RECYCLING REFRACTORIES FROM AN ENDUSER S VIEWPOINT

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Transcription:

RECYCLING REFRACTORIES FROM AN ENDUSER S VIEWPOINT

Contents Introduction Page 3-5 Why Recycle Page 6 Potential Industries Page 7-8 What is Recyclable Page 9-12 Examples Page 13-19 Terminology Page 20 Partnership Page 21-22 Advantages Page 23-25 Conclusion Page 26-28 Questions Page 29

Introduction Mass Balance of Refractories after Use Based on the original materials installed: 35 % dissolved/consumed in within the process 27 % is used in non refractory applications 20 % can be recycled as secondary refractory material 18 % is disposed as waste (mostly fines) Reference: PRE Position and Reference Paper, Management of Refractories in Europe, R 53 December 2002

Market for Secondary Raw Materials - Worldwide Market refractories: 23 Mio. t Market sec. raw materials: 1,6 Mio. t

Industries using Products made of Secondary Raw Materials Industries using RHI products: Industries using our products made of secondary raw material:

Why Recycle Refractories? Motivation for Recycling Sustainable protection of natural resources Less exploitation, thus saving nature Lowering CO 2 emissions created by producing raw materials Reduce landfill volume Save landfill costs Reduce liability of land filled material (cradle to grave) Effects of Recycling Save raw material costs Improve environmental balances and figures Introduce new products in new markets Closer cooperation between refractory supplier and customer Introduction of recycling specialists to improve treatment and distribution of recycled materials Stay ahead of ever changing EPA regulations on landfill materials.

Potential Industries for Recycling

Industries and Furnace Types Environmental Energy Chemical Non-Ferrous Metals Cement and Lime Industrial Incineration Power Generation Oil Refineries Chemical & Petrochemical Pulp & Paper Kiln Furniture Primary Secondary Cement Lime Flat Glass Container Glass Glass Water Glass Fibre Glass Specialty Glass Dinner Ware EAF BOF Iron/Steel Ladles Reheat Furnace Torpedo Cars Flow Control Induction Furnace

BOF Converters Desirable MgO-Carbon MgO Contaminant Metal/Slag Alumina refractory Fines

Electric Arc Furnace Desirable MgO-Carbon MgO Electrodes Contaminant Metal/Slag Fines

RH/DH Degasser Units Desirable MgO MgO-Chrome Contaminants Alumina refractory Metal/Slag Fines

Ladles Desirable MgO MgO-Carbon AMC Slide Gates Alumina Contaminants Dolomite Metal/slag

Example from Steel Industry Breakout from steel industry before sorting MgO-C scrap after sorting and cleaning

Close up of Unprocessed Bricks Yield affected by: Steel Nozzles Fines Hydrated Brick Hi Alumina castable Bricks stuck together

Removing Metal and Slag

Grizzly Spacing @ 3 to separate the large pieces. Remove alumina and large pieces of brick stuck together. Fines separated. May elect to remove large pieces for recycling. May elect to crush large pieces for melt shop addition.

Example from Glass Industry Breakout from glass industry before sorting AZS after sorting and cleaning

Example from Foundry Alumina Graphite from Foundry before sorting After cleaning and sorting

Examples from Other Sources High Alumina Precast Shapes Porcelain Scrap

Recycling Terminology European waste management legislation uses following terminology for refractory breakout: Materials that have not been used or changed in chemical or mineralogical compositions during use. Can be used directly as secondary raw material. Materials that have been used and no changes in composition. Pose no environmental risk. Can be used as secondary raw material when processed according to the specification for their use as secondary raw material. Materials that have been used and pose some environmental risk. Only authorized or competent recycling companies are permitted to separate, clean and convert them into non-hazardous secondary raw materials.

Partnership Production Plant RHI-AG Processor To make the spent product usable for recycling Processing companies have become increasingly important. Closer cooperation between production plant, the processor and the supplier is necessary to increase the consumption rate of secondary raw materials.

Recycled Materials vs Availability Recycled Material Most Desirable Availability Least Available - - Least Desirable Most Available Reference: Mineralen Kollee

Minimising Refractory Waste Demolition: Determine the classes of breakout materials. Select and segregate refractory types. Supervision during demolition. Processing: Separation of fines, large pieces and debris from the desirable refractory. This increases purity of materials with higher value.

Maximising Waste Value Production Plant Selective demolition of spent refractory Increase purity of materials with higher value Supervision during demolition Determine the classes of breakout materials Recycling Partner Improve separation techniques Remove infiltration zones to increase the degree of purity Improve sorting techniques introducing technical equipment to sort the different refractory types Find alternative applications for materials that cannot be reused in refractory

Conclusion A financially and environmentally productive recycling program requires cooperation by all three partners. This is accomplished by: Determining what can be recycled. How can the refractory be removed, segregated and stored. Establish Standard Operating Parameters (SOP s) throughout the process. Maintain communication among all three partners.

Conclusion Recycling of refractories is one of RHI s main focuses in regard of raw material availability and cost savings. Recycling concepts are put in place. New products based on secondary materials are introduced. Cooperations with recycling partners allows us to increase the amount of high purity materials. Advantages include saving natural resources, reduce carbon emissions, reduce landfill, save landfill costs and provide cost savings to our customers. The refractory industry and it s partners have made immense progress in improved usage, reuse, recovery, recycling and waste minimization. The achievements to date prove a solid basis for further progress and for improved sustainability.

Conclusion Every recycling program is unique but our common goals and the commitment to succeed will overcome any obstacle. It is easy to send spent refractory to landfill but rising taxes along with environmental fees and increased pressure on our natural resources will leave us with no option but to utilize this vital secondary raw material.

Questions For more information contact: Werner Odreitz Cell: 0043-699-18705107 Office: 0043-50213-5107 E-Mail: werner.odreitz@rhi-ag.com