Urgent verification is needed for energy storage feasibility, for this reason, this paper combines the development history of CAES technology to research on the site selection of depleted gas reservoirs (DGR), reservoir dynamic sealing evolution mechanism, and high flow rate CAES injection and extra
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Accurate evaluation of gas content is the basis for formulating the entire gas field development plan and evaluating development potential. In the reservoir, shale gas exists
In light of the above, this study seeks to integrate the concept of cycle division with gas field development, with a view to establishing a standard definition for the various
The hydrogen energy is a renewable, high-power and high-efficiency energy carrier, which is convenient for conversion [[1], [2], [3] ina''s solar power and wind power industry is large in
The exploration and development of tight gas is a significant area of interest, yet the efficient development of this resource still faces considerable challenges. Statistical data
The depleted gas reservoirs can be used as the potential UHS targets due to its huge storage space, good sealing ability, and the existing facilities. CO 2 can be injected as the cushion gas
We also found that the number of fractures is well positively correlated with the energy storage coefficient (Esc) (Fig. 15 f). The energy storage coefficient comprehensively
Hydrogen (H2) is an attractive energy carrier to move, store, and deliver energy in a form that can be easily used. Field proven technology for underground hydrogen storage
The PG2 underground gas storage (UGS) is the first storage in oil fields which rebuilt a waterflooding reservoir. and the longitudinal sweep coefficient is 0.3. The location
The volcanic rock reservoirs in the Wangfu gas field can be subdivided into three categories by considering the energy storage coefficient. 2) Type I reservoirs mainly develop structural fractures–matrix dissolution pores,
Adu, E., Zhang, Y., Liu, D. Current situation of carbon dioxide capture storage and enhanced oil recovery in the oil and gas industry. The Canadian Journal of Chemical Engineering, 2018,
In this review, the storage capability of depleted oil and gas reservoirs has been confirmed, and factors affecting the CO 2 storage potential, including geological factors and engineering factors, are concluded. CO 2 trapping mechanisms of different storage processes in depleted oil and gas reservoirs are elaborated and divided into three stages.
Geological storage of CO 2 in depleted oil and gas reservoirs is approved due to its advantages, such as strong storage capacity, good sealing performance, and complete infrastructure.
The evaluation stages of CO 2 storage potential of depleted oil and gas reservoirs are summarized as basin selection evaluation stage, oil and gas reservoir selection evaluation stage, storage security evaluation using the bowtie method, and storage capacity calculation stage.
CO 2 storage capacities in natural gas reservoirs are significant. According to the International Energy Agency (IEA) (Wildgust, 2009) and Carbon Storage Leadership Forum (CSLF) (McKee, 2013), the worldwide CO 2 storage capacity of conventional natural gas reservoirs reaches 160–390 Gt.
The reservoir formation characteristics and CO 2 injection parameters have a key role in the underground displacement of CO 2 –natural gas, then significantly affecting enhanced gas recovery and CO 2 storage when implementing CSEGR.
The depleted gas reservoirs can be used as the potential UHS targets due to its huge storage space, good sealing ability, and the existing facilities. CO 2 can be injected as the cushion gas to reduce the hydrogen loss, improve energy storage efficiency and achieve carbon sequestration.
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