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              產品展廳>>產品銷售>>辰工射孔系列軟件>>辰工射孔優化系統 V3.0

              辰工射孔優化系統采用了組件技術開發,充分考慮了眾多復雜因素,通過爆炸與滲流計算,獲得井筒p-t曲線及油氣井產能,實現曲線、圖表、位圖等自由組合圖形的顯示與打印,同時可計算井底壓力變化、流量變化以及實現射孔敏感參數分析。針對常規射孔、復合射孔及動態負壓射孔在確保井筒安全的前提下,根據油氣井產能計算,優化出最經濟合理的射孔方案。

              該軟件主要應用于各大油田的試采公司、井下作業公司、采油廠地質研究所及研究院等單位。

              工藝設計:對不同情況下的復合射孔進行數值模擬,得到井筒壓力、藥劑燃燒達到峰值壓力的時間及壓力的持續作用時間(p-t曲線),并判斷井筒安全狀況及起裂狀況,為射孔工藝設計提供理論依據。

              穩態產能:已知射孔深度、射孔密度、射孔相位角、地層各相異性、射孔孔眼半徑等參數,計算實際油氣井的生產能力,同時給出表皮系數(射孔表皮、損害表皮、總表皮)等。

              瞬態產能:針對致密油氣井,產能難以穩定,給出不同時間下的產能曲線。

              井底流壓:在已知流量的情況下,根據不同的地質條件及生產方式,計算井底壓力隨時間變化。

              計算產量:給定井底流壓,計算油氣井流量隨時間的變化情況。

              射孔優化:給定某種射孔槍,進行射孔優化設計,即在射孔深度、地層各相異性、射孔孔眼半徑已知的情況下,計算射孔密度、射孔相位角、射孔格式不同時油氣井的生產能力,以便選出最佳經濟效益的射孔方案。

              敏感分析:已知射孔深度等參數,計算不同壓力下流量隨時間的變化曲線,同時給出不同射孔參數對射孔產率比(敏感參數分析)的影響。

              動態負壓射孔:通過快速吸收井筒內的殘余爆轟能,使井筒內壓力在射孔后瞬間下降,產生瞬間沖擊回流,沖洗射孔孔道及孔道周圍壓實帶,從而解除壓實,提高油氣井產量。

              測井曲線:根據測井曲線確定含油氣段,由此進行射孔,并將射孔段與測井曲線繪制在同一圖上。

              圖1 工藝設計界面 圖2 穩定產能界面 圖3 瞬態產能界面 圖4 井底流壓界面 圖5 計算產量界面 圖6 射孔優化界面 圖7 敏感分析界面 圖8 動態負壓p-t曲線 圖9 測井曲線界面

              Products>>Products on Sale>>Chengong Perforation Software Series>>Chengong Perforation Optimization System V3.0

              The perforation optimization system adopts component technology to develop and fully consider many complex factors. Through explosion and seepage calculation, the wellbore p - t curve and oil and gas well productivity are obtained, and the display and print of free combination graphics such as curve, chart, bitmap and so on can be realized. At the same time, the variation of bottom hole pressure, the change of flow rate can be calculated and the analysis of perforation sensitive parameters can be realized. According to the productivity calculation of oil and gas wells, the most economical and reasonable perforation scheme is optimized for conventional perforation, compound perforation and dynamic negative pressure perforation on the premise of ensuring the safety of wellbore.

              The software is mainly used in oil field test production companies, downhole operation companies, oil production plant geological research institute and other units.

              The process design: The numerical simulation of the composite perforation in different cases is carried out to obtain the wellbore pressure and the reagent combustion time to the peak pressure and the sustained action time of the pressure (p-t curve), the safety condition and the fracturing condition of the wellbore are determined, and the theoretical basis for the design of the perforation process is provided.

              Steady-state capacity: The parameters such as perforation depth, the perforation density, the perforation phase angle, the anisotropy of each phase of the formation, the radius of the perforation hole, etc., are known, the productivity of the actual oil and gas well is calculated, and the skin factor (the perforation skin, the damaged skin, the total skin and so on) are given.

              Transient production capacity: For dense oil and gas well, the production capacity is unstable, and the production capacity curves at different time are given.

              Bottom hole pressure: Under the condition of known flow, the bottom hole pressure changes with time according to different geological conditions and production mode is calculated.

              Calculate the output: Given the bottom-hole flow pressure, the change of the oil-gas well flow over time is calculated.

              Perforation optimization: A certain perforating gun is given, and the perforation optimization design is carried out, namely, oil/gas well productivity with different perforation density, perforation phase angle and perforation format are calculated under the condition that the perforation depth, the anisotropy of each phase of the formation and the radius of the perforation hole are known, So as to select the best economic benefit perforation scheme.

              Sensitive analysis: The parameters such as the perforation depth are known, and the curve of the flow over time under different pressures is calculated, and the effect of different perforation parameters on the perforation production ratio (sensitive parameter analysis) is also given.

              Dynamic negative pressure perforation: Through the rapid absorption of the residual detonation energy in the well bore, the pressure in the well bore can be reduced instantly after the perforation, resulting in an instantaneous impact reflux, the flushing of the perforation tunnel and the surrounding compact belt of the channel, thereby releasing the compaction and improving the oil and gas well production.

              Logging curve: The oil and gas section is determined according to the logging curve, and the perforation is carried out, and the perforation section and the logging curve are plotted on the same graph.

              Figure1: Process design interface Figure2: Stable productivity interface Figure3: Transient productivity interface Figure4: Bottom hole flowing pressure interface Figure5: Production calculation interface Figure6: Perforation optimization interface Figure7: Sensitivity analyze interface Figure8: Dynamic negative pressure p-t curve Figure9: Well testing curve interface
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