How Energy Sharing Improves Grid Performance

Electricity demand is up. Prices are up. The risk of blackouts is up. We need new solutions and California is showing us a big one: In 2022, California set up a new program to incentivize flexible energy use during the grid’s most vulnerable months (May–October). Energy consumers get paid to either provide extra power to the grid or throttle consumption when the grid needs it. What does this look like in practice? – Homeowners with solar and batteries send stored power back to the grid. – Office buildings precool in the morning, then ease HVAC loads later in the day. – Warehouses and refrigerated facilities pre-chill storage and cut compressor use during events. – Schools and public buildings turn down lighting, A/C zones, or EV chargers. Everyone gets paid for supporting the grid. And even Californians who don’t participate still benefit from fewer blackouts, reduced reliance on expensive fossil peakers, and lower emissions. In 2024, over 265,000 participants provided more than 500 MW of flexible capacity — already the scale of a large power plant. To recap: California gets a more reliable, cleaner grid. Energy users get paid for flexibility. Average Californians benefit from cheaper electricity and fewer outages. A win-win-win. This isn’t just the future — it’s already happening. Now it’s time to expand these programs to support the grid 24/7, not just during stress events. https://lnkd.in/enqaY8_q

In an increasingly interconnected world, energy is not just about kilowatts — it’s about solidarity, shared prosperity, and regional resilience. Central Asia — home to Kazakhstan, Kyrgyzstan, Tajikistan, Turkmenistan, and Uzbekistan — is uniquely positioned at the crossroads of energy potential. Together, we are not just producers and consumers; we are partners in shaping a secure, efficient, and sustainable energy future. Here’s why regional electricity interconnection matters: 🔹 Economic Growth & Efficiency:Cross-border transmission enables countries to trade power more effectively, reducing the need for costly backup generation and optimizing the use of renewable capacity across borders. This means lower electricity prices for businesses and households and a stronger investment climate. 🔹 Grid Stability & Energy Security:Interconnected networks are more resilient. When one system faces peak demand or unforeseen outages, regional partners can step in — preventing blackouts, stabilising supply, and enhancing reliability across all five nations. 🔹 Maximising Renewable Potential:Central Asia has abundant renewable resources — hydropower in Tajikistan and Kyrgyzstan, solar in Turkmenistan and Uzbekistan, and wind in Kazakhstan. A shared grid allows countries to dispatch energy where and when it’s most needed, accelerating the region’s green transition and reducing carbon emissions. 🔹 Strengthening Solidarity & Regional Cooperation:Energy interconnection builds trust. Shared infrastructure projects foster diplomatic ties, encourage policy alignment, and open doors for broader economic cooperation. This is not just power trade — it’s peace and partnership in action. 💡 Where do we go from here? Some practical recommendations: ✔ Harmonize regulations & market rules to reduce barriers to cross-border electricity trade.✔ Invest in modern grid infrastructure and smart systems that can handle two-way flows and variable renewables.✔ Leverage multilateral financing and PPPs to share risk and unlock capital for large-scale interconnection projects.✔ Prioritize data and transparency through regional platforms that forecast demand and supply in real time.✔ Build institutional frameworks that support dispute resolution, pricing mechanisms, and interoperable technical standards. 🌍 When we power each other, we power progress. Central Asia’s future is brighter, cleaner, and more prosperous when we connect, collaborate, and trade with purpose. Let’s keep the lights on — together. 💪⚡💡🇹🇲🇰🇿🇰🇬🇺🇿🇹🇯 #CentralAsia #EnergyTransition #PowerTrade #RegionalCooperation #ElectricityInterconnection #Renewables #SustainableGrowth

This study introduces an innovative optimization and energy management system designed for a network of interconnected microgrids featuring intermittent non-polluting generators, renewable resources, battery storage, and diesel generators. The interconnected cluster, operating off-grid, leverages community microgrids to enhance power performance through mutual and bidirectional power exchange. By integrating non-polluting generators, battery storage, and power exchange, the reliance on diesel generators is minimized, leading to reduced operational costs and fuel consumption within the cluster. To prevent simultaneous bidirectional power exchange between microgrids, a bidirectional power exchange mechanism is proposed. The optimization and energy management processes take into account the transmission distance, conducting case studies for varying levels of renewable energy penetration and demand response across hourly and day-ahead operations. The study's outcomes demonstrate that the proposed methodology presents optimal solutions for efficiently operating the cluster while ensuring effective power exchange at minimal operational costs and fuel consumption. The research findings reveal that the optimized interconnected hybrid microgrids significantly decrease daily operational costs and fuel consumption by 6.74% and 4.33%, respectively, compared to hybrid microgrids lacking power exchange. Furthermore, these interconnected microgrids exhibit a substantial improvement compared to isolated microgrids solely reliant on renewable energy and diesel generators, with reductions of 24.44% in operational costs and 54.30% in fuel consumption.

I had the opportunity to visit a geothermal multi unit residential building project in Prince Edward Island following a tech talk I did with some absolutely amazing folks. The site we visited was a strong example of how design choices directly influence grid performance. The project uses a central water to water geothermal unit for domestic hot water, paired with in suite console units for space heating and cooling. Each suite is served by a ground source heat pump connected to a shared ground loop. From a grid perspective, this configuration is notable because it fundamentally reshapes how electrical demand shows up during peak conditions. A geothermal unit draws a stable electrical load across the heating and cooling season because the source temperature remains constant. Typical annual average COP's for ground source heat pumps in this type of application are commonly >3, and critically they do not collapse during cold weather events. As outdoor temperatures fall, heating capacity and efficiency remain consistent, and electrical draw does not spike. At the suite level this may appear incremental, but when aggregated across an entire building the effect is meaningful. Coincident winter peak demand is reduced, and the building’s electrical profile becomes flatter and more predictable, helping smooth the winter portion of the grid’s duck curve rather than deepening peak ramps. Best of all... the occupants are COMFORTABLE. This matters because grid infrastructure is sized to meet short duration peak events rather than average consumption. By limiting load escalation during the coldest hours, this design reduces stress on generation, transmission, and local distribution assets. In practical terms, electrified heating is delivered without introducing sharp demand spikes that drive capacity expansion and long term system costs. Ground source heat pumps are often evaluated primarily on upfront cost, without accounting for their grid value, peak demand benefits, and lifecycle performance. They are not a replacement for other heat pump technologies. All heat pump technologies have a role to play across retrofit and new construction. Prince Edward Island has been thoughtful in how it approaches electrification, and this project reflects an understanding that grid outcomes are shaped by system level performance, not just annual energy use or emissions intensity. Distributed geothermal at the suite level, supported by a shared thermal resource, aligns building electrification with grid stability objectives. After the talk, I was able to tour the building, review the mechanical room layout, and exchange practical observations. It was a valuable opportunity to see how design intent translated into installed systems and operational strategy. It was encouraging to see this level of technical execution in Prince Edward Island. #hvac #comefromaway #heatpumps #geothermal #gshp

Neighborhood Power: What L.A. Firestorms Taught Us About Energy Independence Recent wildfires in Los Angeles left 4 million energy customers without power for days. But scattered throughout affected neighborhoods, an unexpected phenomenon emerged: homes with solar panels and battery storage became "energy oases" where neighbors found refuge, charged devices, and accessed essential services. Here's why this matters for everyone, not just those in fire-prone regions: 1. The Shifting Role of Homes in Energy Resilience - Traditional emergency response relies on centralized infrastructure that often fails during disasters - Solar-powered homes are functioning as micro-power stations during grid outages - Technology that was once considered a luxury is becoming essential community infrastructure - Simple solutions like extension cords create impromptu neighborhood microgrids 2. The Changing Demographics of Clean Energy Adoption - Lawrence Berkeley National Laboratory found 60% of new solar adopters in California are now low/middle-income households - 52% are families of color, challenging conventional assumptions about who benefits from clean energy - The motivation is shifting from environmental idealism to practical resilience and economic security - Communities previously left out of the clean energy transition are increasingly participating 3. The Economic Impact Beyond Individual Homes - Home solar systems delivered $1.5 billion in grid savings to all California ratepayers in 2024 - These systems reduce peak demand stress when the grid is most vulnerable - Benefits extend to all utility customers regardless of whether they have solar themselves - The value goes far beyond emergency backup—it's improving overall grid performance Real examples show how this plays out in communities. When the L.A. firestorms hit, Scott Liggett's home became a neighborhood haven: "I found my elderly neighbor outside, wandering around kind of dazed, so I brought her over to my house and warmed her up, got her some coffee, and hooked up her cell phone." Another resident, Richard Olague, maintained power for 72 hours while neighbors relied on candles: "Not only was it comforting to us, but also being able to provide for our friends and neighbors." These experiences reveal an emerging reality: as extreme weather events become more common, the resilience of our communities increasingly depends on distributed energy resources that can function when centralized systems fail. #EnergyResilience #SolarPower #CommunityResilience #ClimateAdaptation

Homes with #solarpanels and #batterystorage are evolving into self-reliant hubs, generating #cleanenergy and reducing dependency on centralized power. As demonstrated during Hurricane Fiona, where Sunnova Energy provided 128 hours of backup power per household, this shift both empowers homeowners and holds immense benefits for the grid. According to the U.S. Department of Energy (DOE), meeting 2035’s energy demands requires a substantial increase in regional transmission capacity, ranging from 26% to 119%. Not to mention, delays in transmission interconnections for generation assets have extended the average queue time to 5 years. Microgrids or minigrids can help manage regional supply and, when combined with demand side management, can be even more effective. Rather than viewing the widespread adoption of DERs merely as a load to be managed, we can rethink the current paradigm and view it as an opportunity to enhance the grid's resiliency and flexibility. By fostering a distributed energy model, where energy is generated and stored locally, the strain on traditional transmission infrastructure is significantly reduced and lessens the load on the grid, reducing the likelihood of blackouts.