being home to 20% of the world’s population and rapidly growing energy demand, total investment across the continent has fallen by a third over the past decade due to declining fossil fuel spending and insufficient growth in clean energy. To close the financing gap in African countries and other emerging and developing economies, international public finance needs to be scaled up and used strategically to bring in larger volumes of private capital, according to the report. Interactive data explorer This year’s edition of the World Energy Investment report features an interactive data explorer that enables users to compare energy investments across multiple sectors, fuels and technologies between the periods 2016–2020 and 2021–2025, covering global trends as well as data for 19 individual countries and regions.

Syzygy Plasmonics, the global pioneer in electrified biogas-to-SAF technology announces the initiation of Front-End Engineering and Design (FEED) with Kent for NovaSAF 1, the world's first electrified biogas-to-SAF facility. The site will serve as a model for scalable, low-cost sustainable aviation fuel production. This company milestone advances Syzygy's mission to seize the significant global opportunity to profitably convert biogas into sustainable aviation fuel (SAF) using clean electricity. Profitably convert biogas Located in Durazno, Uruguay, NovaSAF 1 will produce over 350,000 gallons of ASTM Certified SAF annually, marking a breakthrough in cost-effective, scalable clean fuel. The project is backed by long-term feedstock and site agreements with Estancias del Lago (EDL), one of Uruguay's largest dairy and agri-energy operations. Permitting and equipment sourcing is ongoing alongside front-end engineering work led by Kent, a pioneer in SAF project development and execution. The project is backed by long-term feedstock and site agreements with Estancias del Lago (EDL) Powered by Syzygy's proprietary NovaSAF™ platform, the facility combines the benefits of biogas and Power-to-Liquids (PtL) technologies, leveraging waste as feedstock, eliminating the need for pipelines or costly separation while achieving ultra-low water use and carbon intensity. Underutilized biogas sites Syzygy's electrified pathway can potentially qualify as a RFNBO to meet EU regulations. Unique to NovaSAF™ is the ability to provide these social and carbon benefits at a production cost that is unmatched by traditional SAF alternatives like HEFA, ATJ, or PtL. The result is a clean fuel solution that is not only scalable and sustainable, but also economically viable by delivering Jet-A parity fuel when fully commercialized. “This is more than just a SAF plant. It's a new model for biogas economics," said Trevor Best, CEO of Syzygy Plasmonics. "We're unlocking a global asset class of underutilized biogas sites and turning them into high-value clean fuel hubs without pipelines, costly gas separation, or subsidy dependence. We believe NovaSAF™ represents one of the few viable pathways to producing SAF at Jet Parity and successfully decarbonizing air travel.” Cutting-edge energy projects “We're proud to support Syzygy in delivering the world's first profitable biogas-to-SAF plant," said Tom Bullard, EVP Operations, The Americas at Kent. "This milestone highlights Kent's strength in our global capability to bring complex, cutting-edge energy projects to life.” Project Highlights Feedstocks: Cow manure–derived biomethane and CO₂, renewable electricity, and steam Fuel Output: Drop-in SAF compliant with ASTM D7566 Annual Capacity: Over 350,000 gallons SAF Target Carbon Intensity: >80% reduction vs. Jet-A Planned FID: Q4 2025 Commercial Operations: Q1 2027  Strategic & Environmental Impact >50% higher SAF yield than conventional thermal biogas reforming pathways Utilizes both methane and CO2, naturally found in biogas, as feedstocks No gas pipelines necessary, no water-intensive processes Designed for modular, exportable replication in biogas-rich regions Addresses tens of thousands untapped global biogas sites Will comply with EU, US and CORSIA SAF Regulations “This project reflects our commitment to sustainability while creating local value and advancing Syzygy's exciting SAF Platform," said Jose Pedro Sanchez, COO at Estancias del Lago. "By combining agricultural waste with Uruguay's nearly 100% renewable grid, we're making low-cost and abundant SAF a reality.”

Fleet electrification provides opportunities to achieve climate goals while delivering social, financial, and environmental benefits to individuals, businesses, and communities, but the road to successful EV implementation is not without obstacles. Your EV fleets need to work — all the time under varying conditions — to ensure optimal uptime while maintaining energy efficiency. Consequently, electric vehicle service equipment (EVSE) can’t just be “tacked onto” your existing operation. Rather than a “new standalone addition,” it requires a thoughtful and forward-looking approach to seamlessly integrate into your overall facility. Ensuring the type of reliable power needed for an electrified fleet is critical. Luckily, there are a number of new and emerging solutions that promise to deliver clean and reliable local power generation. The Challenges The availability and reliability of the power needed to support electrified fleets is a primary roadblock for many commercial fleet operators. It’s important to look at where that power comes from, how much it will cost, and whether it will be available when needed. Projections indicate that the demand for electricity will surge by 50% during the next two decades Today’s energy landscape is complex. Projections indicate that the demand for electricity will surge by 50% during the next two decades, with no signs of slowing down. According to Grid Strategies, the U.S. electric grid is not prepared for this level of significant load growth. The sheer amount of power needed to keep trucks charged and running 24/7 can be substantial. This poses a key risk for reliability in EV infrastructures, particularly in mission-critical situations. In addition, most fleet operators have become accustomed to fairly predictable fuel costs, since many take advantage of long-term supply arrangements. By contrast, electricity grid costs can vary and result in unpredictable spikes. This adds an extra layer of complexity when it comes to the planning and timing of fleet charging. As a result, many fleet charging operations are turning to local power generation. Intelligent Microgrids, the Energy Insurance Microgrids are nothing new, with rural communities relying on them for decades. Increased affordability and shifting regulations are allowing for more of these microgrids to be powered by renewable energy methods. A common misconception is that microgrids can completely off-set power from the grid. In reality, they are designed to provide peak load shaving and system resiliency. Coupled with an EV infrastructure, microgrids can offer more flexible and reliable energy management. When compared to a traditional microgrid for a building system, microgrids for fleet electrification present new challenges. Most notably, microgrids for fleet electrification are not modeled on an existing load, but rather anticipated demand, which can make reliable load-based modeling more difficult. However, an "intelligent" microgrid uses control systems to manage, store, charge, and discharge energy across the system. Strategic energy management The system can buy power from the grid during low-cost periods while storing self-generated solar power These controls monitor supply and demand, track real-time electricity prices, and create efficient charging schedules, considering factors like Time of Use (TOU) and peak day rates. For example, when electric fleets plug in, demand may increase significantly overnight, making strategic energy management crucial. The system can buy power from the grid during low-cost periods while storing self-generated solar power for later use. When prices rise, it discharges stored energy, keeping costs stable. It can also operate independently, ensuring continuous power during outages and disruptions, improving efficiency, cost control, and reliability. Conversely, fleets often permit charging flexibility within defined boundaries, providing a unique dispatchable resource that can be tuned to fit the needs and energy resources of the customer. A New Category of Local Power Generation Linear generator technology is proving to be an innovative solution for EV infrastructures by providing flexible, resilient and cost-effective on-site base load power. Linear generator technology provides fuel-flexibility meaning they can directly run and switch among traditional fuels like natural gas or propane. Or, they can use low and zero-carbon fuels such as RNG, biogas, hydrogen, and ammonia. Its backup capabilities ensure power through hurricanes, sub-zero snowstorms, excessive heat, and other extreme conditions. Based on capex and operating costs, linear generators can provide a competitive levelized cost of ownership compared to grid power or other alternatives in certain regions. Net-zero goals These solutions allow for flexibility and integration of new fuels as they become available The technology can also be quickly deployed at scale, which is ideal for large fleet operators looking to quickly and cost-effectively deploy resilient EV charging infrastructure while reducing emissions and working toward net-zero goals. What’s more, linear generators deliver a more “future-proof” path. While the dominant sources of fuel for local power generation today is well understood, new and exciting fuels are on the horizon. These solutions allow for flexibility and integration of new fuels as they become available. All without having to replace or retrofit existing equipment. Experts Will Power the Future As companies look to integrate EVs into their operations, a well-thought-out plan for infrastructure is essential to ensure safety, reliability, and long-term success. The integration of onsite power systems will play a critical role in optimizing energy use, lowering costs, and maintaining system resilience. The good news is that energy management is becoming more flexible, ensuring that fleet electrification is not only sustainable but also cost-effective. To ensure a seamless transition and maximize the benefits of fleet electrification, many companies will be moving forward by working with experienced consultants and planners to create a future-proof infrastructure that meets both operational and environmental goals.

The promise of electric vehicles is closer to reality than ever before. New plans and investments at the federal level designate billions of dollars to move our country toward clean energy, including $2 million to help auto manufacturers retool facilities to increase EV production. Additionally, the Biden Administration has announced a goal to create 100% carbon-free electricity by 2035 and a net-zero carbon economy by 2050. Domestic EV marketplace The domestic EV marketplace has grown from 16,000 to more than 2 million vehicles in the last decade and is poised to expand at lightning speed over the next ten years. S&P Global mobility has predicted that by 2030, electric vehicles (EVs) will make up 40% of the U.S. market share of new vehicles on the road. This dramatic increase in EVs will require a nationwide network of charging stations to meet the demand from the current 140,000 to over 1.1 million. Charging stations It is a necessity that regulators lay the groundwork now for a reliable and secure charging networkThe expansion of charging stations will undoubtedly give zero-emissions drivers more confidence in their ability to refuel more conveniently. Still, it’s critical that confidence in infrastructure security also be prioritized alongside this growth. If not adequately protected and monitored, charging stations could serve as access points for cybercriminals, potentially leading to personal data leaks, attacks on vehicle systems, and even widespread blackouts. As EVs continue to gain momentum as realistic alternatives to CO-2 emitting vehicles, it is a necessity that developers and regulators lay the groundwork now for a reliable and secure charging network for the long term. EV Charging Infrastructure and the electric grid The nation’s electric grid generates and delivers electricity essential to everyday life. It’s made up of power plants and other sources of generated electricity, complete with transmission and distribution lines and infrastructure that delivers essential power. Grid connection An important aspect to remember about EV charging stations is that they connect to their relative electric grid. Simply put, the infrastructure for charging stations is comprised of devices that wait for another device to connect and communicate. However, it lacks a third-party firewall or other devices that can act as protection. Unfortunately, this results in vulnerability and means new doors for cybercriminals to walk through. Cybersecurity risks If the grid became compromised by a large-scale attack, it could lead to destructive and widespread blackouts Even before EV charging stations are factored in, the electric grid faces substantial cybersecurity risks from criminals, terrorists, hackers, and foreign governments every day. If the grid became compromised by a large-scale attack, it could lead to destructive and widespread blackouts that would undoubtedly affect EV charging stations and other essential institutions such as banks, hospitals, and gas stations. With the expansion of EV charging stations, the risks only grow. Now is the time to address threats and strategize before disaster strikes. Risks of connectivity emerge The world we live in has reached a level of being almost entirely connected at all times – security systems, appliances, health monitors, industrial sensors, and now, our vehicles. While the connectivity of vehicles has been incredibly beneficial to consumers and the automotive industry alike, the growth in the internet of things (IoT) has opened countless doorways for cybersecurity threats. Software flaws One young information technology security specialist reported finding flaws within a third-party software that a handful of leading EV manufacturers use. It gave him access to more than 25 EVs in at least 13 countries. The man, who stumbled on the findings in 2022, said he could remotely control some EV functions, including starting vehicles, unlocking windows and doors, disabling security systems, and turning on stereo systems and flashing headlights. The IT specialist said he could also tell if a person was in the vehicle. In a separate and concerning situation, a single compromised password led to a foreign-fronted cyberattack on a U.S.-based pipeline in 2021. It halted the fuel supply process on the east coast and cost the company $4.4 million in ransom money. Cyberattacks Thousands of charging stations are already in danger of being targeted by cybercriminals The point is that even massive and powerful companies can fall victim to cyberattacks. Even though cybersecurity is a critical issue for EV manufacturers, their systems are still vulnerable to hackers. Thousands of charging stations are already in danger of being targeted by cybercriminals, and as the number of stations grows, so too will the risk. The higher the number of entry points, the more opportunities hackers will see. If they can break into and gain access to even the most sophisticated EVs, it could be catastrophic. Ensuring security and reliability through proactivity Because charging stations are connected to the country’s primary grid, the entire infrastructure must be armed with the most aggressive security measures. The risks associated with modernized electric vehicles are not something that traditional automotive safety regulations and security standards properly cover. The complicated and rapid evolution of EVs is putting them at a heightened threat. When charging stations are connected to the electrical grid, it is imperative to ensure strong cybersecurity measures are in place to remain dependable and effective.  Embedding cybersecurity technology We often see outside parties utilized to secure tech because of the frequent lack of necessary cyber protection The best way to ensure the electric grid's safety is to build cybersecurity technology directly into the charging stations. We often see outside parties utilized to secure tech because of the frequent lack of necessary cyber protection. Unfortunately, the promising growth EVs and their charging stations bring to our environment also contributes to technology’s vulnerabilities, which can cause key security measures to be overlooked. There’s no getting around it: EV charging stations are highly vulnerable to hackers. Awareness and solutions As the growth continues, there is an acute need for heightened awareness and solutions for the weaknesses associated with these charging stations. These solutions should consider everything from the charging points and devices to operators of the energy distribution networks and infrastructure providers. We must aim to implement advanced cybersecurity measures that will keep safe drivers and all the data that EVs contain.

As the demand for power increases in the UK across growing domestic and industrial markets including the nuclear industry, so the need for reliable power generation, transmission, and distribution using Medium Voltage cables has risen with it. The demands for power has never been greater, with the explosion of development in towns and cities across the UK and the growth of industrial development and technology reliant on consistent supplies. Medium voltage cables As the incidence of non-approved cables continues, Medium Voltage (MV) cables coming onto the market should be independently approved and certified as compliant as the pressure mounts on the installation of quality products in modern building developments. Indeed, new demands are being placed on the grid continually for reliable supplies and the development of nuclear plants at sites including Sellafield and Capenhurst only increases that need for reliable supply using approved products throughout the supply chain. New demands are being placed on the grid continually for reliable supplies The supply chain should be particularly careful around the application of these cables into such high-risk environments as these as well as hospitals, major industrial sites and sub-stations serving infrastructure sites. MV cables are crucial to our infrastructure. Electricity leaves the generating site and is routed via a step-up transformer to take it up to the National Grid distribution voltages of 400Kv, 275Kv, and 132Kv. Once in the local area, the supply goes through step-down transformers that reduce the voltage to 415V with domestic supplies tapped off at 230V. Large volumes of power To facilitate moving electricity around the National Grid, there are almost 4,500 miles of overhead lines, almost 1,000 miles of underground cables, and 342 Grid substations. Once stepped down, power is then distributed on local networks at a lower voltage, commonly 66Kv,33Kv, and 11Kv. In all, there are 14 licensed District Network Operators (DNOs). Very often, the supply of power to consumers of large volumes of electricity is routed via sub-stations to feed large sites such as industrial installations, hospitals, and educational institutions. To provide power to the sub-stations - very often located on the premises of the establishment that they supply - Medium Voltage (MV) cables are used. MV cables were only developed as the level of voltages increased and the need arose for a greater classification range. A developing market The size of the market has developed to the point where the global MV cables market was valued at $39.31 billion in 2016 and is projected to grow at a rate of more than six percent until 2022. The technical design and specification of the cables themselves are of paramount importance within the power distribution network. The AEI Cables range of MV cables meet all requirements of BS6622, BS7835, and IEC60502-2 and are all approved and certified by third-party approval organization BASEC for ranges up to 33kV. There are a number of technical considerations to be taken into account including the size of the installation, the position of the installation in relation to the network, and the presence of primary and secondary sub-stations. Non-approved cabling Prior to installation, a detailed route survey should also be carried out to plan where cables will be joined and to identify any possible obstructions which may require special civil engineering works such as directional drilling. Underlying the critical nature of supplies to these types of services, the incidence of non-approved cables continues, so the application of MV cables into these important and sensitive environments becomes critical. In these environments, it is even more crucial to get it right the first time There have been many instances in the recent past of non-approved cables coming onto the market, but in these environments it is even more crucial to get it right the first time, thereby reducing the risk and the cost of anything going wrong. Look for the British Standard, European or international standard number, the manufacturer’s mark, and third-party approval markings. Even if there are markings, it is worth checking because some labels and stamps have been used fraudulently. Cables can become untraceable Cables that are unmarked but not checked can become untraceable so it is important at the point of receipt for contractors to check every time. Also, keep records of purchase and delivery to ensure that what is being installed is what was specified originally. It is well worth the small amount of time to make these checks, especially as these cables are buried and relied on to provide a continuous power supply. In a number of instances, cables are even being laid under the sea to avoid lengthy and costly delays in seeking permission from landowners. Some cables are provided with an armored layer to help protect them against damage whether installed below or above ground, generally for industrial applications. Armoring also protects a cable during storage, transport to site, and installation. Metallic armoring is always earthed at one or more points in the circuit and may therefore contribute as a protective conductor to carry earth fault current. Extensive testing Modern polymeric-insulated LV and MV cables designed for UK utility use are usually not armored but have a concentric layer of copper wires under the outer sheath. Faults in underground cables are very expensive to repair, especially cables installed under roads and pavements. Repairing a fault will probably involve cutting out a length of cable on either side of the fault and installing a new length together with joints to connect to the existing cable. MV cables are subjected to extensive testing of material components and electrical tests including AC voltage and partial discharge. MV cables are subjected to extensive testing of material components and electrical tests Supplying industries At AEI Cables, we supply products to the construction, industrial, fire protection, defense, mining, and rail industries worldwide meeting the requirements for MV cables to BS 6622 and BS7835 and the highest relevant industry standards including ISO 9001 ISO 14001, and ISO 18001 for ranges up to 500kV. These products are also approved by leading independent approvals organizations nationally and internationally including BASEC, LPCB, and Lloyds. Third-party approval verifies that they can pass rigorous testing in the conditions in which they will operate. The demand continues for MV cables of quality which can consistently supply power to meet the growing challenge in whatever form it is presented.

The electrical industry is expected to have a labor shortage of about 60,000 workers by 2026. A labor shortage in the electrical trade is not inevitable, but it is likely to continue if the industry does not take steps to address the issue. Like other skilled trades, the electrical industry is facing challenges that could contribute to a labor shortage, including an aging workforce, a lack of interest among younger generations, and competition from other industries. However, there are strategies the industry can implement to address these challenges and attract a new generation of workers. These strategies include increasing awareness of the benefits and opportunities of skilled trades, investing in training and education programs, improving working conditions and compensation, embracing technology, promoting diversity and inclusivity, and collaborating among industry, education, and government. Improving working conditions Factors in the current labor shortage in the electrical industry include: Aging workforce: Many workers in the electrical industry are nearing retirement age, and there are not enough younger workers to replace them. This has led to a shortage of skilled workers with many years of experience in the industry. Lack of interest in the trades: There has been a decline in the number of young people pursuing careers in the skilled trades, including electrical work. This is due in part to a focus on four-year college degrees as the preferred career path, as well as a lack of awareness of the benefits and opportunities of skilled trades. Competition from other industries: The electrical industry is competing with other industries, such as construction and manufacturing, for skilled workers. Training and education: Training and education are critical for developing the skills and knowledge necessary for electrical work. However, there is a shortage of qualified trainers and educators. Increasing demand: The demand for electrical services is increasing, particularly in areas such as renewable energy and smart grid technology. Attracting and retaining workers To attract and retain workers, the electrical industry must offer competitive wages and benefits One strategy to address the labor shortage is to increase awareness of skilled trades and to promote the benefits of a career in the electrical industry through outreach programs in schools, career fairs, and other events. Providing access to quality training and education programs that develop the skills and knowledge necessary for electrical work is crucial for attracting and retaining workers. This can be done through apprenticeship programs, vocational schools, and community colleges. To attract and retain workers, the electrical industry must offer competitive wages and benefits, as well as a safe and supportive work environment. This includes offering training and development opportunities, flexible schedules, and opportunities for advancement. Inclusive work environment The electrical industry is changing rapidly, and workers must be equipped with the latest technology and tools to stay competitive. Providing workers with training and access to the latest technology can help attract and retain workers. The electrical industry should actively promote diversity and inclusivity to attract a wider pool of workers. This includes efforts to recruit workers from underrepresented groups and create a welcoming and inclusive work environment. The electrical industry is changing rapidly, and workers must be equipped with the latest technology Companies in the electrical industry are addressing the labor shortage problem by investing in workforce development programs and initiatives. For example, Schneider Electric has developed a comprehensive workforce development program called the Schneider Electric Energy and Automation Training (SEAT) program. The SEAT program provides training and certification for employees, customers, and partners in areas such as energy management, automation, and digital transformation. Developing training programs Siemens has developed several initiatives to address the labor shortage in the electrical industry. These initiatives include apprenticeship programs, vocational training programs, and partnerships with educational institutions to develop training programs. Graybar, a distributor of electrical products and solutions, has developed a workforce development program called Graybar University to provide training and education for employees, customers, and partners in areas such as lighting, automation, and safety. Joint apprenticeship training program Collaboration among industry, education, and government is crucial for developing solutions The International Brotherhood of Electrical Workers (IBEW) and the National Electrical Contractors Association (NECA) have developed a joint apprenticeship training program that provides training and education for individuals looking to enter the electrical industry. The program provides on-the-job training and education in areas such as electrical theory, safety, and installation. Collaboration among industry, education, and government is crucial for developing solutions to the labor shortage in the electrical industry. This includes partnerships between industry and education institutions to provide training and education programs, as well as government initiatives to support workforce development in the skilled trades.

As part of a long-term modernization project at the Baltimore Washington International (BWI) Airport, Helios Electric was retained to perform design-assist, system integration, and on-site field engineering services.  The project involved replacing an existing 7.5/10.5 MVA outdoor substation transformer and performing retrofit services at the corresponding medium-voltage switchgear lineups. The project also included enhancements to the electrical system protection since power reliability was deemed vital for airport operations. SEL-787 transformer protection relay A new SEL-787 transformer protection relay was installed to perform advanced transformer monitoring, controls, and system protection. New pilot control devices were installed on the corresponding switchgear lineups to indicate transformer faults, alarms, and mechanical conditions. Vacuum circuit breakers at the existing switchgear lineups were retained and modified to establish connectivity with the new substation transformer and the new transformer protection relay. transformer protection functions This installation approach yielded improved protection for the new transformer while limiting the scope, budget, duration, and power outages required to accomplish the necessary tasks. The improved transformer protection functions included the following: ANSI-87 – Current Differential Protection ANSI-87G – Restricted Earth Fault Protection ANSI-50/51 – Phase Overcurrent Protection (Backup) ANSI-50/51G – Ground Overcurrent Protection (Backup) ANSI-63 – Transformer Sudden Pressure ANSI-71 – Transformer Low Oil Level ANSI-49 – Transformer High Winding Temperature ANSI-26 – Transformer High Oil Temperature AC/DC control modifications To fulfill the customer’s desired requirements, the Helios Electric team investigated the internal circuitry of the switchgear lineups and ascertained the specific AC/DC control modifications required at the existing. Work performed under this project included the following: Examining and analyzing the components and sub-components of the existing switchgear lineups. Tracing the existing 35kV-class and 15kV-class vacuum circuit breakers to determine the existing field configuration. Developing modified equipment shop drawings for approval, construction, and as-built conditions. Programming and configuration of SEL-787 Transformer Protection Relay to establish system protection, controls, and integration with the facility’s Supervisory Control and Data Acquisition (SCADA) System. Installing and modifying existing 35kV-class and 15kV-class vacuum circuit breaker controls to accommodate the new substation transformer and transformer protection relay. Developing Operation & Maintenance (O&M) manuals for modified electrical equipment lineups. On-site electrical equipment training for airport maintenance personnel.

SoFi Stadium, a world-class venue, turned to industry major - Belden for a complete end-to-end cabling and connectivity solution. Belden’s cutting-edge technology supports the stadium’s data-heavy demands, including the one-of-a-kind, roof-suspended Oculus video board, Wi-Fi infrastructure, digital ticketing, and a DAS system. Belden’s solutions for SoFi Stadium When the stadium’s owners required a solution that delivered top-tier quality, performance, and reliability while reducing labor costs, they called Belden. Count on Arrow to deliver unparalleled excellence in the low-voltage industry. Arrow will equip with the competitive advantage needed for any customer, any configuration, and any budget. Copper Cables & Copper Solutions Discover the ultimate lineup of Belden Inc. category cables, tailored to suit every application imaginable! Discover the ultimate lineup of Belden Inc. category cables, tailored to suit every application imaginable! Many cables featured their signature patented Bonded-Pair design, guaranteeing unparalleled signal integrity. Plus, with DataTuff® Industrial category cables, rest assured the system remains resilient against the toughest environmental conditions. Category 6A Choose from an assortment of configurations including small diameter, snake, industrial, non-bonded, and their innovative patented Bonded-Pair technology. Elevating performance benchmarks, Belden's renowned 10GXS Cable stands as the gold standard in the industry. Category 6 Belden has a wide array of Category 6 performance options, featuring their top-of-the-line REVConnect 3600 System cable boasting premium performance and ample headroom. The REVConnect 2400 System cable, surpasses TIA-568-C.2 standards, all backed by Belden’s renowned quality. Category 5e Belden presents a range of Category 5e performance options, with their flagship 1200 Series cable delivering exceptional headroom, surpassing the TIA-568-C.2 Category 5e standard. Featuring Bonded-Pair technology, their 1200 Series ensures unparalleled robustness in installations. Patch Panel Belden’s commercial-grade panels are available in modular (empty) configurations Belden offers a comprehensive range of copper patch panels tailored to meet the demands of both commercial and industrial settings. Belden’s commercial-grade panels are available in modular (empty) configurations or pre-loaded with high-quality copper jacks designed for Category 6A, 6, and 5E network installations. Trunk Cable Optimized for data centers, enterprise networks, and any environment prioritizing swift installation, Trunk Cable Assemblies offer factory termination and rigorous testing, slashing installation time by up to 90%. Eliminating the need for termination, these assemblies come in diverse lengths, equipped with connectors tailored to specific application requirements. Patch Cord Enhancing both performance and physical durability, Belden’s Copper Patch Cords ensure optimal transmission quality for network channels. With superb return loss characteristics adaptable to any environment, Belden’s Copper Patch Cords come in modular, small-diameter, and traceable solutions to meet specific needs. Fiber Cable & Fiber Solutions Discover an array of high-quality indoor and outdoor cable solutions within Belden’s comprehensive product line, featuring both tight buffer and loose tube designs. Tailored for diverse industrial settings, their offerings include armored, burial, and ruggedized options. Crafted to meet various specifications, their product range encompasses OM1, OM3, OM4, OM5, and OS2 (Single Mode) configurations. Tight Buffer Fiber Cables Tight-Buffered Fiber Cables are perfectly tailored for enterprise environments Tight-Buffered Fiber Cables are perfectly tailored for enterprise environments, these cables stand out as a crowd favorite, ideal for intra-building backbones and both horizontal and vertical installations.  Offering versatility like no other, they come in fiber counts ranging from two to an impressive 144, making them adaptable to any project scale. Whether indoors or outdoors, these cables are engineered to exceed expectations, boasting a design that ensures seamless performance in any environment. Loose Tube Cables Belden’s Loose Tube Cables offer the ultimate solution for all outdoor and indoor/outdoor fiber optic needs. Whether it’s for OSP, conduit, direct burial, aerial, or trunking applications, Belden’s cables offer unmatched versatility and performance. Choose from a variety of options including dry or gel-filled single and double-jacket designs, with plenum and riser ratings. Armored Cables Belden’s armored cables are designed to withstand harsh environmental conditions, including extreme temperatures, moisture, and physical damage. The armor layer provides an extra level of protection against mechanical stresses, such as crushing, impact, and abrasion, ensuring the longevity and reliability of the cable. It also helps to maintain cable integrity in areas prone to disturbances such as rodent activity. Connectors Belden’s connectors seamlessly integrate fusion splicing with field-installable connectors Belden’s connectors seamlessly integrate the advantages of fusion splicing with the ease of field-installable connectors, they greatly enhance flexibility for field termination, while elevating installation performance and reliability beyond traditional mechanical splice connectors.  Eliminating the need for crimping, polishing, or adhesives during termination significantly reduces installation errors. Cassettes Belden offers an advanced DCX and LAN Cassettes platform designed to cater to a wide spectrum of density requirements, ranging from low to ultra-high density applications. Cassettes platform encompasses frames, cassettes, and covers for a comprehensive array of connector types, including LC, SC, ST, and MPO connectors, as well as Copper RJ45 Jacks and Couplers. Patch Cords Simplified, durable, adaptable, and readily accessible. Unmatched quality and performance define Belden's FX patch cords, engineered with a robust design to endure daily wear and tear. Available in standard configurations off the shelf or swiftly customized for tailored installations, they ensure reliability in any setting. 

Siemens has developed a digital twin especially for large event spaces. The technology makes it possible to realistically reproduce and simulate very precisely a building’s acoustics and structure. The Sound of Science application will be used for the first time in the Großes Festspielhaus – the Large Festival Hall – at the Salzburg Festival. Sound of Science application Orchestral formations on the stage can also be tested and arranged in advance Sound of Science will enable event organizers to virtually explore how acoustics change in different spatial configurations – for example, how adding acoustic panels affects the listening experience – in order to select the optimal acoustic scenario. Orchestral formations on the stage can also be tested and arranged in advance – before a single note is heard in the real world. This approach saves money, resources and time. Siemens to use digital twins “With Sound of Science, we’re designing the future. Digital twins are not only transforming the everyday for many companies, but are also creating new opportunities for the cultural and creative industries,” said Prof. Dr. Stephan Frucht, Artistic Director of the Siemens Arts Program. Dr. Stephan Frucht adds, “In the future, we’ll be able to plan stage productions better and even simulate them acoustically in advance. We’re delighted to have the Salzburg Festival at our side as a long-standing partner, who recognizes the opportunities such innovations offer.” Sound of Science app for select partners Siemens will make the Sound of Science app available to selected partners from the cultural world free of charge as a demonstration application. There are currently no plans to market the application. Its simulation solutions, however, may be purchased. The Salzburg Festival’s Großes Festspielhaus is the first and only large event space to date in which Sound of Science is available. However, Siemens is planning to digitally simulate further spaces – including concert halls in Germany and England. At the Salzburg Festival, audiences will have an opportunity – unique for the time being – to use VR glasses to experience the application at the festival’s opening on July 20. Siemens and the Salzburg Festival “Siemens and the Salzburg Festival share a common passion for excellence and innovation. And we’re delighted to partake in this pioneering technological development and innovation as part of our long-standing close and trust-based partnership,” said Dr. Kristina Hammer, President of the Salzburg Festival. Dr. Kristina Hammer adds, “We’re excited to see what diverse applications will stem from Sound of Science in the future.” Siemens Simcenter’s simulation solutions The technologies used are part of the simulation solutions from Siemens Simcenter The technologies used are part of the simulation solutions from Siemens Simcenter, which has been part of the company’s core business for over 15 years. The technology is mostly used in industry – for example, for the acoustic optimization of vehicle interiors or for protection against street noise. For Sound of Science, Simcenter uses a combination of impulse response measurements and ray tracing for the 3D modeling of each event space. These methods can measure the echo and reverberation of a sound and simulate how sound waves propagate in a room. Depending on the material, reflections of sound waves behave differently. Those that bounce off a concrete wall react differently from those that hit a carpet or reach the ear directly. As a result, the simulation can reproduce the individual sound signature of each event space – in other words, its acoustic DNA. Siemens Festival Nights Siemens has been working closely with the Salzburg Festival for around 30 years. Since 1999, the company has also been the festival’s main sponsor. Since 2002, the Siemens Festival Nights have been held on Kapitelplatz square during the Salzburg Festival. Since its beginning, this open-air event has provided more than one million visitors with the opportunity to experience previous and current festival productions on an LED screen free of charge. In addition, some of the Salzburg Festival’s venues are equipped with Siemens technology from the areas of building automation, security and acoustics.

The project aims to increase the resilience of the city's transmission network, reducing dependence on energy supply from other locations, and meeting demand during the peak tourism season. WEG has just announced the supply of a complete energy storage system (BESS) for the city of Aspen, located in the state of Colorado, USA. The project aims to enhance the resilience of the local power grid, which does not have its own power generation system and is entirely dependent on generation from other cities. Microgrid management software The solution provided by WEG includes transformers, AC/DC voltage converters, battery containers, switching and protection systems, as well as advanced microgeneration or microgrid management software. The initial system will have a capacity of 1.5 MW of power and 2 MWh of stored energy The initial system will have a capacity of 1.5 MW of power and 2 MWh of stored energy, with the potential to expand to up to 8 MWh when fully implemented. The management software is being developed by teams of specialists in the United States and Brazil, where WEG’s largest software development technical team is based. Implementation of the BESS system This project is yet another in the portfolio of BESS systems in the United States, where WEG has a group of engineers dedicated to this product in the cities of Duluth, GA, and Barre, VT. According to Carlos Bastos Grillo, Managing Director of Digital and Systems at WEG, the implementation of the BESS system will not only reduce dependency on external energy sources, but also increase the city's resilience against power supply interruptions during the peak season and dry periods, when wildfires occur more frequently in the region. Facing similar challenges "The guarantee of a stable power supply is vital for the sustainability of local tourism, which is the backbone of Aspen's economy. We believe that this project will not only benefit residents and visitors, but also serve as a model for other cities facing similar challenges," assures the Executive. The BESS system is scheduled to be completed by September 2024, preparing Aspen for the high ski season that starts in November. Timely completion will ensure that the city does not suffer from power shortages during one of the most critical periods for local tourism.

The Western Area Power Administration (WAPA), a key entity under the Department of Energy, plays a pivotal role in delivering reliable, cost-based federal hydroelectric power across 15 central and western states. Serving millions through partnerships with public utilities, rural cooperatives, and tribal organizations, WAPA’s core mission is to provide clean energy while maintaining a stable and modern grid infrastructure. As stewards of both power and transmission, WAPA not only markets energy but operates a vast network of transmission services — enabling federal and non-federal entities to access dependable energy across the American West. Supporting its broader strategic plan, WAPA is deeply committed to grid modernization, environmental stewardship, and empowering the communities it serves. The Challenge: Powering Progress with Performance To align with its strategic mission — “safely provide reliable, cost-based hydropower and transmission” — WAPA required a transformer solution that would meet stringent technical, environmental, and operational standards. The ideal partner needed to deliver: High system reliability and grid resilience Environmental and economic sustainability Rapid deployment and installation Long-term operational performance WAPA was not just seeking a transformer—they needed a transformative partner. The Solution: NOARK and CHINT—A Global Powerhouse Partnership Through collaboration with a Small Business Enterprise (SBE) liaison, CHINT/NOARK was introduced to WAPA’s public bidding process. The proposal stood out for its combination of technical superiority, environmental alignment, and cost-effectiveness—key pillars in supporting WAPA’s long-term goals. About CHINT/NOARK NOARK, a subsidiary of the CHINT Group (est. 1984), is a pioneer in intelligent energy solutions spanning the full electricity lifecycle—from generation and transformation to distribution and consumption. Vertically integrated operations, international certifications, and green innovation strategies make us the ideal partner for utilities driving the future of energy. Transformer Delivery: Engineering Resilience into Every Winding Product Supplied: 230kV/115kV/13.8kV ONAN/ONAF/ONAF 120MVA/160MVA/200MVA Auto-Transformer This state-of-the-art transformer was engineered specifically to align with WAPA’s environmental, safety, and reliability mandates. Key Technical Features: Seismic Qualification: Guaranteed operational stability in earthquake-prone regions Low Impedance Design: Enhances grid reliability and reduces fault impact High Efficiency: Engineered with no-load and load losses significantly below guaranteed values Certified Compliance: Meets all applicable industry standards and certifications Green Engineering: Designed with eco-friendly materials and processes Implementation: Precision in Motion Transport From Shanghai, China to Cheyenne, Wyoming, the transformer journeyed via an expertly coordinated intermodal logistics network, arriving within a two-month expedited schedule (May 23 – July 23, 2016). Installation Responding within two weeks of WAPA’s notification, the on-site team began installation on November 14, 2016. By November 17, all critical bushings were installed—just hours ahead of a fast-moving snowstorm. The team’s foresight and rapid execution prevented potential moisture intrusion, safeguarding the transformer’s long-term integrity. Unique Project Moment: A snowstorm loomed as the final installation phase approached. Thanks to precise coordination and global teamwork, they completed the most sensitive component installations just in time—preventing internal moisture contamination and ensuring uninterrupted quality. Conclusion: A Future Secured, Together This project exemplifies how smart partnerships and advanced transformer technology can make a lasting impact. By working with CHINT/NOARK, WAPA reinforced its commitment to energy security, environmental responsibility, and community empowerment. As power transformers quietly work behind the scenes, they prove to be the unsung heroes of the electric future—ensuring that light, heat, and hope continue to reach every corner of the American West.

Jenkins sold a Jenkins Motor Test System to Oman, where temperatures can exceed 120ºF. While Jenkins Motor Test Systems are built tough and for industrial environments, this specific location required customizations to be the most effective in an extremely hot environment. Locations near large bodies of water or tropical environments can also cause problems as the humidity in the air will cause the copper wiring in the transformer to oxidize over time. Although Jenkins designs its equipment to operate for long periods, some applications for customer environments require specific customization. The Solution  Jenkins engineers and winders worked together to develop a custom solution for this harsh climate, particularly paying close attention to temperature and water resistance. To customize the transformer for this environment, the Jenkins team made the following modifications: Doubling the spacing between winding layers to increase airflow. Encasing the transformer first in a high tolerance epoxy varnish, and then in a polyester over-dip that prevents the application from rust, dust, and harmful materials. Utilizing expanded metal at the base of the MTS enclosure, allows heat to escape, reducing the internal temperature. Installing temperature-sensitive cooling fans (set to 100ºF) atop the enclosure to prevent overheating. The Results  Jenkins technicians checked insulation for 10,000 volts (resistance to ground), checked each voltage leg, and high voltage potential to ground, and ensured the taps were in the correct place. Voltage was confirmed to operate up to 20% above normal operation, ensuring maximum efficiency and longevity of the transformer. These modifications have resulted in prolonged use of the Jenkins Motor Test System in harsh environments and ultimately customer satisfaction.