PROCESS ECONOMICS PROGRAM

Similar documents
AROMATIC AMINES PROCESS ECONOMICS PROGRAM. Report No. 76Al Interim. by YEN-CHEN. July A private report by the MENLO PARK, CALIFORNIA

PROCESS ECONOMICS PROGRAM

ISOMERIZATION OF PARAFFINS FOR GASOLINE

POLYAMIDES OTHER THAN NYLONS 6 AND 66

PROCESS ECONOMICS PROGRAM

PROCESS ECONOMICS PROGRAM

OX0 ALCOHOLS PROCESS ECONOMICS PROGRAM. Report No. 21. contributions by Shigeyoshi Takaoka. November A private report by the

ETHYLENE-PROPYLENE PROCESS ECONOMICS PROGRAM. Report No. 29A. Supplement A. by SHIGEYOSHI TAKAOKA With contributions by KIICHIRO OHYA.

PROCESS ECONOMICS PROGRAM

ACRYLICACID AND ACRYLIC ESTERS

HYDROFLUORIC ACID FLUOROCARBONS AND PROCESS ECONOMICS PROGRAM. Report No. 89. November A private report by the MENLO PARK, CALIFORNIA

XYLENES SEPARATION SUPPLEMENT

Abstract Process Economics Program Report No. 158A OCTANE IMPROVERS FOR GASOLINE (February 1992)

CONTENTS 1 INTRODUCTION SUMMARY 2-1 TECHNICAL ASPECTS 2-1 ECONOMIC ASPECTS 2-2

Abstract Process Economics Program Report 21F NEW GENERATION OXO ALCOHOLS (October 2012)

Report No. 35 BUTADIENE. March A private report by the PROCESS ECONOMICS PROGRAM STANFORD RESEARCH INSTITUTE I PARK, CALIFORNIA

DIOXIDE REMOVAL FROM STACK GASES

PROCESS ECONOMICS PROGRAM SRI INTERNATIONAL Menlo Park, California

PEP Review CONTINUOUS SAP PRODUCTION VIA DOUBLE KNEADER REACTOR By Anthony Pavone (November 2011)

PEP Review ON-PURPOSE BUTADIENE PRODUCTION By Richard Nielsen with a Contribution by Russell Heinen (June 2011)

Abstract Process Economics Program Report No. 203 ALKANE DEHYDROGENATION AND AROMATIZATION (September 1992)

Abstract Process Economics Program Report 43D MEGA METHANOL PLANTS (December 2003)

TREATMENTOF PETROCHEMICAL WASTEWATERS

PEP Review ACETIC ACID, UPDATE OF THE CELANESE AO PLUS PROCESS By P D Pavlechko, PhD (February 2013)

PEP Review HIGH-PURITY ISOBUTYLENE PRODUCTION BY MTBE CRACKING By Sumod Kalakkunnath (December 2012)

ALIPHATIC SURFACTANTS

Process Economics Program

PEP Review HIGH-PURITY ISOBUTYLENE FROM T-BUTANOL BY LYONDELLBASELL PROCESS By Sumod Kalakkunnath (February 2013)

PROTEINS FROM HYDROCARBONS

Abstract Process Economics Program Report 251 BIODIESEL PRODUCTION (November 2004)

PEP Review METHYL TERTIARY BUTYL ETHER PRODUCTION FROM STEAM CRACKER C 4 STREAM By Syed N. Naqvi (December 2012)

ACRYLONITRILE THERMOPLASTICS

Process Economics Program

LINEAR POLYETHYLENE AND POLYPROPYLENE

Abstract Process Economics Program Report 195A ADVANCES IN FLUID CATALYTIC CRACKING (November 2005)

PROCESS ECONOMICS PROGRAM

Abstract PEP Review PROCESS ECONOMICS OF COAL-BASED OLEFINS PRODUCTION IN CHINA By R. J. Chang and Jamie Lacson (May 2012)

Process Economics Program

IHS CHEMICAL Light Hydrocarbon and Light Naphtha Utilization. Process Economics Program Report 297. Light Hydrocarbon and Light Naphtha Utilization

Abstract Process Economics Program Report 211A HYDROCRACKING FOR MIDDLE DISTILLATES (July 2003)

Linear Alkylbenzene (LAB)

IHS CHEMICAL PEP Report 29J. Steam Cracking of Crude Oil. Steam Cracking of Crude Oil. PEP Report 29J. Gajendra Khare Principal Analyst

Preface... xii. 1. Refinery Distillation... 1

Johnson Matthey is the leading technology provider for butanediol (BDO) plants worldwide.

Reliable. Efficient. Economical. Distillation Technology ENGINEERING - EQUIPMENT - TURNKEY SYSTEMS

General Guide of Lubricants Recycle

Synonym(s) ) Chlorine, liquefied/gas. Ammonia, Gasoline, natural 7300 (gasoline) Hydrogen gas. Phosgene

Europe s Largest. Frank Rouwnes. Chemical Cluster

opportunities and costs to upgrade the quality of automotive diesel fuel

Fundamentals of. Petroleum and Petrochemical. Engineering. University of Calcutta Calcutta, India. CRC Press. Taylor & Francis Group

Abstract Process Economics Program Report 246 NEAR ZERO SULFUR DIESEL FUEL (November 2002)

A Practical Approach to 10 ppm Sulfur Diesel Production

SUBJECT: -Used Lubricant Oil (U L O) Re Refining Technology.

Welcome to Covestro. Deutsche Bank US Chemicals Fieldtrip covestro.com. March 7,

The Purification Feasibilityof GlycerinProduced During

Ultrasonic Assisted Oxidative Desulphurization. International Ultrasonic Technologies Inc. Alberta, Canada July, 2017

Ethylene Oxide and Derivatives

CHEMSYSTEMS. Report Abstract. Petrochemical Market Dynamics Feedstocks

Process Economics Program

Softening point by Ring & Ball. Density and relative density of liquids by Hubbart pycnometer

Catalytic Reforming for Aromatics Production. Topsoe Catalysis Forum Munkerupgaard, Denmark August 27 28, 2015 Greg Marshall GAM Engineering LLC 1

Abstract Process Economics Program Report 222 PETROLEUM INDUSTRY OUTLOOK (July 1999)

Dimethyl Ether (DME) Technology and Markets

This presentation focuses on Biodiesel, scientifically called FAME (Fatty Acid Methyl Ester); a fuel different in either perspective.

Study on Relative CO2 Savings Comparing Ethanol and TAEE as a Gasoline Component

Process Economics Program

2014 Gas/Electric Partnership

The Stability of Sulfur Compounds, Low Molecular Weight Gases, and VOCs in Four Air Sample Bag Materials

Catalysts for olefin processes. A range of performance catalysts and absorbents for use across the olefins value chain.

Replacement Tubes for Gillian Gas Detection Pumps

PERP/PERP ABSTRACTS Lube Oil PERP 2011S8

Fundamentals of Petrochemical Industry

Refining/Petrochemical Integration A New Paradigm. Anil Khatri, GTC Technology Coking and CatCracking Conference New Delhi - October 2013

Alcohols to Hydrocarbons (ATH)

Ducting & Ventilation Components

CONTENTS. Chapter 1 Industrial Catalysts. Chapter 2 The First Catalysts

UPGRADER FOR HEAVY, EXTRA-HEAVY CRUDE/BITUMEN AND RESIDUAL FRACTIONS

Methanol distribution in amine systems and its impact on plant performance Abstract: Methanol in gas treating Methanol impact on downstream units

WASTE TO ENERGY. Commercial Enzymatic Production of Biodiesel

Enhancing Winter Performance With Distilled Biodiesel. Copyright 2017 Renewable Energy Group, Inc.

Polyurethanes & Intermediates

SYNTHESIS OF BIODIESEL

Pine Chemicals- Global view. Keijo A. Ukkonen Nopek Oy

Stephen Stanley Jose de Barros Fred Gardner Lummus Technology 1 st Indian Oil Petrochemical Conclave March 16, 2012 New Delhi

Petrochemicals Global Trends & Opportunities for Investment in India. A N JHA, Executive Director ( Petrochemical- Project )

Renewable Liquids as Steam Cracker Feedstocks

Investigate Your Options

Author: Vincenzo Piemonte, Associate Professor, University UCBM Rome (Italy)

GTC TECHNOLOGY. GT-BTX PluS Reduce Sulfur Preserve Octane Value - Produce Petrochemicals. Engineered to Innovate WHITE PAPER

DEVELOPMENT AND COMMERCIALIZATION OF ATIS-2L, A HIGH ACTIVITY, LOW COST PARAFFIN ISOMERIZATION CATALYST

New Hybrid Process for Purification and Separation of MDI Isomers

Oxidative Desulfurization. IAEE Houston Chapter June 11, 2009

As the global energy sector

Guidance on Manufacturing Process Descriptions & Use of EINECS/CAS Number Definitions for REACH Registrations

SCOPE OF ACCREDITATION TO ISO/IEC 17025:2005

Product: Isosorbide. Product: Isosorbide Flow Diagram

Portfolio of Compression

Methanol recovery during transesterification of palm oil in a TiO2/Al2O3 membrane reactor: Experimental study and neural network modeling

Impact of Process Economics for Green Energy July 23, 2009

Coking and Thermal Process, Delayed Coking

Transcription:

PROCESS ECONOMICS PROGRAM SRI INTERNATIONAL Mod0 Park, California 94025 Abstract Process Economics Program Report No. 1C ISOCYANATES/POLYISOCYANATES In this supplementary report, several processes for manufacture of TDI and PMPPI/MDI are compared; methyl isocyanate production is de- scribed and evaluated; other isocyanates and isocyanate adducts are described. The following are some of the important findings. The carbonylation process for making TDI or PMPPI requires higher capital outlay than the phosgenation process, and also higher production cost, based on prevailing prices of raw material. The situation may change to some extent If cheap carbon monoxide is available. For making PMPPI or MD1 by phosgenation, a clay-catalyzed process based on an Upjohn patent for making the starting amine has some cost advantage over the conventional RCl-catalyzed process and also over other new processes claimed in patents.

Report No. 1 C ISOCYANATES PART I SUPPLEMENT C YEN-CHEN YEN 1 I E Cl A private report by the July 1979 PROCESS ECONOMICS PROGRAM Menlo Park, California 94025

For detailed marketing data and information, the reader is referred to one of the SRI programs specializing in marketing research. The CHEMICAL ECONOMICS HANDBOOK Program covers most major chemicals and chemical products produced in the United States and the WORLD PETROCHEMICALS Program covers major hydrocarbons and their derivatives on a worldwide basis. In addition, the SRI DIRECTORY OF CHEMICAL PRODUCERS services provide detailed lists of chemical producers by company, product, and plant for the United States and Western Europe. ii

CONTENTS 1 INTRODUCTION...................... 1 2 SUMMARY... General Aspects..................... Technical Aspects.................... TDI by Phosgenation Process.............. TDI by Carbonylation of Dinitrotoluene via Urethane.. Polymethylene Polyphenylenediisocyanate (PPMI) by HCl Condensation and Phosgenation......... PMPPI with Polyamide Made by a Clay-Catalyzed Process....................... PMPPI with Polyamine Made by Recycled HCl Catalyst... PMPPI by Carbonylation Process............ Methylene Diphenylene Diamine (MDA) Made by Recycled HCl Catalyst Based on a Bayer Patent..... MDA Made by Clay-Catalyst Condensation......... Methylene Diphenylene Diisocyanate (MDI)........ Methyl Isocyanate.................... 3 INDUSTRY STATUS... Production Capacity and Production... Products... 3 3 12 12 14 15 15 16 16 18 18 19 19 21 21 21 4 TOLUENE DIISOCYANATE BY PHOSCRNATION PROCESS...... 29 Dinitrotoluene...... 29 Toluenediamine...... 33 Review of Processes...... 41 Phosgenation...... 41 Recovery of TDI...... 51 Residue Treatment...... 52 Purification of TDI...... 53 Phosgene Annihilation...... 53 Hydrogen Chloride...... 53 Manufacture of TDI by Phosgenation of TDA.... 54 Process Description...... 54 Process Discussion...... 65 Cost Estimates...... 68 Costs of Integrated Production...... 74 Crude or Undistilled TDI Production Costs... 76 Pure 2,4 TDI and 65/35 TDI...... 76 ix

CONTENTS 5 METHYLENEDIPHENYL DIISOCYANATE AND POLYMETHYLENE POLYPHENYLISOCYANATE BY PROSGENATION... Review of Processes... MDAandPMPPA... MDIandPMPPI... Manufacture of PMPPA by HCl Condensation and Neutralization... Process Discussion... Cost Estimates... Manufacture of PMPPA Using Recycled Catalyst Based on an Elprochine Patent... Process Discussion... CostEstimates... Manufacture of PMPPA by Clay-Catalyzed Coudensation Based on an Upjohn Patent... CostEstimates.;.... Manufacture of MDA Using Solvent Extraction and Recycled HCl Based on Bayer Patents... Process Discussion... Cost Estimates... Manufacture of MDA Using Clay-Catalyzed Condensation Based on an Upjohn Patent... Cost Estimates... Manufacture of PMPPI by Phosgenation of PMPPA Using a Low Solvent Batio... Cost Estimates... Manufacture of PMPPI by Phosgenation of PMPPA Using a High Solvent Ratio... Production of PMPPI from Aniline--Integration of PMPPAand PMPPI Production.... Manufacture of MD1 as a By-Product in PMPPI Production... Manufacture of MD1 from MDA... Integration Production of PMPPI... a5 a7 87 95 104 104 111 112 117 117 123 123 127 127 133 137 137 145 145 150 150 151 160 160 163 171 175 179 188 190 X

ILLUSTRATIONS 4.1 TDI by Phosgenation Process 4.2 Recovery of TDI in Residue.............. 4.3 Production Units Relating to TDI Block Flow Diagram.................. 4.4 Integrated Production of TDI and TDA Effect of Operating Level and Plant Capacity on Production Cost.................. 4.5 Integrated Production of TDI, TDA and Phosgene Effect of Operating Level and Plant Capacity on Production Cost.................. 4.6 Treatment of Crude TDI 5.1 PMPPA by HCl Condensation and Neutralization 5.2 PMPPA Production Effect of Operating Level and Plant Capacity on Production Cost.................. 5.3 PMPPA Using a Recycled Catalyst Based on an Elprochine Patent 5.4 PMPPA by Clay-Catalyzed Condensation Process Based on an Upjohn Patent 5.5 MDA by HCl Condensation and Extraction Based on a Bayer Patent 5.6 MDA Production Effect of Operating Level and Plant Capacity on Production Cost.................. 5.7 MDA by Clay-Catalyzed Condensation Process Based on an Upjohn Patent--Separation Section 5.8 PMPPI by Phosgenation of PMPPA 5.9 PMPPI from Aniline Effect of Operating Level and Plant Capacity on Production Cost.................. 5.10 Separation of MD1 from PMPPI 385 66 75 81 82 83 389 116 391 393 395 149 152 397 178 181 Xi

TABLES 2.1 2.2 2.3 2.4 2.5 2.6 2.7 3.1 3.2 3.3 3.4 3.5 3.6 4.1 4.2 4.3 4.4 4.5 4.6 4.7 TDI Production TDI, Distilled and Undistilled TDI from DNT and Carbon Monoxide PMPPI by Phosgenation PMPPI from Nitrobenzene Cost Features.... MD1 Production Methyl Isocyanate Production Producers of Isocyanates in the United States... Producers of Isocyanates In Countries Other than the United States... Commercial Isocyanates... GradesofTDI... GradesofMDI... Grades of PMPPI... Dinitrotoluene PatentSummary... DINITROTOLUENE FROM TOLUENE. CapitalInvestment................... Toluenediamine Patent Summary.................... TDA FROM DNT BY TBE DU PONT PROCESS Design Bases and Assumptions............. Capital Investment.................. 4 6 7 8 9 11 13 23 24 26 27 28 28 30 31 32 34 36 37 39 Xiii

TABLES 4.8 4.9 4.10 4.11 4.12 TM FROM DNT BY TEE DU PONT PROCESS (Continued) Toluene Diisocyanate by Phosgenation Distillation and Recovery of TDI Residues from TDI Distillation Purification of TDI Patent Summary.................... Handling of Gas Containing Phosgene Patent Summary.................... 42 44 46 49 50 4.13 4.14 4.15 4.16 4.17 4.18 4.19 4.20 4.21 4.22 4.23 4.24 TDI FRCM TDA BY PROSCENATION Design Bases and Assumptions............. StreamFlows...................... Major Equipment.................... Utilities Summary................... Capital Investment.................. Cost of TDI Production--Various Versions of Design.. Integrated Production of TDI and TDA Integrated Production of TDI, TDA and Phosgene- Integrated Production of TDI, TDA, DNT and Phosgene Integrated Production of TDI, TDA, DNT and Phosgene, and HCl Electrolysis Undistilled TDI Production Costs................... 84 55 59 61 64 69 71 73 77 78 79 80 xiv

TABLES 5.1 5.2 5.3 5.4 5.5 5.6 5.7 5.8 5.9 5.10 5.11 5.12 5.13 5.14 5.15 5.16 5.17 5.18 5.19 Condensation of Aniline and Formaldehyde to Polyamine by HCl Polyamine Processes Using a Small Amount or No HCl Polyamine Treatment Patent Summary.................... Phosgenation of MDA and PMPPA Recovery and Separation of MD1 and PMPPI Reduction of Hydrolyzable Chlorine Content Patent Summary.................... Stabilization of PMPPI PMPPA BY HCl CONDENSATION AND NEUTRALIZATION Design Bases and Assumptions... StreamFlows... Major Equipment... Utilities Summary... Capital Investment... Production Costs... PMPPA USING RECYCLED ACID CATALYST-BASED ON AN ELPROCHINE PATENT Design Bases and Assumptions... StreamFlows... Major Equipment... Utilities Summary... Capital Investment... Production Costs... 88 93 94 97 98 100 102 105 107 108 110 113 114 118 119 120 122 124 125 xv

TABLES PMPPA BY CLAY-CATALYZED CONDENSATION--BASED ON AN UPJOHN PATENT 5.20 Design Bases and Assumptions... 5.21 StreamFlows... 5.22 Major Equipment... 5.23 Utilities Summary... 5.24 Capital Investment... 5.25 Production Costs... 128 129 130 132 134 135 MDA BY HCl CONDENSATION,AND EXTBACTION-BASED ON BAYER PATENTS 5.26 Design Bases and Assumptions... 138 5.27 StreamFlows... 140 5.28 Major Equipment.... 142 5.29 Utilities Summary... 144 5.30 Capital Investment... 146 5.31 Production Costs... 147 MDA BY CLAY-CATALYZED CONDENSATION-BASED ON AN UPJOHN PATENT 5.32 Stream Flows--Separation Section... 5.33 Major Equipment-Separation Section... 5.34 Utilities Summary... 5.35 Capital Investment... 5.36 Production Costs... PMPPI BY PHOSGENATION OF PMPPA USING A LOW SOLVENT BAT10 5.37 Design Bases and Assumptions............. 5.38 StreamFlows..................... 5.39 Major Equipment.................... 5.40 Utilities Summary................... 153 154 155 156 158 161 164 165 167 xvi

TABLES PMPPI BY PHOSGENATION OF PMPPA USING A LOW SOLVENT BAT10 (Continued) 5.41 Capital Investment.................. 5.42 PMPPI BY PHOSGENATION OF PMPPA USING A HIGH SOLVENT RATIO 5.43 Capital Investment.................. 5.44 5.45 PMPPI from Aniline by HCl Condensation and Neutralization 5.46 PMPPI from Aniline Comparison of Production Costs............ MD1 AND PMPPI 5.47 Major Equipment.................... 5.48 Utilities Summary.................. 5.49 Capital Investment.................. 5.50 Production Costs........... e..... 5.51 MD1 Production Comparison of Production Costs............ 5.52 Integrated Production of PMPPI, PMPPA and Phosgene 5.53 PMPPI from Mononitrobentene 168 169 172 173 176 177 182 183 184 186 189 191 192 XVii