Company LOGO. High-Emissivity Coatings

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Transcription:

Company LOGO High-Emissivity Coatings

Energy Efficiency Opportunities 1. Complete combustion with minimum excess air 2. Proper heat distribution 3. Operation at the optimum furnace temperature 4. Reducing heat losses from furnace openings 5. Maintaining correct amount of furnace draft 6. Optimum capacity utilization 7. Waste heat recovery from the flue gases 8. Minimize furnace skin losses 9. Use of ceramic coatings 10.Selecting the right refractories UNEP 2006

High-Emissivity Coatings Properties How it works Applications Results

Composition Binding Agent Emitting Agent High- Emissivity Coating

Basic Properties Viscous Liquid High Density HEC Water Based Non-Toxic Non-Explosive Non-Flammable

Coating s Properties Chemical Thermal Mechanical Stability HEC High Adhesion Long-life High Emissivity

Emissivity, ε Emissivity 1 0,8 High-Emissivity Coating 0,6 0,4 0 500 1000 1500 Temperature, С Castable Fire Brick Ceramic Fibre

Energy Distribution uncoated Refractory coated Refractory ε=0,45 ε=0,92 40% 55% 87% 8%

Tubes surface coating Thermal conductivity 29 W/m*К 28 W/m*К 15 W/m*К Tube surface temperature 620 С 640 С 715 С white metal coated with scale

Coating process Sandblasting Spraying Drying

Results Efficiency Increase Equalized Heat Distribution Protection from Bad Factors High Economic Performance Emission Reduction

Results Efficiency increase Fuel Saving Yield Increase Thermal Efficiency Increase Flue Gas Temperature Decrease Tubes Surface Temperature Decrease

SOLCOAT Certificates CTK-EURO is the official exclusive representative of SOLCOAT Ind. The staff of the company is fully trained and allowed to check the surface preparation and to apply the ceramic coatings.

State Certificates

Results Equalized Heat Distribution Elimination of Hot/Cold Spots Increase of Furnace Lifetime Heat Loss Decrease Coking Reduction

Thermography Distillation unit furnace Before coating Distillation unit furnace After coating

Equalized Heat Distribution Heat Distribution without HEC Heat Distribution with High- Emissivity Coating Company Logo

Results Tubes in Radiation Chamber Before Coating After Coating

Results Protection from Bad Factors Protects Tubes from Corrosion Prevents Scale Build-up on Surfaces Hot Gas Erosion Resistant Removes Acid Gases Influence Extends Lifetime of Refractory

Results High Economic Performance Low Investments Easy Installation No Operating costs Short ROI cycle High Payback Long Lifetime

Applicable Industries Petrochemistry Fire Heaters Incinerators Metallurgy Hot Stove Blast Furnace Coke Oven Anneal Furnace, Forges Power Generation Boilers Recycling Waste Incinerators

Case Study Project Name: Location: Furnace Information Furnace Type: Fuel Type: Substrate: Deep Oil Refining Unit Refinery, Russia Fire Heater Fuel Gas + Fuel Oil Operating Temp: 750-770 C Background: Application Information 20 year-old Concrete and new Process Tubes (08Х18-Н10Т) Furnace temperature is controlled by furnace exit temperature. Customer looked for overall thermal improvements in the unit. Hi-E Coating was applied on the process tubes and the hard refractory sidewalls. The application took place in November, 2011.

Deep Oil Refining Unit KT-1/1 Furnace F-102 during the unit reconstruction

Deep Oil Refining Unit KT-1/1 Furnace F-102

Deep Oil Refining Unit KT-1/1 ~ 760 790 C Bridge Wall Temperature ~ 600 C ~ 600 630 C Flue Gas Temperature ~ 460 C

Deep Oil Refining Unit KT-1/1 540 C 480 C Flue Gas Temperature 2012

Case Study 2012 Bridge Wall Temperature 700 C 650 C Flue gas temperature Bridge wall temperature Average for 2011 Average for 2012 615 499,4 776 674

Deep Oil Refining Unit KT-1/1 Efficiency (calculated on-line) 67-70% about 60%

Deep Oil Refining Unit KT-1/1 High-Emissivity Coating Benefits: Bridge Wall Temperature and Flue Gas Temperature decrease of 100-120 C On-line calculated Efficiency increase up to 7% Specified fuel saving is 3-5% Reduced air emissions Expected benefits (the unit will shutdown only in 2015) Decreased fouling of process tubes Extended Lifetime of Refractory

Distillation Unit Project Name: Distillation Unit #6 Location: Refinery, Russia Furnace Information Furnace Type: H-1, H-2 two-slopped Fuel Type: Fuel Gas + Fuel Oil Application Information: Hi-E Coating was applied on the process tubes and the hard refractory sidewalls. The application took place in November 2012.

Distillation Unit

Furnace Distillation Unit Flue gas temperature, С Wall bridge temperature, С Before coating After coating Difference Before coating After coating Difference H-1 509 407 102 751 640 111 H-2 503 456 47 758 668 90

Increase the furnace efficiency Before coating After coating Difference 64.4 60.4 59.6 61.2 67.0 73.4 74.8 70.5 % 4.0 1.6 6.4 4.3 DU-6, H-1 DU-6, H-2 L-24/9, H-1 L-24/9, H-2

Specific fuel saving Before coating After coating Fuel saving,% kg /t 420 395 33.9 28.7 28.3 27.0 15.3 4.6 12.6 10.8 14.3 6.0 КТ-1-1 DU-6 L-24/9 KPA

Unit Economy via the fuel saving Feedstock flowrate, t/month Real Fuel Saving, kg/tonnes Saved Fuel, t/month. Evaluated Economy *, thousands Rubles per month КТ-1/1 324802 5,2 1689,0 9 862,6 KPA 81774,5 25 2044,4 11 937,9 DU-6 122400 1,3 159,1 929,2 L-24-9 6417 1,8 346,5 2023,5 *Assume that 1 ton of the Fuel oil (mazut) = 1,37 tons of standard fuel Price of 1 ton of the Fuel oil (mazut) = 8 000 Rub.

Cases of coating FURNACES UNITS DATE EFFICIENCY INCREASING, % FUEL SAVING, % F 601/1 2,9 5,6 F 601/2 КТ-1/1, Deep Oil Refining Unit Oct.-Nov. 2011 2,9 5,6 F-102 2,9 5,6 BH 311-314 2,6 6,6 BH 315 Aromatics Production 5,1 6,6 Apr. 2012 BH 1031A Complex 7,2 6,6 BH 1031B 4,1 6,6 F-1 4,2 4,6 DU-6, Crude oil Oct.-Nov. 2012 Distillation Unit F-2 1,6 4,6 F-1 Diesel Hydrotreating 6,5 4,6 Apr. 2013 F-2 Unit 4,5 4,6

Cases of Coatings TYPE OF FURNACE Reforming Furnace (semi-continuous catalyst regeneration) Reforming Furnace (continuous catalyst regeneration) COATING Refractory Tubes EFFICIENCY INCREASING*, % + + 6,0 12,0 + + 7,0 15,0 Delayed Cocking Unit Furnace + + 5,0 10,0 Atmospheric Distillation Furnace + + 3,0 7,0 Vacuum Distillation Furnace + + 3,0 7,0 Hydrotreating Unit Furnace + + 2,5 5,0 Other furnaces + + Up to 15 % Steam reforming Unit Furnace + 2,5 7,0 Ethylene Pyrolysis Furnace + 1,5 4,0 * According to HEC Producers Information

Ceramic coating condition after 2,5 years of operation

European Project in Bulgaria Our first European project with application of High-Emissivity Coatings technology was implemented in LUKOIL Neftochim BURGAS (Bulgaria)

European Project in Bulgaria Project Name: Location: Furnace Information Furnace Type: Fuel Type: Substrate: Background: Heater P-1 Atmospheric Vacuum Distillation (AVD-1) LUKOIL Neftochim BURGAS, Bulgaria Double-chamber Vertical Fire Heater 55,56 Gcal/h (Foster Wheeler Iberia, 2009) Fuel Gas Concrete refractory and alloyed Process Tubes The project was completed on the basis of an open Tender in order to reduce of the fuel consumption Payment for the work performed from the real resulting effect. Application Information: Hi-E Coating was applied on the process tubes and the hard refractory sidewalls. The application took place in February, 2014.

P-1 Heater AVD-1

Some photos of process performance Сleaned surfaces of process tubes and liners prepared for coating Surfaces covered with High Emissivity Coatings Company Logo

The results of the application Company Logo

Company Logo

Company LOGO Thank You!