The estimation of erosion thickness is a foundation for studying palaeostructural characteristic, modeling source rock thermal evolution history and analyzing palaeo-fluid potential.
剥蚀厚度估算是进行古构造特征研究、烃源岩热演化史模拟和古流体势分析的重要基础工作。
Based on the movement laws of fluids, the concept of fluid potential is set up and the computing formulae are obtained.
基于流体运动规律，建立了流体势的概念，并给出了计算公式。
Based on the plane and section isoline of fluid potential, the distribution features of liquid flow in the studied areas were analyzed.
在编制流体势平面和剖面等值线图的基础上，分析研究区的流体势分布特征。
The underground dynamic fluid field, i. e. fluid potential, is a fundamental factor to control migration and accumulation of hydrocarbon.
控制烃类运移和聚集的根本因素是地下流体动力场，即地下流体势。
The driving force of primary migration is mainly abnormal high pressure and that of secondary migration is buoyance and fluid potential difference.
初次运移的动力主要是异常高压，二次运移的动力主要是浮力和流体势差。
The underground dynamic fluid field, i. e. underground fluid potential, is an essential factor to control migration and accumulation of hydrocarbons.
控制烃类运移和聚集的根本因素是地下流体动力场，也就是地下流体势。
The energy field study should be stressed on the restoration of Palaeo fluid potential in 3 D hydrocarbon source rock masses and fluid passage systems.
在进行能量场分析时，应注重在三维烃源岩体和流体输导体系发育的格架下，恢复古流体势。
An improved fluid potential analysis method is brought forward in order to determine the migration direction and to improve the accuracy of accumulation area.
为了提高确定油气运移方向及汇聚区的精度，提出了改进的流体势能场分析方法。
This paper presents this system, including studies of source rock analysis, conducting network, fluid potential, abnormal pressure and fluid tracer techniques.
论述了流体输导体系的研究流程，包括源岩分析、输导网络、流体势、异常压力以及流体示踪技术的研究等。
The profitable reservoirs, long-term developed low fluid potential localities and excellent trap conditions are the most favorable controlling factors for hydrocarbon reservoirs in this area.
而有利储集带，长期发育的低势区，良好的圈闭条件是此区成藏最有利的控制因素。
Fluid potential was a main control for petroleum migration.
流体势场是控制油气二次运移的主要因素。
Fluid potential was a main control for petroleum migration.
流体势场是控制油气二次运移的主要因素。
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