传统水力压裂的模式转变——新兴的热化学流体压裂技术

A. Al-Ghamdi, M. Al-Jawad, M. Mahmoud
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摘要

水力压裂长期以来一直是油气行业的一种成熟的增产技术,可以释放致密和非常规油藏的油气储量。两种类型的水力压裂是支撑剂压裂和酸压裂。最近,一种新的水力压裂技术正在兴起,它可以提供更高的生产/注入效果。本文对新兴的热化学流体压裂技术进行了综述。水力压裂的主要目的是破坏储层并形成裂缝,提高流体从储层基质流向井筒的能力。这是通过支撑剂压裂或酸压裂实现的。在支撑剂压裂中,储层通过水、化学物质和支撑剂(如砂)的混合物进行压裂。高压水混合物破坏了储层,支撑剂颗粒进入裂缝,保持裂缝张开,使油气流入井筒。对于酸压裂,通过盐酸(HCl)等酸对裂缝表面的腐蚀来保持裂缝的张开。一种新兴的水力压裂技术是利用热化学溶液。这些环境友好且经济高效的方法不受地表条件的影响,只能通过油藏温度或ph控制的活化技术在指定条件下在油藏中发生反应。反应后,热化学溶液进行放热反应,产生原位泡沫/气体,从而产生高达20,000 psi的原位压力和高达700华氏度的温度。据报道,热化学压裂的其他优点包括冷凝物的去除(由于放热反应温度)和毛细管压力的降低。
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Paradigm Shift in Conventional Hydraulic Fracturing - Emerging Fracturing Techniques Using Thermochemical Fluids
Hydraulic fracturing has long been an established well stimulation technique in the oil & gas industry, unlocking hydrocarbon reserves in tight and unconventional reservoirs. The two types of hydraulic fracturing are proppant fracturing and acid fracturing. Recently, a new of hydraulic fracturing is emerging which is delivering yet more enhanced production/injection results. This paper conducts a critical review of the emerging fracturing techniques using Thermochemical fluids. The main purpose of hydraulic fracturing is to break up the reservoir and create fractures enhancing the fluid flow from the reservoir matrix to the wellbore. This is historically achieved through either proppant fracturing or acid fracturing. In proppant fracturing, the reservoir is fractured through a mixture of water, chemicals and proppant (e.g. sand). The high-pressure water mixture breaks the reservoir, and the proppant particles enter in the fractures to keep it open and allow hydrocarbon flow to the wellbore. As for acid fracturing, the fractures are kept open through etching of the fracture face by acid such as Hydrochloric Acid (HCl). An emerging technique of hydraulic fracturing is through utilization of thermochemical solutions. These environmentally friendly and cost-efficient are not reactive as surface conditions, and only react in the reservoir at designated conditions through reservoir temperature or pH-controlled activation techniques. Upon reaction, the thermochemical solutions undergo an exothermic reaction generating in-situ foam/gases resulting in creating up to 20,000 psi in-situ pressure and temperature of up to 700 degrees Fahrenheit. Other reported advantages from thermochemical fracturing include the condensate bank removal (due to the exothermic reaction temperature) and capillary pressure reduction.
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