INEOS TECHNOLOGIES EDC OXYCHLORINATION CATALYSTS. Vinyl India Scan to visit Ineos Technologies website. Follow us on:

Similar documents
Be prepared to discuss the quantitative comparison method in the oral exam.

3 rd Generation Stabilized Front End Selective Hydrogenation Catalysts Enhance Operational Stability and Maximize Ethylene Gain

CHLORINE RECOVERY FROM HYDROGEN CHLORIDE

Synthesis and Characterization of high-performance ceramic materials for hightemperature

High Pressure Chemistry. Hydrogenation & Catalysis Tools.

Full Furnace Simulations and Optimization with COILSIM1D

Effects of Different Processing Parameters on Divinylbenzene (DVB) Production Rate

CHEMICAL PROCESS INDUSTRY

Mercury, membrane or diaphragm

Separations and Reactors Design Project. Production of Allyl Chloride

BAE 820 Physical Principles of Environmental Systems

Abstract Process Economics Program Report 174A HIGH-OUTPUT FLUIDIZED-BED POLYETHYLENE TECHNOLOGY (July 1999)

INTRODUCTION TO CATALYTIC COMBUSTION

Advanced Olefin Polymer Reactor Fundamentals and Troubleshooting

Fuel ash behavior importance of melting

ENTHALPY BALANCES WITH CHEMICAL REACTION

Process Design Decisions and Project Economics Prof. Dr. V. S. Moholkar Department of Chemical Engineering Indian Institute of Technology, Guwahati

Abstract. Process Economics Program Report No. 146 BULK CHEMICALS FROM SYNTHESIS GAS. (.Iune 1982)

Module 1: Mole Balances, Conversion & Reactor Sizing (Chapters 1 and 2, Fogler)

Structure of the chemical industry

Apportioning of Fuel and Thermal NO x

SINOPEC MTP and MTX technologies

Adoption of Engineering Practices for Maximization of Solvent Recovery

Abstract Process Economics Program Report 128E POLYPROPYLENE (September 2011)

R&D on Technology of Reducing Environmental Load Through Long-Life FCC Catalyst

Distillation. Presented by : Nabanita Deka

We create chemistry that makes individual refiners love fueling the world. Troubleshooting Catalyst Losses in the FCC Unit

Bindzil and Levasil product guide. Colloidal silica dispersions functions and applications

Two-dimensional mathematical modeling of oxidative coupling of methane in a membrane reactor

Alumina & Pseudoboehmite & Molecular sieve

References. Continuous Manufacturing Process Development Plant Realizations. Microinnova Engineering GmbH. Europapark Allerheiligen bei Wildon

CO 2 capture by Adsorption Processes: From Materials to Process Development to Practical Implementation

Petrochemical Processes and Catalysis A Eurotek training course

Process Design Decisions and Project Economics Prof. Dr. V. S. Moholkar Department of Chemical Engineering Indian Institute of Technology, Guwahati

RDF-LIGNITE CO-COMBUSTION IN A CFB BOILER

Synthesis gas production via the biogas reforming reaction over Ni/MgO-Al 2 O 3 and Ni/CaO-Al 2 O 3 catalysts

Heterogeneous Catalysis

Propylene: key building block for the production of important petrochemicals

APPLICATION OF CHEMICAL KINETICS IN THE HETEROGENEOUS CATALYSIS STUDIES

Effect of Concentration of Hydrogen Chloride Gas on Chlorination Treatment of Waste Containing Antimony-Uranium Composite Oxide Catalyst

cis,cis-muconic acid: Separation and catalysis to bioadipic acid for nylon-6,6 polymerization

THE APPLICATION OF PROCESS MASS SPECTROMETRY TO FUMED SILICA PRODUCTION

Moisture holding capacity 61 to 69 % Shipping Weight Specific gravity 1.06 to 1.08 Particle size

HPLC Column Material - Bulk Ware

PROJECT 20: SUPPORTED METALS NANOPARTICLES AS CATALYST FOR THE PROX REACTION

EXECUTIVE SUMMARY. especially in last 50 years. Industries, especially power industry, are the large anthropogenic

Characterization of zeolites by advanced SEM/STEM techniques

Modeling of a Fluid Catalytic Cracking (FCC) Riser Reactor

Method and process for combustion synthesized supported cobalt catalysts for fixed bed Fischer Tropsch reaction

AutoChem II 2920 The Cayalyst Characterization Laboratory

NOTES INTRODUCTION EXPERIMENTAL

SCR Catalsyt Deactivation by Additives

INDUSTRIAL RESOURCES, INC. Power Plant Fundamentals Training

TABLE OF CONTENT. Chapter 4 Multiple Reaction Systems 61 Parallel Reactions 61 Quantitative Treatment of Product Distribution 63 Series Reactions 65

Types of Chemical Reactors. Nasir Hussain Production and Operations Engineer PARCO Oil Refinery

Chemical Reaction Engineering

Topsøe Catalysis Forum 2009

Gravimetric coal dust firing and dry lignite firing in power plants

Mark Scheme (Results) November 2010

Dehydrogenation of Propane to Propylene Over Pt-Sn/Al 2 O 3 Catalysts: The influence of operating conditions on product selectivity

The Fundamentals of Moisture Calibration

Workshop II Nanomaterials Surfaces and Layers Commercialising Carbon Nanotubes

HEAT TRANSFER AND EXCHANGERS

AE 205 Materials and Energy Balances Asst. Prof. Dr. Tippabust Eksangsri. Chapter 4 Stoichiometry and MB with Reactions

Synthesis of Ethylene Glycol Evaluation of Standard Process and Possible Alternatives

In terms of production, nitric acid is the third most widely produced acid across the world.

IV Distillation Sequencing

Innovation in. Motionless Mixers

Energy integration and hydrodynamic characterization of dual CFB for sorption looping cycles

High Thru-Put Zeolite M anufacture

Suppression of natural limestones deactivation during cyclic carbonationdecarbonation

Abstract Process Economics Program Report 36E LINEAR LOW DENSITY POLYETHYLENE (August 2008)

DEVELOPMENT OF CATALYSTS FOR ETHANE EPOXIDATION REACTION. Keywords: Ethylene oxide, Partial oxidation, Ethane epoxidation, Second metal.

Hydrated Lime for HCl Mitigation Benefits of High Reactivity Hydrate

SGL Group`s outstanding expertise HCl synthesis units with steam generation

Ch 2.1 (Properties of Matter)

Integrated Catalyst System for Removing Buildup-Gas in BWR Inert Containments During a Severe Accident

Compact Orifice FlowMeter

Continuous Flow for APIs and Intermediates (Part 1 of 2)

NEW AGE FASTENING SYSTEMS, Inc. For Cyclone Boilers

Lecture (9) Reactor Sizing. Figure (1). Information needed to predict what a reactor can do.

CHEMICAL REACTION ENGINEERING

Motiva Unlocks Value in the FCCU through an Innovative Catalyst Solution from Rive and Grace

SYLOBEAD Adsorbents. for Natural Gas Processing. Introduction. Therefore, it is often necessary to condition the raw gas to:

Design and Manufacturing of Catalytic Membrane Reactors by Developing New Nano-architectured Catalytic and Selective Membrane Materials

Material Balances Chapter 6: Introduction to Material Balance Objectives:

Figure 1. Pore size distribution

TRACERCO Diagnostics FCCU Study

Boreskov Institute of Catalysis. From the SelectedWorks of Andrey N Zagoruiko. Andrey N Zagoruiko. October, 2006

Development of Crud Chemistry Model using MOOSE. Amit Agarwal, Jim Henshaw & John McGurk

Adsorption (Ch 12) - mass transfer to an interface

Process Decoupling of Plasma Enhanced Synthesis of Chlorinated Polyvinyl Chloride (CPVC) Particles in a Circulating Fluidized Bed

LECTURE 1D. REACTIONS AND REACTORS

The Types of Catalysis

(Refer Slide Time: 00:10)

High-Pressure Electrolytic Carbonate Eluent Generation Devices and Their Applications in Ion Chromatography Systems

CT scanning advances well bore analysis

NEW ADIABATIC REACTORS FOR THE OXYDATION OF METHANOL TO FORMALDEHYDE

Study of the Hybrid Cu-Cl Cycle for Nuclear Hydrogen Production

Lecture 7. Sorption-Separation Equipment

Transcription:

INEOS TECHNOLOGIES EDC OXYCHLORINATION CATALYSTS Vinyl India 2015 Scan to visit Ineos Technologies website Follow us on: 1

INEOS Technologies Vinyls Solutions to the Vinyls Industry. We develop and license worldwide our EDC / VCM & PVC technologies. INEOS: 3rd largest Vinyls producer. 70+ yrs experience in the Vinyls sector Worldwide scale PVC & EDC pilot plants. Multi-million tons operating Globally under INEOS Licenses. We provide lifetime services to our Customers. 2

Pore Distribution Cumulative Pore Volume INEOS Technologies Vinyls Solutions to the Vinyls Industry. Our target is to Add Value for our Customers. PVC Pilot Plant Develop innovative additives for PVC & catalysts for Oxychlorination. Optimise clients operating / process conditions. Develop optimised PVC recipe. Dedicated Customer support.: - Application trial. - Additive / catalyst testing. - Process development. - Customer Specific studies / trainings. EDC Pilot Plant 3

The Balanced EDC/VCM Production Process C 2 H 4 + 0.5 O 2 + 2 HCl C 2 H 4 Cl 2 + H 2 O FIXED & FLUID BED 2 C 2 H 4 Cl 2 2 C 2 H 3 Cl + 2 HCl C 2 H 4 + Cl 2 C 2 H 4 Cl 2 HTC & LTC 4

WHERE INEOS CATALYST IN THE WORLD (PAST and PRESENT) Fixed Bed Fluid Bed INEOS Fixed Bed INEOS Fluid Bed (before SOLVIN INEOS JV) 5 This document is the property of INEOS Technologies (Vinyls) Limited and the information it contains is strictly confidential and may not be copied, used or disclosed without the express permission of Ineos Technologies (Vinyls) Limited.

Our EDC/VCM R&D team is located near Venice, Italy: Research & development of new Oxychlorination Catalytic systems (fluid and fixed bed) and related pilot testing Catalyst Production Control and Catalyst Quality Control Technical support for Customers (world-wide) and INEOS production plants (UK, Germany, Norway, Sweden) Optimization of Technolgies and Processes for Oxychlorination 6

Features Fluid Bed Oxy Pilot Plant 4m Oxychlorination reactor (Nickel 200), condensation system, on-line vent gas analyser and vent gas treatment Mass balance: Vent gas, Acidity, EDC purity 7

Fixed Bed Oxy Pilot Plant Features Two reactors On line vent gas analysis, off line analysis of EDC and water Fully automised under DCS control 8

R&D Catalysts: Oxychlorination Technologies HCl Conversion C 2 H 4 Selectivity to EDC Pressure Drop Catalysts Life HCl Conversion (C 2 H 4 conversion Air) C 2 H 4 Selectivity to EDC Fluid Dynamic behavior - Sticking Catalysts Losses Ethylene HCl, Oxygen Steam EDC + by-products Boiling Water RO TIC Catalyst Ethylene HCl EDC & By-Products air/oxygen 9

INEOS OXYCHLORINATION FIXED BED CATALYSTS AND DILUENT IVOC P CATALYSTS: P1D P2 - P3 - P3P (NEW) P1DT P2T P3T IVOD-1 STANDARD DILUENT IVOD-2F HIGH PERFORMANCE DILUENT 10

Fixed Bed oxychlorination catalysts Key Factors : INEOS catalysts CAN BE SUPPLIED ALREADY MIXED rotation: 3 min MIXING HAS TO BE OPTIMIZE TO MAXIMISE HOMOGENEITY 70% 60% 50% 40% % wt cat 30% 20% 10% 0% A B C D E F S1 S3 sampling line sampling point rotation: 6 min A B C D E F S2 S1 S2 80% 70% 60% 50% % wt cat 40% 30% 20% 10% 0% A B C D E F S1 S3 sampling line sampling point rotation: 9 min 80% 70% 60% 50% % wt cat 40% 30% 20% 10% 0% A B C D E F S1 S3 sampling line sampling point 11

C Fixed Bed oxychlorination catalysts Key Factors : INEOS catalysts CAN BE SUPPLIED ALREADY MIXED 280 Simulation of a 1st reactor (O2 Technology) TEMPERATURE PROFILE 270 260 250 240 230 220 210 0 0.5 1 1.5 2 2.5 3 3.5 z Normal Loadign Pattern - gas Temp 6% of catalysts in TOP zone - gas Temp 6% of catalysts in TOP zone - cat Temp Normal Loadign Pattern - cat Temp NOT HOMOGENEOUS MIXING DIFFERENT CONDITIONS IN DIFFERENT TUBES 12

Fixed Bed oxychlorination catalysts Key Factors : INEOS catalysts CAN BE SUPPLIED ALREADY MIXED Mixing is an important step to ensure homogeneity of activity and then good performance in terms of catalysts life and selectivity. INEOS has optimized the production of mixed materials (CATALYST IVOD-1/IVOD-2F) than can be loaded as they are directly in the reactor 13

Fixed Bed oxychlorination catalysts Key Factors : PRESSURE DROP Reactor's Pressure Drop Second Reactor Pressure Drop UP TO 20% REDUCTION 60% 70% 80% 90% 100% % capacity INEOS CATALYSTS 5x5 mm standard Catalyst LOW PRESSURE DROP HIGH CAPACITY 14

Reactor Pressure Drop Fixed Bed oxychlorination catalysts Key Factors : PRESSURE DROP TUBE'S DISTRIBUTION First Reactor Pressure Drop 50% 70% 90% 110% 130% 150% Capacity New IVOD-2F Diluent Standard IVOD-1 diluent TUBE PACKING QUALITY STANDAR DILUENT NEW DILUENT The new high performance IVOD-2F diluent: -Low dp for High Capacity Plant -Higher reactor homogeneity for better performance at harded conditions 15

Fixed Bed oxychlorination catalysts Key Factors : CATALYST LIFE C % of pellet with Coke Temperature profile and coke formation 290 270 250 230 210 190 170 150 0 50 100 150 200 z (reactor depth, 0=inlet) New Generation - Temperature Profile New Generation - coke formation OLD Generation - Temperature Profile OLD Generation - coke formation LOW FOULING RATE LOW COKE PRODUCTION RATE LONG CATALYST LIFE 16

Fixed Bed oxychlorination catalysts Key Factors : CATALYST LIFE Pressure Drop (catalyst integrity) Steam to O2 ratio Reactor Outlet Temperature Reactor's Pressure Drop THREE YEARS RUN WITHOUT CHANGE CATALYSTS LOW FOULING RATES and LONG STABLE ACTIVITY Time on Stream CASE B CASE A Catalyst's Activity 250 HIGH CAPACITY FOR LONGER TIME THREE YEARS RUN WITHOUT CHANGE CATALYSTS HIGHER FLEXIBILITY TO BUSINESS REQUIRMENTS Steam to O2 ratio Time on Stream Reactor out Temperature 200 17

Reaction Rate Reaction Rate Fixed Bed oxychlorination catalysts Key Factors : ACTIVITY AND SELECTIVITY Effect of Cu - Additive ratio on Activity Effect of Cu exposed on Activity 1.0 0.8 0.6 0.4 0.2 0.0 Additive / Cu mol/mol 1.0 0.8 0.6 0.4 0.2 0.0 Copper Exposed (CO probe molecule) - QUALITY OF RAW MATERIAL: HIGH PURITY ALUMINAS - CHEMICAL COMPOSITION: COPPER ADDITIVE - SURFACE AREA AND PORE VOLUME DISTRIBUTION OF ACTIVE SITES 18

Fixed Bed oxychlorination catalysts Key Factors : ACTIVITY AND SELECTIVITY % Ethylene to COx 0.6% INEOS CATALYSTS - PILOT PLANT RESULTS 0.5% 0.4% 0.3% 0.2% 0.1% 0.0% 98.6 98.8 99.0 99.2 99.4 99.6 99.8 100.0 HCl Conversion OLD GENERATION NEW GENERATION 19

Ethylene to COx Fixed Bed oxychlorination catalysts Key Factors : ACTIVITY AND SELECTIVITY INEOS Catalysts - Industrial Results OLD GENERATION HCl conversion NEW GENERATION EXCELLENT RESULT CAN BE OBTAINED AT CAPACITY 10-20% ABOVE THE DESIGN 20

INEOS Oxychlorination Fluid bed catalysts Ineos Fluid bed catalyst portfolio 21

INEOS Oxy Catalysts Main physical-mechanical features of our Catalysts Average Particle Size (microns) 55 Less than 20 microns (%) 2 Bulk Density (g/cc) 1.00-1.20 Very Low fines and moisture content INEOS fluid bed catalysts can be also added to the already present charge of catalyst. Mechanical properties and formulation allow mixing during top up without adverse influence on the reactor functioning. 22

Main Fluid Bed Catalyst Aspects Catalyst agglomeration (sticking) Active catalyst converts HCl and prevents the loss in fluidization Corrosion Accumulation of Iron increases the by products formation. 23

Main Fluid Bed Catalyst Aspects Erosion Support hardness Catalyst losses The attrition test measures the tendency of a catalyst to generate fines. Top up of the catalyst catalyst is periodically added to the reactor depending on the catalyst losses. 24

Fluid Bed Oxychlorination Catalysts: Activity High reactant conversion: Ethylene Conversion > 99.5% HCl Conversion > 99.5% 50% increase in rate same performance 25

Fluid Bed Oxychlorination Catalysts: Selectivity High Selectivity Reduced combustion rate EDC Purity > 99% (V/V) 26

Fluid Bed Oxychlorination Catalysts: Stability High reaction stability/ No sticking Able to operate at different reactant ratios without any fluidization problem 27

What impact could have Fluid Bed Catalysts? Example & some assumptions: 300 ktpa VCM plant, 50 tons of catalyst hold-up, 15tons/year of catalyst losses Operating rate 90% Assume cost of ethylene 0.75 USD/kg Assume EDC margins 100 USD/ton Assume 100% Ineos FB Catalyst and an increase in Ethylene Yield by 5% 28

What impact could have Fluid Bed Catalysts? Results: Increasing output by 10%: more than 2 M USD/yr Oxygen+ethylene saving: more than 0.65 M USD/y Caustic savings: more than 0.25 M USD/y Increase of the operating rate estimated in 5 days of more production: 0.29 M USD/y 29

Our Technical Service Offer for FIXED AND FLUID BED CATALYSTS On-site plant visit by INEOS catalyst expert to improve plant optimisation and discussions Training (fluid bed) of plant personnel during 3 to 5 days in our R&D facilities and pilot plant in Italy. Pilot plant tests at particular operating conditions following customer requests Studies concerning: Metal analysis (poisoning), Particle size distribution, Catalyst hardness (attrition/erosion) and mechanical strength, Stickiness, Catalyst activity-pilot plant testing, Operating parameters optimization, 30