ABB MEASUREMENT & ANALYTICS ANALYTICAL MEASUREMENT. Ethylene plant production excels with the PGC1000

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ABB MEASUREMENT & ANALYTICS ANALYTICAL MEASUREMENT Ethylene plant production excels with the PGC1000

2 P G C 1 0 0 0 E T H Y L E N E P L A N T P R O D U C T I O N P B/ 2 1 0 2 74 2 - E N Measurement made easy

PGC1000 ETHYLENE PLANT PRODUCTION PB/2102742-EN 3 Why the PGC1000? The most efficient analysis The PGC1000 is a revolutionary product designed to handle the challenge. ABB is proud to meet the demands of an ever-changing and ever-growing staple of the petrochemical market. Ethylene production is a competitive industry. The PGC1000 provides the flexibility, reliability and performance for efficient, low maintenance, and high throughput ethylene production. Isn t that what is needed? PGC1000 offers Low cost Cost effective (no shelter) and low maintenance Mounting options Online, wall-mounted or polemounted Carrier options Helium, hydrogen, or nitrogen Compact size 6.75" diameter x 16" length x 9" height, 28 lbs. Modular Modular hardware and software for greater ease of use GC valve No metal moving parts, offering millions of cycles between failures TCD Detector sensitivity unmatched in the industry Applications Ability to address a variety of petrochemical applications Operational efficiency Low carrier usage rates, low power consumption, and no compressed air Ethylene is one of the largest volume commodity chemicals on the market. It is used in the manufacture of plastics, fibers, and other organic compounds such as polypropylene, butadiene, and pyrolysis gasoline. The increased global demand for ethylene is matched by expanded supply from new production sources such as shale gas and Greenfield ethylene plants. As demand and supply grow, so must process throughput and reliability. Monitoring contaminants in ethylene production is critical for maximizing production output, extending equipment life, and limiting unscheduled shutdowns. ABB s PGC1000 process gas chromatograph (GC) is ideal for ethylene plant operation maximization optimizing process control, improving product quality, providing environmental monitoring, mass balancing, and enhancing safety.

4 PGC1000 ETHYLENE PLANT PRODUCTION PB/2102742-EN PGC1000 and process analytics Ethylene plant diagrams Simple proven design, easy installation, low maintenance, and faster troubleshooting of the PGC1000 means greater process uptime. The PGC1000 is specifically designed for the hydrocarbon processing industry (HPI). The PGC1000 is a field-mounted process GC measuring C1 - C9+, inert gases, and H2S. In addition, the PGC1000 precisely analyzes H2, O2, CO, H2O, and CO2 process stream components. These components are important to evaluating ethylene plant operational efficiency. The PGC1000 offers the most accurate/costeffective GC solution on the market, requiring no shelter and substantially lowering life cycle product costs. Simple proven design, easy installation, low maintenance, and faster troubleshooting of the PGC1000 means greater process uptime. This has a direct impact on the plant s bottom line. PGC1000 is well-suited for ethylene production areas such as feed and furnace, compression, and hydrocarbon separation. Column train designator Measured components Carrier C3+, He, N2, C1, CO2, C2=, C2, C2* H2/He BBH C1+, He, O2, N2, CO H2/He C5+, C3, C3=, IC4, NC4, B-1 & IC4=, TB-2, CB-2, 1,3-BD H2/He BBK C6+, C3, IC4, NC4, NeoC5, IC5, NC5 H2/He BBM C6+, C3, H2S, IC4, NC4, NeoC5, IC5, NC5 H2/He BBP O2 H2/He

PGC1000 ETHYLENE PLANT PRODUCTION PB/2102742-EN 5 Measured component ranges are available BBH Methane rich tail gas H2 rich tail gas Ethylene product Steam Feed BBM BBK Furnace Quench compression BBH Cold box BBP BBP, Acetylene removal N/A BBP Drying BBP Ma. pd. tower 4 MOD BBD Fuel gas Ma. pd. converter Green oil separator BBH Fuel gas Drying DeC1 DeC2 C2 splitter DeC3 C3 splitter DeC4 Butylene Butadiene BBH BBM Gasoline to hydrotreaters Fuel oil Ethane recycle BBP Propylene product

6 PGC1000 ETHYLENE PLANT PRODUCTION PB/2102742-EN PGC1000 Ethylene plant applications Maximizing furnace efficiency is economically beneficial, since it uses the most energy in an ethylene plant. Furnace applications Furnace optimization is vital to plant performance. Cracking excessively can lead to furnace shutdown because of unwanted coke formation on the catalyst. It impedes heat transfer and restricts process flow. Not cracking sufficiently can have a negative impact on overall production. The PGC1000 provides the component evaluation for achieving the correct balance. The PGC1000 furnace measurement capabilities are outlined in the chart below. Sample point Measured components Column trains Fresh feed C1, C2, C3+, C4+ (PINA) BBM, BBK Mixed feed (fresh and recycle) C1, C2=, C2, C3, C4+ BBM, BBK Fuel gas to furnaces N2, H2, C1, C2=, BBH Furnace convection O2 BBP Cracked gas at TLE exit CO, NO (NO2), O2 BBH, BBP Boiler combustion O2 BBP Compression applications The gas from the quench tower goes through a compression train to achieve a pressure which adequately separates hydrocarbons from H2O. Acid gases (CO2 and H2S) are also removed. A cracked gas compressor (CGC) can cost up to $50 million, and it operates continuously. Therefore, plant economics may be severely affected by fouling in a CGC, resulting in added energy costs and production losses. The CGC is also an ideal place to return various recycle streams in the ethylene plant. These may contain fouling precursors. They include oxygen, peroxides, and other organic components that adversely impact compressor operation. The PGC1000 helps monitor components for better compressor control and extended life of the equipment. The PGC1000 compression component measurement capabilities are outlined below. Hydrocarbon separation applications Understanding the concentration of permanent gases (CO, CO2, O2, N2, and methane) is important for controlling the ethylene plant hydrocarbon separation process and product quality. Impurities such as CO and CO2 in ethylene are harmful to certain catalysts. Another harmful byproduct from ethylene production is acetylene. It is toxic to downstream polymerization catalysts. The PGC1000 is ideal for monitoring and controlling hydrocarbon separation to improve the quality of the ethylene product and by-products such as methane, ethane, propane, and butane. The PGC1000 compression component measurement capabilities are outlined below. Sample point Measured components Column trains Hydrogen rich tail gas H2, N2, C1, C2=, C2, CO, BBH Methane rich tail gas H2, N2, C1, C2=, C2, CO, BBH DeMethanizer bottoms C2/C3= DeEthanizer C3=/C2 BBP, C2 split bottoms C2=, C3=, BBM Ethylene product C1, C2, C2=, BBP To DeButanizer C1, C2, C2= DePropanizer C2, C3=, C3, C4+ C3 split bottoms Propylene product C3=, C4+, Propadiene, Propine Butene-1 product C2, C2=, C4, C4=, C6= Sample point Measured components Column trains Cracked gas at quench inlet H2, C1, C2+, C2, BBH Drying/chilling outlet (to methanizer) CO, C2=, BBH

P G C 1 0 0 0 E T H Y L E N E P L A N T P R O D U C T I O N P B/ 2 1 0 2 74 2 - E N 7

ABB Inc. Measurement & Analytics Quotes: totalflow.inquiry@us.abb.com Orders: totalflow.order@us.abb.com Training: totalflow.training@us.abb.com Support: totalflowsupport@us.abb.com +1 800 442 3097 (opt. 2) Main Office 7051 Industrial Boulevard Bartlesville, OK 74006 Ph: +1 918 338 4888 www.abb.com/upstream California Office 4300 Stine Road Suite 405-407 Bakersfield, CA 93313 Ph: +1 661 833 2030 Kansas Office 2705 Centennial Boulevard Liberal, KS 67901 Ph: +1 620 626 4350 Texas Office Odessa 8007 East Business 20 Odessa, TX 79765 Ph: +1 432 272 1173 Texas Office Houston 3700 West Sam Houston Parkway South, Suite 600 Houston, TX 77042 Ph: +1 713 587 8000 Texas Office Pleasanton 150 Eagle Ford Road Pleasanton, TX 78064 Ph: +1 830 569 8062 Copyright 2017 ABB. All rights reserved. Specifications subject to change without notice. PB/2102742-EN Rev. D 04.2017