Method of determination of thermo-flow parameters for steam boiler
Abstract
The paper presents a method for determining thermo-flow parameters for steam boilers. This method allows one toperform the calculations of the boiler furnace chamber and heat flow rates absorbed by superheater stages. Theseparameters are important for monitoring the performance of the power unit. Knowledge of these parameters makesit possible to determine the degree of furnace chamber slagging. The calculation can be performed in online modeand used in the monitoring of the steam boiler. The presented method allows the steam boiler to be run at highefficiency.References
[1] H. Bilirgen, Slagging in pc boilers and developing mitigation
strategies, Fuel 115 (2014) 618–624.
[2] N. Harding, D. O’Connor, Ash deposition impacts in the power
industry, Fuel Processing Technology 88 (11) (2007) 1082–
1093.
[3] L. M. Romeo, R. Gareta, Hybrid system for fouling control in
biomass boilers, Engineering Applications of Artificial Intelligence
19 (8) (2006) 915–925.
[4] L. M. Romeo, R. Gareta, Fouling control in biomass boilers,
Biomass and bioenergy 33 (5) (2009) 854–861.
[5] A. Syed, N. Simms, J. Oakey, Fireside corrosion of superheaters:
Effects of air and oxy-firing of coal and biomass, Fuel
101 (2012) 62–73.
[6] J. Taler, M. Trojan, D. Taler, Monitoring of Ash Fouling and
Internal Scale Deposits in Pulverized Coal Fired Boilers, Nova
Science Publishers, New York, 2011.
[7] J. C. Ste˛pien´ , A. Salij, M. E. Poniewski, Impact of biomass cofiring
on selected parameters of a 225 mw power unit, Journal
of Power Technologies 95 (Polish Energy Mix 2014) (2015)
84–90.
[8] H. Othman, J. Purbolaksono, B. Ahmad, Failure investigation
on deformed superheater tubes, Engineering Failure Analysis
16 (1) (2009) 329–339.
[9] A. K. Ray, Y. Tiwari, R. Sinha, P. Roy, S. Sinha, R. Singh,
S. Chaudhuri, Remnant life assessment of service-exposed
pendent superheater tubes, Engineering Failure Analysis 9 (1)
(2002) 83–92.
[10] P. Madejski, D. Taler, Analysis of temperature and stress distribution
of superheater tubes after attemperation or sootblower
activation, Energy Conversion and Management 71 (2013)
131–137.
[11] N. Kuznetsov, W. Mitor, I. Dubovski, E. Karasina, Thermal
calculations of steam boilers. standard method, Energia:
Moscow, Russia.
[12] A. Blokh, Heat transfer in steam boiler furnaces, hemisphere,
Washington, DC.
[13] S. Kakac, Boilers, evaporators, and condensers, John Wiley &
Sons, 1991.
[14] J. Taler (Ed.), Thermal and flow processes in large steam boilers.
Modeling and monitoring, WNT Scientific and Technical
Publishing, Warsaw, 2011, in Polish.
[15] W. Wagner, H. J. Kretzschmar, International Steam Tables
Properties of Water and Steam Based on the Industrial Formulation
IAPWS-IF97, Springer-Verlag, Berlin, 2008.
[16] J. Taler, D. Taler, P. Ludowski, Measurements of local heat flux
to membrane water walls of combustion chambers, Fuel 115
(2014) 70–83.
[17] J. Taler, D. Taler, Heat Flux: Processes, Measurement Techniques
and Applications, Nova Science Publishers, New York,
2012, Ch. Measurement of heat flux and heat transfer coefficient,
pp. 1–104.
[18] P. Duda, J. Taler, A new method for identification of thermal
boundary conditions in water-wall tubes of boiler furnaces, International
Journal of Heat and Mass Transfer 52 (5–6) (2009)
1517–1524.
[19] J. Taler, D. Taler, Heat Transfer, InTech, Rijeka–Shanghai,
2012, Ch. Measurements of Local Heat Flux and Water-Side
Heat Transfer Coefficient in Water Wall Tubes, pp. 3–34.
strategies, Fuel 115 (2014) 618–624.
[2] N. Harding, D. O’Connor, Ash deposition impacts in the power
industry, Fuel Processing Technology 88 (11) (2007) 1082–
1093.
[3] L. M. Romeo, R. Gareta, Hybrid system for fouling control in
biomass boilers, Engineering Applications of Artificial Intelligence
19 (8) (2006) 915–925.
[4] L. M. Romeo, R. Gareta, Fouling control in biomass boilers,
Biomass and bioenergy 33 (5) (2009) 854–861.
[5] A. Syed, N. Simms, J. Oakey, Fireside corrosion of superheaters:
Effects of air and oxy-firing of coal and biomass, Fuel
101 (2012) 62–73.
[6] J. Taler, M. Trojan, D. Taler, Monitoring of Ash Fouling and
Internal Scale Deposits in Pulverized Coal Fired Boilers, Nova
Science Publishers, New York, 2011.
[7] J. C. Ste˛pien´ , A. Salij, M. E. Poniewski, Impact of biomass cofiring
on selected parameters of a 225 mw power unit, Journal
of Power Technologies 95 (Polish Energy Mix 2014) (2015)
84–90.
[8] H. Othman, J. Purbolaksono, B. Ahmad, Failure investigation
on deformed superheater tubes, Engineering Failure Analysis
16 (1) (2009) 329–339.
[9] A. K. Ray, Y. Tiwari, R. Sinha, P. Roy, S. Sinha, R. Singh,
S. Chaudhuri, Remnant life assessment of service-exposed
pendent superheater tubes, Engineering Failure Analysis 9 (1)
(2002) 83–92.
[10] P. Madejski, D. Taler, Analysis of temperature and stress distribution
of superheater tubes after attemperation or sootblower
activation, Energy Conversion and Management 71 (2013)
131–137.
[11] N. Kuznetsov, W. Mitor, I. Dubovski, E. Karasina, Thermal
calculations of steam boilers. standard method, Energia:
Moscow, Russia.
[12] A. Blokh, Heat transfer in steam boiler furnaces, hemisphere,
Washington, DC.
[13] S. Kakac, Boilers, evaporators, and condensers, John Wiley &
Sons, 1991.
[14] J. Taler (Ed.), Thermal and flow processes in large steam boilers.
Modeling and monitoring, WNT Scientific and Technical
Publishing, Warsaw, 2011, in Polish.
[15] W. Wagner, H. J. Kretzschmar, International Steam Tables
Properties of Water and Steam Based on the Industrial Formulation
IAPWS-IF97, Springer-Verlag, Berlin, 2008.
[16] J. Taler, D. Taler, P. Ludowski, Measurements of local heat flux
to membrane water walls of combustion chambers, Fuel 115
(2014) 70–83.
[17] J. Taler, D. Taler, Heat Flux: Processes, Measurement Techniques
and Applications, Nova Science Publishers, New York,
2012, Ch. Measurement of heat flux and heat transfer coefficient,
pp. 1–104.
[18] P. Duda, J. Taler, A new method for identification of thermal
boundary conditions in water-wall tubes of boiler furnaces, International
Journal of Heat and Mass Transfer 52 (5–6) (2009)
1517–1524.
[19] J. Taler, D. Taler, Heat Transfer, InTech, Rijeka–Shanghai,
2012, Ch. Measurements of Local Heat Flux and Water-Side
Heat Transfer Coefficient in Water Wall Tubes, pp. 3–34.
Published
2015-12-30
How to Cite
TALER, Jan et al.
Method of determination of thermo-flow parameters for steam boiler.
Journal of Power Technologies, [S.l.], v. 95, n. 4, p. 309--316, dec. 2015.
ISSN 2083-4195.
Available at: <https://papers.itc.pw.edu.pl/index.php/JPT/article/view/740>. Date accessed: 22 dec. 2024.
Issue
Section
RDPE 2015 Conference
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