CCR伸缩缝分析

S. Kaul, R. Gohil, Parul Bisharia, Apoorva Roy
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引用次数: 0

摘要

CCR(连续催化重整)平台™工艺是霍尼韦尔UOP将低辛烷值石脑油转化为高辛烷值燃料或石化原料(如芳烃)的技术。它是在含铂催化剂的高温高压下在氢气气氛中完成的。工艺流程在反应器之间通过加热器、鼓风机和冷却器来保持反应热量。本文介绍了在CCR设备的两个重要部件—再生冷却器和再生鼓风机之间选择合适的伸缩节来吸收热运动的过程。给出了在0.14 MPa和593℃条件下,在762mm管径中工作的万向铰接膨胀节的设计计算。接头包含5个单层incoly 800H波纹管,波纹管没有加强。根据伸缩缝制造商协会(EJMA)标准中规定的公式进行了伸缩缝的设计计算。由于使用运动测试难以量化应力,因此EJMA计算结果已与波纹管的有限元分析结果进行了验证。
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Analysis of CCR Expansion Joints
The CCR (Continuous Catalytic Reforming) Platforming™ process is Honeywell UOP’s technology to convert low octane naphtha to high octane fuel or petrochemical feedstock such as aromatics. It is accomplished in a hydrogen atmosphere at elevated temperature and pressure across a platinum containing catalyst. The process flow is routed through heaters, blowers and coolers between reactors to maintain the heat of reaction. This article captures the procedure of selecting a suitable expansion joint for absorbing thermal movement between two important pieces of CCR equipment — the regeneration cooler and regeneration blower. It shows the design calculations of a universal hinged expansion joint operating at 0.14 MPa and 593°C in a pipe of 762mm diameter. The joint contains 5 single-ply INCOLOY 800H bellows with unreinforced convolutions. Design calculations of the expansion joint have been carried out using formulae prescribed in the Expansion Joints Manufacturers Association (EJMA) standard. Since it is difficult to quantify stresses using a movement test, the EJMA calculations have been verified against finite element analysis results of the bellows.
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