Energy flexibility and resilience analysis of demand-side energy efficiency measures within existing residential houses during cold wave event

Abergel T, Dean B, Dulac J (2021). Towards a zero-emission, efficient, and resilient buildings and construction sector: Global Status Report 2021. Paris: UN Environment and International Energy Agency.

Akdemir KZ, Kern JD, Lamontagne J (2022). Assessing risks for New England’s wholesale electricity market from wind power losses during extreme winter storms. Energy, 251: 123886.

Anderson K, Li X, Dalvi S, et al. (2021). Integrating the value of electricity resilience in energy planning and operations decisions. IEEE Systems Journal, 15: 204–214.

Boudet H, Giordono L, Zanocco C, et al. (2020). Event attribution and partisanship shape local discussion of climate change after extreme weather. Nature Climate Change, 10: 69–76.

Cañadillas-Ramallo D, Moutaoikil A, Shephard LE, et al. (2022). The influence of extreme dust events in the current and future 100% renewable power scenarios in Tenerife. Renewable Energy, 184: 948–959.

Carvallo JP, Frick NM, Schwartz L (2022). A review of examples and opportunities to quantify the grid reliability and resilience impacts of energy efficiency. Energy Policy, 169: 113185.

Chung WJ, Khattak SH, Cecinati F, et al. (2023). Resistive and capacitive technology recipes for peak cooling load reductions in the global south. Journal of Building Engineering, 67: 105900.

Colelli FP, Wing IS, De Cian E (2023). Air-conditioning adoption and electricity demand highlight climate change mitigation–adaptation tradeoffs. Scientific Reports, 13: 4413.

Erfani A, Jafarinejad T, Roels S, et al. (2024). In search of optimal building behavior models for model predictive control in the context of flexibility. Building Simulation, 17: 71–91.

Flores-Larsen S, Filippín C, Bre F (2023). New metrics for thermal resilience of passive buildings during heat events. Building and Environment, 230: 109990

Gasser P, Lustenberger P, Cinelli M, et al. (2021). A review on resilience assessment of energy systems. Sustainable and Resilient Infrastructure, 6: 273–299.

Gautam P, Piya P, Karki R (2021). Resilience assessment of distribution systems integrated with distributed energy resources. IEEE Transactions on Sustainable Energy, 12: 338–348.

Granderson J, Fernandes S, Crowe E, et al. (2023). Accuracy of hourly energy predictions for demand flexibility applications. Energy and Buildings, 295: 113297.

Guo F, van Ruijven BJ, Zakeri B, et al. (2022). Implications of intercontinental renewable electricity trade for energy systems and emissions. Nature Energy, 7: 1144–1156.

Hanna R, Marqusee J (2022). Designing resilient decentralized energy systems: The importance of modeling extreme events and long-duration power outages. iScience, 25: 103630.

He P, Liu P, Qiu Y, et al. (2022). The weather affects air conditioner purchases to fill the energy efficiency gap. Nature Communications, 13: 5772.

Homaei S, Hamdy M (2021). Thermal resilient buildings: How to be quantified? A novel benchmarking framework and labelling metric. Building and Environment, 201: 108022.

Hoseinpoori P, Olympios AV, Markides CN, et al. (2022). A whole-system approach for quantifying the value of smart electrification for decarbonising heating in buildings. Energy Conversion and Management, 268: 115952.

Hosseini M, Javanroodi K, Nik VM (2022). High-resolution impact assessment of climate change on building energy performance considering extreme weather events and microclimate— Investigating variations in indoor thermal comfort and degree-days. Sustainable Cities and Society, 78: 103634.

Hu J, Koning V, Bosshard T, et al. (2023). Implications of a Paris-proof scenario for future supply of weather-dependent variable renewable energy in Europe. Advances in Applied Energy, 10: 100134.

Jackson ND, Gunda T (2021). Evaluation of extreme weather impacts on utility-scale photovoltaic plant performance in the United States. Applied Energy, 302: 117508.

Jackson R, Zhou E, Reyna J (2021). Building and grid system benefits of demand flexibility and energy efficiency. Joule, 5: 1927–1930.

Jing R, Zhou Y, Wu J (2022). Electrification with flexibility towards local energy decarbonization. Advances in Applied Energy, 5: 100088.

Jufri FH, Widiputra V, Jung J (2019). State-of-the-art review on power grid resilience to extreme weather events: Definitions, frameworks, quantitative assessment methodologies, and enhancement strategies. Applied Energy, 239: 1049–1065.

Langevin J, Harris CB, Satre-Meloy A, et al. (2021). US building energy efficiency and flexibility as an electric grid resource. Joule, 5: 2102–2128.

Levin T, Botterud A, Mann WN, et al. (2022). Extreme weather and electricity markets: Key lessons from the February 2021 Texas crisis. Joule, 6: 1–7.

Li Y, Gao W, Gao W, Zhang X, et al. (2020). Techno-economic performance analysis of zero energy house applications with home energy management system in Japan. Energy and Buildings, 214: 109862.

Li Y, Zhang X, Gao W, et al. (2022). Operational performance and grid-support assessment of distributed flexibility practices among residential prosumers under high PV penetration. Energy, 238: 121824.

Li Y, Gu Y, Li Z, et al. (2023a). Study on the challenge and influence of the built thermal environment on elderly health in rural areas: Evidence from Shandong, China. Building Simulation, 16: 1345–1360.

Li Y, Jia Z, Zhang X, et al. (2023b). Energy flexibility analysis and model predictive control performances of space heating in Japanese zero energy house. Journal of Building Engineering, 76: 107365.

Li Y, Zhang X, Xiao F, et al. (2023c). Modeling and management performances of distributed energy resource for demand flexibility in Japanese zero energy house. Building Simulation, 16: 2177–2192.

Liu L, He G, Wu M, et al. (2023a). Climate change impacts on planned supply–demand match in global wind and solar energy systems. Nature Energy, 8: 870–880.

Liu Z, Chen Y, Yang X, Yan J (2023b). Power to heat: Opportunity of flexibility services provided by building energy systems. Advances in Applied Energy, 11: 100149.

López-García E, Lizana J, Serrano-Jiménez A, et al. (2022). Monitoring and analytics to measure heat resilience of buildings and support retrofitting by passive cooling. Journal of Building Engineering, 57: 104985.

Neto AH, Durante LC, Callejas IJA, et al. (2022). The challenges on operating a zero net energy building facing global warming conditions. Building Simulation, 15: 435–451.

O’Brien W, Bennet I (2016). Simulation-based evaluation of high-rise residential building thermal resilience. ASHRAE Transactions, 122(1): 455–468.

O’Shaughnessy E, Shah M, Parra D, et al. (2022). The demand-side resource opportunity for deep grid decarbonization. Joule, 6: 972–983.

Okubo H, Shimoda Y, Kitagawa Y, et al. (2022). Smart communities in Japan: Requirements and simulation for determining index values. Journal of Urban Management, 11: 500–518.

Perera ATD, Nik VM, Chen D, et al. (2020). Quantifying the impacts of climate change and extreme climate events on energy systems. Nature Energy, 5: 150–159.

Roudbari A, Nateghi A, Yousefi-khanghah B, et al. (2021). Resilience-oriented operation of smart grids by rescheduling of energy resources and electric vehicles management during extreme weather condition. Sustainable Energy, Grids and Networks, 28: 100547.

Sengupta A, Al Assaad D, Bastero JB, et al. (2023). Impact of heatwaves and system shocks on a nearly zero energy educational building: Is it resilient to overheating? Building and Environment, 234: 110152.

Sepúlveda-Mora SB, Hegedus S (2022). Resilience analysis of renewable microgrids for commercial buildings with different usage patterns and weather conditions. Renewable Energy, 192: 731–744.

Shaffer B, Quintero D, Rhodes J (2022). Changing sensitivity to cold weather in Texas power demand. iScience, 25: 104173.

Shen B, Kahrl F, Satchwell AJ (2021). Facilitating power grid decarbonization with distributed energy resources: Lessons from the United States. Annual Review of Environment and Resources, 46: 349–375.

Sheng M, Reiner M, Sun K, et al. (2023). Assessing thermal resilience of an assisted living facility during heat waves and cold snaps with power outages. Building and Environment, 230: 110001.

Shi Q, Liu W, Zeng B, et al. (2022). Enhancing distribution system resilience against extreme weather events: Concept review, algorithm summary, and future vision. International Journal of Electrical Power & Energy Systems, 138: 107860.

Sun K, Specian M, et al. (2020). Nexus of thermal resilience and energy efficiency in buildings: A case study of a nursing home. Building and Environment, 177: 106842.

Sun K, Zhang W, Zeng Z, et al. (2021). Passive cooling designs to improve heat resilience of homes in underserved and vulnerable communities. Energy and Buildings, 252: 111383.

Triolo RC, Rajagopal R, Wolak FA, et al. (2023). Estimating cooling demand flexibility in a district energy system using temperature set point changes from selected buildings. Applied Energy, 336: 120816.

van der Wiel K, Stoop LP, van Zuijlen BRH, et al. (2019). Meteorological conditions leading to extreme low variable renewable energy production and extreme high energy shortfall. Renewable and Sustainable Energy Reviews, 111: 261–275.

Wald D, Johnson K, King J, et al. (2023). Shifting demand: reduction in necessary storage capacity through tracking of renewable energy generation. Advances in Applied Energy, 10: 100131.

Wang S (2016). Making buildings smarter, grid-friendly, and responsive to smart grids. Science and Technology for the Built Environment, 22: 629–632.

Wang J, El Kontar R, Jin X, et al. (2023). Decarbonizing all-electric communities via carbon-responsive control of behind-the-meter resources. Advances in Applied Energy, 10: 100139.

Wu D, Zheng X, Menati A, et al. (2022). How much demand flexibility could have spared texas from the 2021 outage? Advances in Applied Energy, 7: 100106.

Xiao D, Lin Z, Chen H, et al. (2024). Windfall profit-aware stochastic scheduling strategy for industrial virtual power plant with integrated risk-seeking/averse preferences. Applied Energy, 357: 122460.

Yan J (2022). Energy transition: Time matters. Advances in Applied Energy, 5: 100082.

Zhang X, Gao W, Li Y, et al. (2021). Operational performance and load flexibility analysis of Japanese zero energy house. International Journal of Environmental Research and Public Health, 18: 6782.

Zhang W, Yan C, Xu Y, et al. (2022). A critical review of the performance evaluation and optimization of grid interactions between zero-energy buildings and power grids. Sustainable Cities and Society, 86: 104123.

Zhang L, Feng G, Li A, et al. (2023). Comprehensive evaluation and analysis of a nearly zero-energy building heating system using a multi-source heat pump in severe cold region. Building Simulation, 16: 1949–1970.

Zhou S, Han Y, Zalhaf AS, et al. (2023). A novel multi-objective scheduling model for grid-connected hydro-wind-PV-battery complementary system under extreme weather: A case study of Sichuan, China. Renewable Energy, 212: 818–833.