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Study of the Environment Priority Facility Operation Concept of 500MW Standard Coal Thermal Power Plant

500MW 표준석탄화력발전소의 환경안전우선 설비운영개념 도입방안 고찰

  • Received : 2022.03.22
  • Accepted : 2022.06.13
  • Published : 2022.06.30

Abstract

In korea, 500MW standard coal fired power plants were designed and operated for the initial base load, so facility stability was prioritized from facility problem to treatment, but now we needed to research for minimizing greehouse gas emissions at the operation of coal fired power plants. research on various facilities and technologies was actively conducted to reduce environment pollutants was drastically reduced, but research and attempts on coping measures in the event of a reduction facility problem were in sufficient. this study considered investigated ways to minimized pollutants by quickly responding to logic development and application of the load runback concept in case of serious problems with environmental pollutant reduction facilities such as NOx reduction selective catalytic reduction facilities, SOx reduction wet flue gas desulpherisation facilities, and TSP(Total Suspended Particles) collection low temperature electric precipitator.

Keywords

References

  1. Administrative disposition standard(related to article 134), Enforcement regulations of the atomospheric environment.
  2. J. A. Kim, K. M. Ryu(2011), "Analysis on the load runback logic for a 500mw coal fired power plants." KIEE, Summer Symposium, 1843.
  3. K. H. Park, Y. H. Park, H. R. Kim, C. G. Lee, K. H. Lee, S. J. Ahn(2006), " Status of pollutants through smokestack tele-monitoring system (Clean SYS) in 2005." Proceeding of the 43rd Meeting of KOSAE, 273.
  4. K. Y. Kim, S. J. Moon(2018), "Variation of liquid to gas ratio and sulfur oxide emission concentrations in desulfurization absorber with coal fired thermal power plant output." KIPEC, 14(4):39-47.
  5. S. S. Lee, S. J. Moon(2021), "Effect of addition of a catalystic layer on denitriification system efficiency in a 500mw coal fired power plant." KIPEC, 7:58-66.
  6. Doosan Heavy Industries & Construction(2013), Introduction to electrostatic precipitator, selective catalyst NOx reduction system. p. 51.
  7. T. S. Park(2012), Air pollution control engineering. KKWbook, p. 254. ISBN 978-89-5843-696-693530
  8. KPIHRD(2003), Distributed control technology. Taean, Korea, p. 2.
  9. G. P. Lim, H. H. Lee(2013), "The development of boiler feul control algorithm and distributed control system for coal fired power plant." KIEEP, 62(1): 36-44.
  10. S. H. Yoon, J. Park, O. B. Kwon, H. Y. Park, S. G. Seo(2011), "Numerical study of distribution characteristics of pulverized coal according to operation condition in PM burner." KSME, 35(5):491-501. https://doi.org/10.3795/KSME-B.2011.35.5.491
  11. Y. J. Kim, H. Y. Park, S. N. Lee(2009), "NOx emission characteristics depending on the variations in yaw angle of the secondary air nozzlee in a coal fired boiler." KSEE, 31(4):272-277.
  12. J. H. Lee, N. S. Kwak, D. W. Lee, J. G. Shim, J. H. Lee(2016), "Development of Techno-Economic Evaluation Model for CCS (Carbon Capture & Sequestration)." Journal of Climate Research, 7(2):111-120. doi: 10.15531/ksccr.2016.7.2.111