T&D World’s Post

Prior to the 1970s, oil was the primary insulation medium in high-voltage circuit breakers, even if that came with several drawbacks: circuit breakers were bulky, required frequent maintenance and posed environmental risks due to potential fires. Since the 1960s, utilities began replacing oil circuit breakers with other breaker technologies, such as air blast breakers. However, it was the introduction of SF6 technology in the 1970s that offered a significant leap forward for the utility industry. While SF6 offers operational benefits, it comes with a substantial environmental cost. Given the continuous growth of the high-voltage switchgear market, driven by renewable energy integration and increasing global electricity demand, the SF6 stored in these breakers poses a significant climate challenge. Consequently, finding effective alternatives for insulation gas is paramount to switchgear manufacturers. Utilities as well as distribution and transmission system operators are cautious when it comes to implementing new technologies. This is with good reason, as grid stability and availability are of the utmost importance. The new gas must match the original design’s critical parameters without significantly compromising electrical performance, reliability, lifetime, maintainability and size.

🔗 I just read a fascinating article on Utility Dive about FERC's proposed changes to transmission incentives and the potential impact on the energy industry. The article highlights the potential impact on consumer rates. #transmission #energyindustry #FERC #utilities https://lnkd.in/eUaWb9GW

Clean & renewable energy depends on transmission infrastructure!

Enhancing grid stability through building optimization is a game-changer for achieving sustainable energy goals. Connecticut’s Public Utility Regulatory Authority (PURA) initiative, led by Edo, demonstrates how Virtual Power Plants (VPPs) and demand flexibility can improve grid reliability, reduce emissions, and lower costs. By integrating advanced technologies, we can create resilient energy systems that benefit both utilities and communities. This pilot project showcases the potential for widespread adoption and significant impact. #GridStability #BuildingOptimization #SustainableEnergy #VirtualPowerPlants #DemandFlexibility #EnergyEfficiency #CarbonReduction #SmartGrid #RenewableEnergy #EnergyInnovation #GreenTech #UtilityManagement #SmartBuildings #CleanEnergy #EnergyTransition https://lnkd.in/ebqvXqHE

Did you know that water injection and processing can represent over 50% of an oilfield’s energy demand? Electrification can help. Here’s how:

Did you know that water injection and processing can represent over 50% of an oilfield’s energy demand? Electrification can help. Here’s how:

Did you know that water injection and processing can represent over 50% of an oilfield’s energy demand? Electrification can help. Here’s how:

Did you know that water injection and processing can represent over 50% of an oilfield’s energy demand? Electrification can help. Here’s how:

Enhancing grid stability through building optimization is a game-changer for achieving sustainable energy goals. Connecticut’s Public Utility Regulatory Authority (PURA) initiative, led by Edo, demonstrates how Virtual Power Plants (VPPs) and demand flexibility can improve grid reliability, reduce emissions, and lower costs. By integrating advanced technologies, we can create resilient energy systems that benefit both utilities and communities. This pilot project showcases the potential for widespread adoption and significant impact. #GridStability #BuildingOptimization #SustainableEnergy #VirtualPowerPlants #DemandFlexibility #EnergyEfficiency #CarbonReduction #SmartGrid #RenewableEnergy #EnergyInnovation #GreenTech #UtilityManagement #SmartBuildings #CleanEnergy #EnergyTransition https://lnkd.in/eNXeVMaU