Mettop GmbH ILTEC Ionic Liquid Cooling Technology

Similar documents
Bypassing Problems related to water cooling Case studyforiltec in EAF. AISTech18, 9 th May 2018

Mettop GmbH Summary of the ILTEC Technology

By-passing problems related to water cooling Case study for EAF

ILTEC Technology. Ionic Liquid Cooling Technology Description and Application

ILTEC - METTOP S REVOLUTIONARY COOLING SOLUTION FOR THE STEEL INDUSTRY

Bypassing Problems Related to Water Cooling: Case Study for Applying ILTEC in a 100-ton EAF

ILTEC A revolutionary and safe cooling solution for ferro-alloy furnaces

innovative system solutions METTOP GmbH Peter-Tunner-Strasse Leoben AUSTRIA

Refractory Engineering. Furnace Optimisation by Mettop

INNOVATIVE SOLUTIONS IN COPPER PRODUCTION LINES

Furnace integrity of ferro-alloy furnaces symbiosis of process, cooling, refractory lining, and furnace design

ILTEC Technology New Pathways Towards Safe and Effective Cooling

APPLICATION OF HIGH INTENSITY REFRACTORY COOLING SYSTEMS IN PYROMETALLURGICAL VESSEL DESIGN

EXTRACT FROM NEWSLETTER 2/2017 PRODUCTION OF NON-FERROUS METALS

Relining of Pohang No.3 Blast Furnace

Lecture 26 Degassing Practice

Metallurgical Gas Cleaning System Design for Emissions Control and Energy Efficiency

The generic requirements from blast furnace refractories are summarised below:

EVALUATING AC AND DC FURNACE WATER-COOLING SYSTEMS USING CFD ANALYSIS

IRONMAKING. solutions for processing direct-reduced iron (DRI) and by-products. Blast Furnace A, voestalpine Stahl GmbH, Austria

Water-cooled tap-hole blocks

MODERN BLAST FURNACE EQUIPMENT OF NIPPON STEEL & SUMIKIN ENGINEERING

RHI Refractory Solutions - a Reliable Partner for the Ferroalloys Industry

^ Springer. Innovation in Electric. Arc Furnaces. Ilyaz Y. Zinurov. Scientific Basis for Selection. Yuri N. Toulouevski. Revised and Supplemented

in iron-making industry

Low-cost hot metal from a blast furnace (BF) can be

COPPER SMELTER PROJECTS & SERVICES

FIRST OPERATING EXPERIENCES WITH POST-COMBUSTION LANCES AT BOF SHOP LD3

ADVANCED BLAST FURNACE BOSH AND STACK SYSTEMS R.J. van Laar and R.G. van Oudenallen Danieli Corus BV Rooswijkweg 291, Netherlands

DANIELI S GREEN STEEL VISION: FIRST STEP TOWARDS ZERO ENERGY FTP AT ABS STEELMAKING PLANT (ITALY)*

Long Life Copper Stave for Blast Furnace Developed by Nippon Steel & Sumikin Engineering

FURNACES, CONVERTERS, AND PROCESS TECHNOLOGY

EAF Technology and process

THE VALUE OF ENERGY & RESOURCE TOWARDS AN EFFICIENT FUTURE STEELMAKING

STEEL SUCCESS STRATEGIES XXVII PREPARE FOR THE TAKE OFF BAD TIMES TO GOOD TIMES Technology to the Rescue Part I

PASSION FOR METALS Excellence in non-ferrous metals Profitable solutions for your success

Innovative and Safe Copper Launder Design

MELTING PROCESS INTENSIFICATION AT 20 t EAF - ŽĎAS, A.S.

New Opportunities - Exhaustive Monitored Copper Coolers for Submerged Arc Furnaces

MANUFACTURE OF IRON OR STEEL (preliminary treatment of ferrous ores or scrap C22B 1/00; electric heating H05B)

Casthouse Machinery. Casthouse Machinery

Secondary Steelmaking 1 Synthetic slag practice, injection ladle metallurgy, deoxidation

Sensors and measurement techniques for monitoring and control of the EAF process

Wet granulation of blast furnace slag has been

Increase the Cooling Efficiency of Casting Furnace Stave Cooler with Use of Experimental and Analytical Analysis

Copper Smelting Slideshow

Steel Making Prof. Deepak Mazumdar Prof. S. C. Koria Department of Materials Science and Engineering

Electric Furnace Off-Gas Cleaning Systems Installation at PT Inco ABSTRACT

FAQS WITH REGARDS TO OPERATING A CU ER TANKHOUSE ABOVE 400 A/m 2 USING METTOP-BRX TECHNOLOGY

Experimental and Analytical Results on H 2 SO 4 and SO 3 Decomposer for IS Process Pilot Plant

OPERATING EXPERIENCE AT A 170 t EAF WITH EPC SCRAP PREHEATING SYSTEM KNUT RUMMLER* DR. HEINZ MÜLLER**

NON- FERROUS METALS Measurement Solutions for Process Optimisation

Current Refractory Technology and Practices in the Steel Industry

Heat exchangers and thermal energy storage concepts for the off-gas heat of steelmaking devices

SHARC - Shaft arc furnace with efficient scrap preheating concept provides low conversion costs

Casting & Welding Engineering (IE 203)

Computational Study of Blast Furnace Cooling Stave using Heat Transfer Analysis

Refractory Systems Non-ferrous Metallurgy

Corrosion in GASCO Habshan CBA Units and its mitigation

EFFICIENT VACUUM CONVERTER FOR INDIVIDUAL NEEDS Refined steels and ferroalloys

MGO-C REFRACTORY SELECTION AND EVALUATION FOR STEELMAKING VESSELS. J Terblanche Arcelormittal

NFM / Agellis. Non-Ferrous Metals. Measurement Solutions for Process Optimisation. RHI Magnesita

Sulfur Unit Equipment Problems and Low Silicon Carbon Steel Corrosion Gerald W. Wilks Lemont Refinery CITGO Petroleum

CHARGING PRACTICE OF BLAST FURNACE OPERATED WITH 100% ACID PELLETS

PRODUCT DESCRIPTION PARAMETERS

COMPUTATIONAL MODELING OF BLAST FURNACE COOLING STAVE BASED ON HEAT TRANSFER ANALYSIS

Refractory and Service in System

Operating results of Goodfellow EFSOP at Riva Galtarossa, Italy

Control Flow Scantrol

Developments of OJSC Scientific-Research Institute of Metallurgical Heat Engineering (VNIIMT)

BLAST FURNACE BOSH DESIGN AND REPAIRS

Blast Furnace Cooling Stave Design

Lecture 14 Modern trends in BOF steelmaking

Sulfur Tail Gas Thermal Oxidizer Systems By Peter Pickard

Vessel relining and maintenance strategies play a major

A Review of Sulfide Smelting Process Gas Handling Systems

Magnetically Coupled Submerged Cryogenic Pumps and Expanders for Ammonia Applications

Downsizing a Claus Sulfur Recovery Unit

The design features of the HTR-10

Module 05 WWER/ VVER (Russian designed Pressurized Water Reactors)

We look forward to hearing from you.

PROCESS GAS WASTE HEAT BOILERS WITH THIN FLEXIBLE TUBESHEET DESIGN

Water Cooled Oil Cooler

A High Temperature Gas Loop to Simulate VHTR and Nuclear Hydrogen Production System

Comparison of Molten Salt and High-Pressure Helium for the NGNP Intermediate Heat Transfer Fluid

in ferrous foundry industry

NON-DESTRUCTIVE TESTING (NDT) TECHNIQUES FOR DETERMINATION OF REFRACTORY DETERIORATION IN SMELTING FURNACES

Measuring of liquid steel temperature in secondary metallurgy. Torsten Lamp, Marek Cichonski, Harald Fischer, Mark Potter

Steel is the most important material for the

Lecture 17 Alternative Charge Materials in EAF

Development of the Oxy-BF for CO 2 Capture Application in Ironmaking

FEASIBILITY OF USING ULTRASONIC TECHNIQUE TO MEASURE THE BLAST FURNACE LINING THICKNESS

TENOVA i EAF TECHNOLOGY. A Roadmap to Sustainable Long-Term Savings for EAF Steelmaking TENOVA. INNOVATIVE SOLUTIONS FOR METALS AND MINING

REFINING STEELS PRODUCED IN ELECTRIC ARC FURNACE

ORC TURBOGENERATOR TYPE CHP - Organic Rankine Cycle Turbogenerator fed by thermal oil, for the combined production of electric energy and heat -

VVER-440/213 - The reactor core

Design Innovation and Practice of Laiwu. Steel 3 # 4,000 m³ Blast Furnace

Structure Optimization of Ladle Bottom Based on Finite Element Method

Steel Making Prof. Deepak Mazumdar Prof. S. C. Koria Department of Materials Science and Engineering

IMPROVEMENT OF AIR BLAST SUPPLY OF UPRIGHT CONVERTER

Transcription:

Mettop GmbH ILTEC Ionic Liquid Cooling Technology 13 th September 2016

Introducing Mettop Mettop GmbH is an Austrian engineering company founded in 2005 by Dr. Iris & Dr. Andreas Filzwieser. The company focuses on providing pyro- and hydrometallurgical process improvements and optimization for the non-ferrous industry as well as for iron and steel processing industry.

Mettopat a Glance Meet Customers Problems Tailor-made process optimization Tankhouse Engineering Furnace Integrity Cooling Technology METTOP-BRX Technology Basic Engineering Detail Engineering Feasibility Studies Consulting decreasing OPEX Consulting increasing Current Efficiency Process Modelling CFD Simulation Gas Purging Systems 3D Refractory Engineering Cooling Solutions ILTEC Technology Feasibility Studies

Furnace Integrity Holistic Approach for Optimized Furnace Performance

FurnaceIntegrity Optimized Metallurgical Performance Process Modelling Refractory Engineering Furnace Modules and Components HSC Modelling Special Copper Coolers Purging Systems CFD Modelling

Furnace Cooling Special cooler design for optimized cooling performance

WhyCooling? Advantages of an Optimized Cooling Solution Cooling of refractory is inevitable for smelting operations to intensify their performance. Better cooling of the refractory leads to a more steep temperature gradient within the lining. Steeper temperature gradient means less area for possible infiltration of liquid slag or metal. Less infiltration leads to better wear performance of the refractory material. Better performance of refractory lead to increase in lifetime, increase in campaign lifetime and to a more cost saving and economical production

Different Cooling Solutions Standard Coolers Stave Coolers Copper cooler (stave) for a blast furnace shaft cooling solution. Plate Coolers Different solutions for side wall cooling of an electric arc furnace Plate coolers at the outer wall, behind the brickwork Plate coolers in between the layers of the bricklining for an even better cooling performance Different copper cooling panels

Different Cooling Solutions High Intensity Coolers Waffle Type Coolers Refractory filled and dovetailed grooves on the element hot face and cooper fins between. CFM Coolers (Composite Furnace Modules) Casted copper fingers combined with castable refractory. Source: M.W. Kennedy, p. Nos, M. Bratt and M. Weaver: Alternative coolants and cooling system designs for safer freeze lined furnace operation,

CFM -ExamplesofUse Composite Furnace Module Cooling Anode Furnace Off gas Junction Electric Arc Furnace Off gas opening Tilting Furnace Charging mouth

Cooling Technology Revolutionary new: ionic liquid cooling technology (ILTEC)

ILTEC Technology Why rethinking cooling solutions? Fatal accidents caused by water coming into contact with liquid metal happen every year. Water + liquid metal = 1700 times volume expansion plus potential oxyhydrogen reaction. 2007 Norway 1 fatality 2007 China 16 dead, 64 injured

FurnaceIntegrity Optimized Safety CFM Cooling Composite Furnace Module

ILTEC Technology Revolutionary new and water free cooling technology The ILTEC Technology is characterized by the following: Instead of water the ionic liquid IL-B2001 is used as cooling medium IL-B2001 is a salt which is liquid at room temperature and can be used up to 200 C operating temperature If there is a leak in the cooling system, the IL-B2001 decomposes into its components (at 450 C) without sudden increase in volume and without formation of hydrogen. If it comes in contact with liquid metal there will be no explosions and work safety can be guaranteed No corrosion problems, since the IL-B2001 can be used as a cooling medium at higher temperatures (above the dew point of the exhaust gases) Due to the higher temperature (up to 200 C), the dissipated heat can also be recovered again. This advantage will play a particularly important role in the future

Ionic Liquid IL-B2001 Characteristic Properties Symbol Value Unit Range Operation temperature 50-200 [ C] ΔT = 150 C Short term stability 250 [ C] Decomposition temperature 450 [ C] Solidification range -63 15 [ C] Density ρ 1.25 1.14 [kg/dm 3 ] 50 200 C Specific heatcapacity c p 1.38 1.70 [J/gK] 50 200 C Dynamic viscosity η 20 5 [mpa s] 50 200 C Thermal expansion coefficient α 6.61 10-4 [1/K] Electrical conductivity Κ 30 130 ms/cm Almost no vapour pressure below decomposition temperature Not flammable below decomposition temperature Non toxic Non-corrosive

Ionic Liquid IL-B2001 Optimized Properties

Ionic Liquid IL-B2001 Optimized Safety Industrial Scale Tests with IL-B2001 introduced into liquid steel melt No reaction when liquid steel melt gets in contact with IL-B2001 Improved safety standards

ILTEC Technology Hardware Main components: Tank filled with IL-B2001, the freeboard volume above the liquid level is purged with nitrogen to prevent hydration of the liquid through moisture in the air Two identical pumps (one for redundancy in case of breakage or malfunction) guarantee the flow of the IL through the entire pipe system Two heat exchangers for removing the heat to the secondary cooling circuit, again one in operation, one for redundancy Numerous measuring devices (digital as well as analogue) throughout the entire system to measure temperature, flow, pressure and differential pressure Variety of valves, adjusting wheels and shut-off devices for all different operation modes

ILTEC Technology Scope of Service by Mettop Basic and detailed Engineering Manufacturing and Assembly of ILTEC including IL-B2001 Installation and Start up on Site Fotos der Installlation

ILTEC Technology Possible applications of ILTEC-Technology with IL-B2001 Substitution of water in existing systems Blast furnace taphole, formerly cooled with water Newcooling applications Possibility of heat recovery Side Wall Cooling beneath bath level No cooling so far because of danger Sufficient heat transfer and higher outlet temperature of up to 200 C enables heat recovery

ILTEC Technology Excerpt of the limitless Possibilities

Primary Metallurgy -BF Potential Application for ILTEC and Optimized Coolers (CFM) Blast Furnace Tap hole Tuyere cooling Side wall cooling stave cooling Casthouse main runner system Hot metal trough Side wall cooler Wear zone in hot metal trough Cooled copper tuyere

ILTEC Technology ArcelorMittal Bremen Tap Hole, initially water cooled IL-Inlet IL-Outlet Refractory mass TP-9BM Cu-Stave Carbon NDK BC8-SR Coranit Al Steel shell Mass ZBU 155-25SiC Ucar NMD

ILTECTechnology Industrial scale application at Blast Furnace CFM Modelling Temperature distribution during tapping and during normal operation Temperature distribution during tapping and during normal operation

Blast Furnace Tap Hole Substitution of water in existing tap hole Tape Hole Cooling Blast Furnace ArchelorMittal, Bremen (Germany). since October 2015

Iron and Steel Industry Potential Application for ILTEC and Optimized Coolers (CFM) EAF Furnace: Cooling of bottom shell side wall Cooling of upper shell panels Siphon tapping Cooling of Offgas System Gas Cleaning Lance and lance manipulator Eccentric bottom tapping Cooling of area of slag door Side wall hot spot Cooled off gas duct Slag door wear area Cooled eccentric bottom tapping

Side Wall Cooling Plate cooler in bottom shell Different approaches for side wall cooling: Plate cooler for cooling in between brick lining and steel shell CFM cooler for whole side wall CFM cooler for slag line and copper cooler behind brick lining

Side Wall Cooling CFM cooler in bottom shell CFM cooler Slag spout CFM cooler Slag level Liquid steel bath Sill level Gas purging plug Copper fingers Castable refractory Transportation suspensions Different Approaches for side wall cooling: CFM cooler for whole side wall CFM cooler for slag line and copper cooler behind brick lining Copper back plate Monel pipes

ZincOxide Furnace Industrial scale application for side wall cooling at higher temperatures Cooling of furnace walls For preventing temperatures below the dew point, installed at Nyrstrar (Norway) and in operation since January 2015 No corrosion of the steel structure due to selective cooling to temperatures of 180 C and hence preventing of condensation of sulfuric acid Increase lifetime of entire vessel

ILTEC Technology Hardware as installed in Hoyanger

RH Degassing Industrial scale application at a steel vacuum degassing system Cooling of all flanges as the connection parts between nozzle and lower part and lower and upper part For increased operating safety at voestalpine Donawitz GmbH, Austria. Start up in 2017

MettopGmbH www.mettop.com Dr. Martina Hanel +43 664 88 60 45 50 Martina.hanel@mettop.com