产品展厅>>产品销售>>辰工油藏数值模拟系列软件>>自适应精细历史拟合一体化平台 V1.0

软件基于ECLIPSE的水驱精细历史拟合暨措施调整挖潜辅助决策平台,研究分层(段)拟合技术,提高历史拟合精度;实现自动化后处理功能,自动提取多学科油藏研究成果并进行分析和处理,转换成动态分析工作需要的数据、图形等格式;准确识别剩余油类型、可挖潜剩余油富集部位和规模;通过人机交互方式形成调整挖潜方案数据流并进行方案优选,从而顺利地推进转变多学科油藏研究工作模式的进程。

软件基于ECLIPSE的水驱精细历史拟合暨措施调整挖潜辅助决策平台,研究分层(段)拟合技术,提高历史拟合精度;实现自动化后处理功能,自动提取多学科油藏研究成果并进行分析和处理,转换成动态分析工作需要的数据、图形等格式;准确识别剩余油类型、可挖潜剩余油富集部位和规模;通过人机交互方式形成调整挖潜方案数据流并进行方案优选,从而顺利地推进转变多学科油藏研究工作模式的进程。软件能够解决长期以来困扰着ECLIPSE软件的难以分层(段)注水拟合问题,能实现高效、快速分层(段)历史拟合,建立基于专家经验的历史拟合平台,实现历史拟合从误差分析到调整再到运算的一体化、高效化,提高水驱历史拟合的精度与效率。此外,建立快速、便捷、易用的后处理功能,在平台上实现动用状况分析、剩余油分析与措施挖潜的一体化,降低应用“门槛”,是实现“精准描述”这一目标的有力保证,具有广泛的推广应用价值。

软件以分层测试资料和吸水剖面资料为约束,形成分层(段)注水量观测系统,对注水井进行分层(段)历史拟合,提高其连通的采油井的模拟精度。软件依据误差理论,计算全区、井网、单井和沉积单元拟合指标的误差,结合专家经验建立参数调整模板,运用数值分析方法研究基于ECLIPSE软件的分层(段)历史拟合技术;通过定量化描述与计算机图形识别技术相结合的方法来判别剩余油类型;以剩余油类型和量化成果为基础,选择需要进行调整挖潜的单井及其相应的调整措施挖潜方式,形成数值模拟数据流,自动发送作业、提取方案预测结果,进行方案优选。主要功能模块如下:

模拟成果分类存储模块

读取ECLIPSE数值模型文件和成果,包括PRT、INC等类型的文件。

按照静态信息、油藏参数信息、动态信息、拟合信息、过程信息进行分类存储。

历史拟合误差分析模块

依据误差理论计算全区、不同井网、单井和沉积单元的拟合指标误差。

对误差分析结果进行图形显示,包括对比曲线、旋风图、饼图等。

对拟合结果进行误差分析,找出拟合误差较大的单井以及沉积单元。

根据参数拟合调整需求,对指标误差结果的分类、排序及计算等操作。

分层历史拟合模块

单井注水量劈分。

基于单层拟合指标误差的拟合参数调整。

调用ECLIPSE模拟器进行试算。

调用历史拟合误差分析模块对拟合结果进行误差分析。

单井注水量劈分结果加载。

分层拟合试算方案生成。

调用模拟成果分类存储模块读取拟合结果。

历史拟合辅助工具模块

全区、井网、单井及分层拟合结果的曲线显示。

调整参数选取方式、编辑面板。

建立专家经验模板。

开发属性场数据计算器。

多个方案单井单层拟合值与分层劈分值的剖面对比,协同显示对应方案所调整参数及修正值,以便拟合误差分析。

作业调度管理模块

基于模拟器许可数量及计算机硬件配置的多作业同时发送。

作业进程管理。

作业进程中的指标拟合误差实时反馈、监测。

后处理模块

以二维加等值线图形方式显示模型。

地质参数统计,如钻遇率、渗透率级差等。

开发指标计算,如注采比、水驱控制程度等。

根据用户定义的条件,对图形进行筛选,并能够输出。

实现数据图形一体化,点击图形即出相关的数据。

动用状况分析模块

对全区、井组、用户指定的区域进行动用状况分析。

实现按油层组、砂岩组、沉积单元的动用状况分析。

单井单层动用状况分析。

按沉积微相、渗透率分级、有效厚度分级进行动用状况分析。

可挖潜剩余油分析模块

可挖潜剩余油界限的确定。

单井可挖潜剩余油富集部位的量化。

形成可挖潜剩余油数据库。

可挖潜剩余油富集部位的确定。

识别可挖潜剩余油类型。

可挖潜剩余油的编辑、索引。

调整挖潜辅助决策模块

对调整挖潜方案辅助决策方案进行管理。

调用作业调度管理模块发布作业。

多方案的预测曲线对比。

根据措施筛选条件,进行单井措施预选,形成预测方案数据流。

自动提取方案优化结果,以曲线、表格等信息显示。

图1 全区日产油、综合含水拟合曲线 图2 分层(段)注水观测系统 图3 分层(段)拟合曲线图 图4 注水井分层(段)误差 图5 专家经验模板 图6 剩余油平面分布状况

Products>>Products on Sale>>Chengong Oil Reservoir Numerical Simulation Software Series>>Self-Adaptive Fine Historical Simulation Integrated Platform V1.0

The software is based on the ECLIPSE-based of fine water flooding historical simulated production technology to adjust the assisted potential exploitation decision making platform, the stratification (segment) simulation technology is studied, the historical simulation precision is increased, the automatic after-processing function is realized, the research results of the multi-disciplinary oil reservoir are automatically extract and the analysis and treatment are processed, the format of data/graph and so on required for dynamic analysis working are converted ,the type of the residual oil, and potential exploitation allowed residual oil enrichment part and scale are identified accurately; and forming and adjusting the data flow of the potential exploitation scheme through the human-machine interaction mode and carrying out the scheme optimization, So that the process of changing the working mode of the multi-disciplinary oil reservoir research is smoothly promoted.

The software solve the problem which troubles ECLIPSE software for a long time that stratification (segment) water injection simulation is hard to realize, realizing the historical simulation of high efficiency and fast stratification (segment), establishing a historical simulation platform based on expert experience, realizing the integration and high efficiency of the historical simulation from the error analysis to the adjustment and the calculation, It can improve the precision and efficiency of the water flooding history simulation. In addition, a quick, convenient and easy-to-use post-processing function is established, the integrations of the utilization status analysis, residual oil analysis and the potential exploitation measures are realized on platform, the application threshold is reduced, it is a strong guarantee for realizing the goal of precise description, and has wide popularization and application value.

The software takes the stratification test data and the water absorption profile data as the constraints, forms the stratification (section) water injection observation system, carries on the stratification (section) historical simulation to the water injection well, and improves the simulation accuracy of the connected production well. According to the error theory, the software calculates the error of the simulation index of the whole area, well pattern, single well and sedimentary unit, establishes the parameter adjustment template combined with expert experience, studies the stratification (segment) historical simulation technology based on ECLIPSE software by numerical analysis method, and distinguishes the remaining oil type by combining quantitative description with computer graphic recognition technology. Based on the remaining oil types and quantitative results, the single well which needs adjustment potential exploitation and its corresponding adjustment potential exploitation measures are selected to form the numerical simulation data flow, automatically send the work and extract the prediction results of the scheme, and optimize the scheme. The main functional modules are as follows:

Simulation results classification and storage module

Read the ECLIPSE numerical model file and results, including the types of files of PRT, INC.

Classification and storage according to the static information, the reservoir parameter information, the dynamic information, the simulation information and the process information.

Historical simulation error analysis module

Calculating the simulation index error of the whole region, the different well network, the single well and the deposition unit according to the error theory.

Carrying out error analysis on the simulation result, finding the single well and the deposition unit with larger simulation error.

Graphic display of the error analysis results, including the contrast curve, the cyclone, the pie chart, etc.

According to the parameter simulation, adjust the requirement, the classification, sequencing and calculation of the index error result are carried out.

Stratified historical simulation module

The water injection quantity of single well is split.

The single well water injection quantity is split and the result is loaded.

Adjusting the simulation parameter based on the single-layer simulation index error.

The stratified simulation trial calculation scheme is generated.

Calling ECLIPSE simulator for trial calculation.

Calling the simulation result classification storage module to read the simulation result.

Calling the historical simulation error analysis module to carry out error analysis on the simulation result.

Historical simulation auxiliary tool module

Curve display of the whole area, well network, single well and stratified simulation results.

Establish expert experience template.

Adjust the parameter selection mode and the edit panel.

Development of the property field data calculator.

Profile comparison of the single-layer single-well simulation value and multi-layers spilt value of multiple schemes, and the adjustment parameters and the correction values of the corresponding scheme are cooperatively displayed so as to simulate the error analysis.

Work dispatching management module

The multi-work based on the permission number of the simulator and the computer hardware configuration is simultaneously transmitted.

Real-time feedback and monitoring of the index simulation error in the working process.

Management of working process.

After-processing module

Display the model in a two-dimensional and isogram diagram.

The graph is screened according to the user-defined condition and can be output.

Statistics of geological parameters, such as drilling rate, permeability differential, etc.

Realizing the integration of the data and graph, clicking the graph to obtain the relevant data.

Development index calculation, such as injection/production ratio, water flooding control degree, etc.

Utilization status analysis module

Analyze the utilization status of designated areas of the whole area, well group and users.

Single-well single-layer utilization condition analysis.

The utilization condition analysis of the oil layer group, the sandstone group and the deposition unit is realized.

Performing the utilization status analysis according to the sedimentary microfacies, the permeability grade and the effective thickness classification.

Residual oil analysis module of allowed potential exploitation.

Determination of the limit of the potential exploitation allowed residual oil.

Determination of the rich part of the potential exploitation allowed residual oil.

Quantification of the rich part of the single well potential exploitation allowed residual oil.

Identify the type of potential exploitation allowed residual oil.

Forming a potential exploitation allowed residual oil database.

The editing and index of the potential exploitation allowed remaining oil.

Adjust the assisted potential exploitation decision-making module

To manage the adjustment of assisted potential exploitation decision-making scheme.

Pre-selecting single well measures according to the screening conditions of the measures to form a prediction scheme data stream.

Calling a job scheduling management module to issue a job.

The optimization result of the scheme is automatically extracted, and the information such as the curve and the table are displayed.

Comparison of the prediction curves of the multi-scheme.

Figure1: Daily oil production comprehensive water cut fitting curve in the whole region Figure2: Stratified (segmented) water injection observation system Figure3: Stratified (segmented) simulation curve chart Figure4: Stratified (segmented) error of water injection wel Figure5: Expert experience template Figure6: Plane distribution condition of the residual oil