An economy and reliability co-optimization planning method of adiabatic compressed air energy storage for urban integrated energy system

2021 ◽  
Vol 40 ◽  
pp. 102691
Author(s):  
Binxin Yin ◽  
Yaowang Li ◽  
Shihong Miao ◽  
Yujun Lin ◽  
Haipeng Zhao
Keyword(s):  
Energy Storage ◽  
Energy System ◽  
Planning Method ◽  
Compressed Air ◽  
Compressed Air Energy Storage ◽  
Integrated Energy System

scholarly journals A Robust Operation Method with Advanced Adiabatic Compressed Air Energy Storage for Integrated Energy System under Failure Conditions

Machines ◽  
2022 ◽  
Vol 10 (1) ◽  
pp. 51
Author(s):  
Rong Xie ◽  
Weihuang Liu ◽  
Muyan Chen ◽  
Yanjun Shi
Keyword(s):  
Energy Storage ◽  
Energy System ◽  
Integrated System ◽  
Compressed Air ◽  
Stable Operation ◽  
Compressed Air Energy Storage ◽  
Release Process ◽  
Operation Method ◽  
Integrated Energy System ◽  
Failure Conditions

Integrated energy system (IES) is an important direction for the future development of the energy industry, and the stable operation of the IES can ensure heat and power supply. This study established an integrated system composed of an IES and advanced adiabatic compressed air energy storage (AA-CAES) to guarantee the robust operation of the IES under failure conditions. Firstly, a robust operation method using the AA-CAES is formulated to ensure the stable operation of the IES. The method splits the energy release process of the AA-CAES into two parts: a heat-ensuring part and a power-ensuring part. The heat-ensuring part uses the high-temp tank to maintain the balance of the heat subnet of the IES, and the power-ensuring part uses the air turbine of the first stage to maintain the balance of the power subnet. Moreover, another operation method using a spare gas boiler is formulated to compare the income of the IES with two different methods under failure conditions. The results showed that the AA-CAES could guarantee the balance of heat subnet and power subnet under steady conditions, and the dynamic operation income of the IES with the AA-CAES method was a bit higher than the income of the IES with the spare gas boiler method.

Optimal Dispatching of an Energy System with Integrated Compressed Air Energy Storage and Demand Response

Energy ◽  
2021 ◽  
pp. 121232
Author(s):  
Dechang Yang ◽  
Ming Wang ◽  
Ruiqi Yang ◽  
Yingying Zheng ◽  
Hrvoje Pandzic
Keyword(s):  
Energy Storage ◽  
Demand Response ◽  
Energy System ◽  
Compressed Air ◽  
Compressed Air Energy Storage

Energy, exergy, and sensitivity analyses of underwater compressed air energy storage in an island energy system

2019 ◽  
Vol 43 (6) ◽  
pp. 2241-2260 ◽  
Author(s):  
Zhiwen Wang ◽  
Wei Xiong ◽  
Rupp Carriveau ◽  
David S.-K. Ting ◽  
Zuwen Wang
Keyword(s):  
Energy Storage ◽  
Energy System ◽  
Compressed Air ◽  
Sensitivity Analyses ◽  
Compressed Air Energy Storage

scholarly journals A MILP Model for Revenue Optimization of a Compressed Air Energy Storage Plant with Electrolysis

Energies ◽  
2021 ◽  
Vol 14 (20) ◽  
pp. 6803
Author(s):  
Ann-Kathrin Klaas ◽  
Hans-Peter Beck
Keyword(s):  
Energy Storage ◽  
Energy System ◽  
Vital Role ◽  
Compressed Air ◽  
Mixed Integer ◽  
Compressed Air Energy Storage ◽  
Market Prices ◽  
Revenue Optimization ◽  
Milp Model ◽  
Reserve Market

Energy storage, both short- and long-term, will play a vital role in the energy system of the future. One storage technology that provides high power and capacity and that can be operated without carbon emissions is compressed air energy storage (CAES). However, it is widely assumed that CAES plants are not economically feasible. In this context, a mixed-integer linear programming (MILP) model of the Huntorf CAES plant was developed for revenue maximization when participating in the day-ahead market and the minute-reserve market in Germany. The plant model included various plant variations (increased power and storage capacity, recuperation) and a water electrolyzer to produce hydrogen to be used in the combustion chamber of the CAES plant. The MILP model was applied to four use cases that represent a market-orientated operation of the plant. The objective was the maximization of revenue with regard to price spreads and operating costs. To simulate forecast uncertainties of the market prices, a rolling horizon approach was implemented. The resulting revenues ranged between EUR 0.5 Mio and EUR 7 Mio per year and suggested that an economically sound operation of the storage plant is possible.

Large-scale compressed air energy storage in porous media in a 100% renewable energy supply future

2021 ◽  
Author(s):  
Firdovsi Gasanzade ◽  
Fahim Sadat ◽  
Ilja Tuschy ◽  
Sebastian Bauer
Keyword(s):  
Renewable Energy ◽  
Energy Storage ◽  
Power Plant ◽  
Energy Supply ◽  
Renewable Energy Sources ◽  
Energy System ◽  
Compressed Air ◽  
Compressed Air Energy Storage ◽  
Operation Conditions ◽  
The Future

<p>Compressed air energy storage (CAES) in porous formations is one option to compensate the expected fluctuations in energy supply in future energy systems with a 100% share of renewable energy sources. Mechanical energy is stored as pressurized air in a subsurface porous formation using off-peak power, and released during peak demand using a turbine for power generation. Depending on share and type of renewable energy sources in the future, different storage capacities and storage power rates will have to be satisfied to compensate fluctuating nature of the renewable power supply. Therefore, this study investigates scenarios for subsurface compressed air energy storage using four potential future energy system development pathways. Because for CAES subsurface processes and power generation are strongly linked via reservoir pressure and flow rates, coupled power plant and geostorage model has to be developed and employed to evaluate potential operation conditions for such a storage technique.</p><p>In this study, a diabatic CAES is designed, with a three-stage compression and a two-stage expansion with heat recuperator in the power plant and a porous formation as a storage formation with 20 m thickness in an anticline trap structure at a depth between 700 and 1500 m. A withdrawal rate of 115 MW and a total stored energy of up to 348 GWh per year are derived from the future energy system scenarios. Scenario simulations are carried out by coupling the open-source thermal engineering TESPy code and the multiphase-multicomponent ECLIPSE flow simulator using highly fluctuating load profiles with a time resolution of one hour. In addition to the diabatic CAES, two adiabatic concepts are considered for the same geostorage configuration.</p><p>Results show that nine vertical storage wells are sufficient to deliver the target air mass flow rates required by the power plant during 98% of the year. Flow rate limitation occurs due to bottom hole pressure limits either during the injection or the withdrawal phases, depending on the specific load profile of the future energy systems, as well as the prior operation conditions. Thus, our scenario simulation shows that one porous media CAES site can cover all expected load profiles and balance the expected offsets between energy demand and energy supply up to the GWh scale. Balancing of the energy system at the national level can be achieved by up-scaling of the results obtained in this study.</p>

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