PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION

Benzene is a group of Volatile Organic Compound (VOC) in the category of aromatic compounds that are carcinogenic which endanger the environment. Catalytic oxidation is the best method of processing VOC in terms of performance, work span, flexibility, and operating costs. The Reverse Flow Reactor (R...

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Main Author: Topandi, Abdussalam
Format: Theses
Language:Indonesia
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Online Access:https://digilib.itb.ac.id/gdl/view/38874
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:38874
spelling id-itb.:388742019-06-19T10:36:51ZPROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION Topandi, Abdussalam Teknik kimia Indonesia Theses Reverse Flow Reactor, benzene oxidation, start-up procedure, CuO / ?-Al2O3 INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/38874 Benzene is a group of Volatile Organic Compound (VOC) in the category of aromatic compounds that are carcinogenic which endanger the environment. Catalytic oxidation is the best method of processing VOC in terms of performance, work span, flexibility, and operating costs. The Reverse Flow Reactor (RFR) is one of the catalytic oxidation reactors which is operated in unstable conditions. Pilot-scale RFR start-up procedure is carried out in three start-up methods are air flowing in one-way flow, flowing air with the reverse flow, and flowing air with benzene feeding with the reverse flow. This research was conducted to obtain an optimal pilot scale RFR start-up procedure. The RFR start-up operation procedure can affect the energy requirements needed in the oxidation process of benzene with commercial catalysts 7% CuO / ?-Al2O3. The optimum operating conditions for one-way flow with air feeding are the preheater temperature of 138oC, the catalyst zone temperature of 350oC, and the feed flow rate of 1.75 liters per second. The optimum operating conditions produce a maximum reactor temperature of 138oC, the temperature difference is 23oC, and the time to reach steady state is 190 minutes. The optimum operating condition of reverse flow with air feeding is 35 minutes of switching time. The optimum operating condition produce a maximum reactor temperature of 155.5oC and the time to reach steady state for 225 minutes. Low switching time produce a higher maximum reactor temperature. The method with benzene feeding is carried out by feeding air for 360 minutes with a switching time of 30 minutes. The maximum benzene conversion obtained is 31%. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
topic Teknik kimia
spellingShingle Teknik kimia
Topandi, Abdussalam
PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
description Benzene is a group of Volatile Organic Compound (VOC) in the category of aromatic compounds that are carcinogenic which endanger the environment. Catalytic oxidation is the best method of processing VOC in terms of performance, work span, flexibility, and operating costs. The Reverse Flow Reactor (RFR) is one of the catalytic oxidation reactors which is operated in unstable conditions. Pilot-scale RFR start-up procedure is carried out in three start-up methods are air flowing in one-way flow, flowing air with the reverse flow, and flowing air with benzene feeding with the reverse flow. This research was conducted to obtain an optimal pilot scale RFR start-up procedure. The RFR start-up operation procedure can affect the energy requirements needed in the oxidation process of benzene with commercial catalysts 7% CuO / ?-Al2O3. The optimum operating conditions for one-way flow with air feeding are the preheater temperature of 138oC, the catalyst zone temperature of 350oC, and the feed flow rate of 1.75 liters per second. The optimum operating conditions produce a maximum reactor temperature of 138oC, the temperature difference is 23oC, and the time to reach steady state is 190 minutes. The optimum operating condition of reverse flow with air feeding is 35 minutes of switching time. The optimum operating condition produce a maximum reactor temperature of 155.5oC and the time to reach steady state for 225 minutes. Low switching time produce a higher maximum reactor temperature. The method with benzene feeding is carried out by feeding air for 360 minutes with a switching time of 30 minutes. The maximum benzene conversion obtained is 31%.
format Theses
author Topandi, Abdussalam
author_facet Topandi, Abdussalam
author_sort Topandi, Abdussalam
title PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
title_short PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
title_full PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
title_fullStr PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
title_full_unstemmed PROCEDURE DEVELOPMENT OF PILOT SCALE REVERSE FLOW REACTOR START-UP FOR BENZENE CATALYTIC OXIDATION
title_sort procedure development of pilot scale reverse flow reactor start-up for benzene catalytic oxidation
url https://digilib.itb.ac.id/gdl/view/38874
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