Using FCAW with Electrodes Based on Fe-Ti-Mo-B-C System for Increasing of Durability of Junk Removal Tools

O. Ivanov, P. Prysyazhnyuk, L. Romanyshyn, T. Romanyshyn, Yurii Mosora
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Abstract

Abstract In this work were analyzed factors and working conditions that leads to the wearing of junk mills tools that are a part of junk removal equipment used in drilling and workover of borehole. Such equipment is a part of oil and gas industry and work under condition of intense abrasive wearing with increased pressures and cyclic loads. Was established that traditional hardfacing materials based on the Fe-Cr-C system are not effective for improvement of abrasion resistance of elements of such equipment due to their low crack resistance and low hardness of chromium carbides. The aim of this work was to increase a durability of that equipment by using of flux cored electrodes with reaction components of pure metal powders, which leads to forming the fine-grained structure with increased hardness. Powders of Ti, Mo, B4C and their combinations were used. Structures of the hardfacing coatings were investigated by method of metallography, scanning electron microscopy (SEM). Abrasion wear tests were held under condition of fixed and non-fixed abrasion. Using of pure metal powders led to formation of a fine-grained structure with grains of Mo2FeB2 that forms around TiC, which work as modifier. It was investigated that the researched material based on Fe-Ti-Mo-C-B system that was used for increasing the wear resistance of junk mills led to increasing of the TBO period in 1.5-1.6 times comparing with serial hardfacing materials based on tungsten.
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基于Fe-Ti-Mo-B-C体系电极的FCAW提高垃圾清除工具的耐久性
摘要:本文分析了在井眼钻井、修井作业中,排屑机刀具磨损的影响因素和工作条件。这种设备是石油和天然气工业的一部分,在压力和循环载荷增加的强烈磨料磨损条件下工作。基于Fe-Cr-C体系的传统堆焊材料,由于其抗裂性低、碳化物硬度低,无法有效提高该类设备元件的耐磨性。这项工作的目的是通过使用纯金属粉末的反应成分的助焊剂芯电极来增加设备的耐久性,从而形成具有更高硬度的细晶粒结构。采用Ti、Mo、B4C及其组合粉末。采用金相、扫描电镜等方法对堆焊涂层的组织进行了研究。在固定和非固定磨损条件下进行了磨耗试验。使用纯金属粉末可以形成细晶结构,其中Mo2FeB2颗粒在TiC周围形成,作为改性剂。研究表明,采用Fe-Ti-Mo-C-B系堆焊材料提高磨砂机的耐磨性,其TBO周期比钨系堆焊材料提高1.5 ~ 1.6倍。
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