Fuel-Agnostic Infrastructure for Rapid Deployment and Compliance

As electricity demand continues to grow, transmission has never been more important. Between data centers, electrification, renewable energy integration, and increasing reliability expectations, the electric grid is being asked to do more than ever before. That means transmission engineering isn't just about designing infrastructure, it's about enabling the future. Every project contributes to a larger goal: delivering safe, reliable power to homes, businesses, and communities. It's an exciting time to be part of an industry that's solving complex challenges while helping build a stronger, more resilient grid. #TransmissionEngineering #PowerGrid #GridModernization #EnergyInfrastructure #ElectricUtilities #PowerSystems #Engineering #Infrastructure #RDQInc #TeamRDQ

One of the best things about working in our industry is seeing so many talented people come together to solve difficult challenges. Congratulations to the ESIG (Energy Systems Integration Group), the Large Loads Task Force, and the outstanding team of contributors from utilities, regional transmission organizations, national laboratories, government agencies, consulting firms, and industry who collaborated on the new report, "Transmission Planning with Large Loads: Current Practices and Recommendations." It is a thoughtful, balanced, and exceptionally well-researched contribution to one of the most important discussions facing our industry today. As AI, data centers, advanced manufacturing, and electrification continue driving unprecedented electricity demand, this report reminds us that the future isn't simply about building more transmission - it's about planning better. Concepts such as transmission headroom, scenario-based planning, least-regrets investment strategies, Grid Enhancing Technologies (GETs), advanced transmission technologies, and better utilization of existing infrastructure will all play important roles in meeting tomorrow's energy needs. At CTC Global, we're proud that many of the engineering solutions we've been helping utilities implement for more than two decades - including advanced ACCC Conductors and, more recently, the GridVista™ System - support many of the practical objectives highlighted throughout this outstanding report. Well done to everyone involved. I encourage anyone involved in transmission planning, grid modernization, or large-load integration to add this report to their reading list. https://lnkd.in/gHDuRxkt #Transmission #GridModernization #EnergyInfrastructure #DataCenters #ArtificialIntelligence #GridEnhancingTechnologies #Utilities #TransmissionPlanning #PowerGrid #EnergyTransition

A Weak-Grid Project Needs More Than Battery Capacity In weak-grid and microgrid projects, battery capacity is only one part of the system discussion. The more important question is how the entire power system will actually operate. Before selecting a system, several conditions should be understood: How stable is the available grid connection? What does the load profile look like? Is PV or another renewable source part of the system? Is there backup generation? How high is the peak power requirement? How long does the system need to operate? How should different energy sources work together? These factors shape not only system sizing, but also system architecture, control logic, and overall project performance. In many projects, the challenge is not simply how much energy to store. It is how to coordinate available energy sources under real operating conditions. For projects where this kind of system architecture is required, Taurus Stationary can be part of that solution discussion. The system should be defined around the project—not around a battery-capacity number alone. #Microgrid #WeakGrid #BatteryStorage #EnergyManagement #SYNTRATECH

Canada's last remaining regional electricity cooperative is getting a serious infrastructure upgrade — and the scope of this project is worth paying attention to. Natural Resources Canada is investing over $4.5 million through its Smart Renewables and Electrification Pathways (SREP) program into the Saint-Jean-Baptiste Regional Electricity Cooperative's Distribution Modernization Project in Quebec. The cooperative serves 7,000 customers across 16 municipalities in the Montérégie and Estrie regions, operating across 469 square kilometres with 437 kilometres of distribution lines. Here's what the project delivers: — Up to 7,500 digital metering technologies (smart meters) deployed across the service territory — Integration of renewable energy and battery storage into the existing distribution system — Electrification of new end-uses — Targeted improvements to grid reliability and resiliency From a distribution engineering standpoint, this is a textbook AMI + DER integration challenge. Deploying 7,500 smart meters across a rural cooperative network spanning nearly 470 km² means the communications backbone, data management systems, and SCADA integration all have to scale simultaneously. Add battery storage and renewable interconnections on top of that, and your protection coordination and voltage regulation schemes need a hard look before a single meter goes in the ground. The practical takeaway: grid modernization at the cooperative level isn't just a technology swap — it's a systems engineering exercise. Sequencing matters. Get the metering infrastructure and communications layer right first, and the DER integration becomes significantly more manageable. This project is a strong signal that rural distribution utilities, regardless of ownership model, are moving decisively toward the smart grid era. #Power #ElectricalEngineering #PowerSystems #NEC2023 #IEEEPower Read more: https://lnkd.in/e53dJaFt

**GIS vs AIS Substations – Choosing the Right Solution for Tomorrow's Grid** As the demand for renewable energy, battery storage, and grid resilience continues to grow, selecting the right substation technology has never been more important. ⚡ **GIS (Gas Insulated Substation)** ✔ Compact footprint – ideal where land is limited ✔ High reliability with minimal maintenance ✔ Better protection from harsh environments and pollution ✔ Higher initial investment, but lower lifecycle maintenance ⚡ **AIS (Air Insulated Substation)** ✔ Lower upfront capital cost ✔ Simpler design with easier inspection and maintenance ✔ Faster equipment replacement and future modifications ✔ Requires significantly more land and is more exposed to environmental conditions **So, which is better?** There isn't a one-size-fits-all answer. 🔹 Choose **GIS** for urban developments, offshore facilities, data centres, and sites where space is at a premium. 🔹 Choose **AIS** for rural locations, utility-scale renewable projects, and sites where land availability and cost make it the more economical option. The best solution isn't just about today's budget—it's about balancing **capital cost, operational reliability, maintenance strategy, environmental conditions, and future network expansion**. As the UK accelerates towards Net Zero, both GIS and AIS will continue to play a vital role in connecting renewable generation and battery energy storage systems to the grid. **Which technology do you see dominating the next decade of grid infrastructure—GIS or AIS?** #Substation #GIS #AIS #PowerSystems #ElectricalEngineering #GridConnection #RenewableEnergy #BESS #Transmission #Distribution #EnergyInfrastructure #NetZero #Engineering

Hyperscale development moves fast, and energy infrastructure has to keep pace. For a recent hyperscale project, we designed and delivered a natural gas infrastructure system to support operations before the site could connect to the local utility grid. Our system supported 40+ turbines, helping provide the energy needed to bring the project online faster. From initial design through implementation, we help large-scale projects overcome infrastructure constraints and keep development moving.

The Era of "Grid-First" Site Selection is Over. Pennsylvania’s newly enacted budget provisions requiring mandatory energy and water reporting for facilities over 10 MW are a clear signal: the era of unstructured grid expansion for high-density compute is closing. Across the country, states and municipalities are tightening zoning, demanding load transparency, and protecting local ratepayers. At the same time, federal regulatory frameworks like the NRC's Part 57 are accelerating the pathway for microreactors (\le 100\text{ MWe}) and low-consequence clean energy systems. The takeaways for industrial developers and data center operators in 2026 are straightforward: 🔹 Grid dependence is a project bottleneck. Waiting years for traditional utility interconnection leads to regulatory delays and municipal friction. 🔹 Behind-the-Meter (BTM) power is no longer optional. Modular, clean, and self-contained power generation isolates load and protects surrounding grids. 🔹 Environmental compliance must be native. Closed-loop cooling and compact, low-profile footprints are becoming mandatory for local land development standards. At Vanderpool Energy Design LLC, we build modular energy and infrastructure designs specifically around these regulatory realities—ensuring high-density projects achieve rapid, compliant deployment without overloading local utilities. How is your team adapting site selection strategies to meet the new 2026 state-level energy reporting and municipal land-use standards? #EnergyTransition #DataCenterInfrastructure #Microreactors #CleanEnergy #GridResilience #VanderpoolEnergyDesign #PennsylvaniaEnergy #NuclearInnovation

⚡ Are Traditional Power System Reliability Assessment Methods Still Adequate for the Emerging Grid? Power systems are changing rapidly. The traditional power system was largely characterized by dispatchable generation, relatively predictable demand, and well-defined operating conditions. Many conventional reliability assessment methods were developed around these characteristics. But the emerging power system looks very different. 🌬️ High penetration of variable renewable generation 🚗 Rapid growth of electric vehicle charging 🏠 Decarbonized Loads 📈 Greater variability and uncertainty in demand 🔌 Distributed and geographically diverse resources 🔄 Stronger interdependence between supply and demand These changes raise an important question: Can reliability assessment frameworks developed for conventional power systems adequately represent the reliability challenges of a low-carbon, highly variable, and increasingly electrified grid? A key limitation is that treating generation and demand uncertainties independently may overlook the relationships and dependencies that exist across variables and network locations. Therefore, the emerging grid requires reliability assessment frameworks that can: • Capture **variability and uncertainty** in both supply and demand • Represent **correlations between generation and demand** • Account for **spatial and nodal dependencies** across the network • Capture the impact of **renewable integration and electrification** • Evaluate reliability under changing operating conditions • Remain **computationally efficient** enough for practical planning studies The challenge is no longer simply to ask: **“Is the system reliable?”** We also need to ask: **“Is our reliability assessment methodology still appropriate for the system we are building?”** This is one of the research questions that motivates my work on **bulk power system reliability assessment for emerging low-carbon power systems**. #PowerSystems #PowerSystemReliability #RenewableEnergy #GridPlanning #EnergyTransition #PowerSystemPlanning #ElectricalEngineering #Research

Energy Vault has signed a 1.25GW Texas AI power deal using BESS, grid-forming equipment, dispatchable generation, and control software in a grid-independent architecture designed to bypass conventional interconnection delays.

As electricity demand grows and energy systems become more complex, modern transmission and distribution infrastructure has never been more critical. Jacobs is helping utilities expand transmission capacity, modernize substations and integrate new energy resources to strengthen grid resilience, using expertise across planning, engineering, program delivery and digital solutions. Explore how #OurJacobs is shaping the future of power transmission and distribution. http://jcba.co/1CCg50ZoO21 #Energy #TransmissionAndDistribution #GridModernization #Infrastructure