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Evaluation of effectiveness of Smart Water City in Korea - Smart Water City project in Paju City, Gyeonggi Province

한국 스마트워터시티의 효과성 평가 - 경기도 파주시 스마트워터시티 사업을 중심으로

  • Lee, Yookyung (Graduate Program in Urban Regeneration, Korea University) ;
  • Lee, Seungho (Graduate School of International Studies.Graduate Program in Urban Regeneration, Korea University)
  • 이유경 (고려대학교 일반대학원 도시재생협동과정) ;
  • 이승호 (고려대학교 국제대학원 국제학과 및 일반대학원 도시재생협동과정)
  • Received : 2020.05.31
  • Accepted : 2020.09.01
  • Published : 2020.09.30

Abstract

This study analyzes the effects of the Smart Water City (SWC) project that was introduced from 2014 to 2016 in Paju City, Gyeonggi Province, Korea, focusing on the achievement of the business goals. The SWC is referred to as a city that embraces a healthy water supply system based on Smart Water Management (SWM) that promotes the efficiency of water management by combining Information and Communication Technologies (ICTs) with water and sewerage facilities. In order to evaluate the effectiveness of the SWC project, this study deploys evaluation criteria corresponding to the project objectives, and analyzes the outputs before and after the project. The results show that the SWC has contributed to enhancing water supply services and the reliability and drinking rate of tap water. Specific improvement areas include the rise of average water flow rate and water leakage reduction, the diffusion of water quality monitoring system, and the reduction of floating particle concentration and turbidity in drainage pipes was achieved. These were possible because of specific implementation plans for clear goal setting and achievement and active services for citizens. The data related to water quantity and quality showed improved performance compared to before the introduction of SWMS, which is a positive effect. However, a quantitative analysis of the outputs has limitations in identifying other external factors that have led to the changes. In the future, guidelines for spreading SWC and more comprehensive and specific evaluation indicators for SWC should be prepared, and SWMS should be developed in consideration of the needs of users.

본 연구는 2014년부터 2016년까지 경기도 파주시에 도입된 스마트워터시티(Smart Water City, SWC) 사업의 효과를 사업목표 대비 달성도 중심으로 분석한다. SWC란, 상하수도 시설에 ICT를 접목하여 물 관리의 효율화를 도모하는 스마트 물 관리시스템(Smart Water Management System, SWMS)을 바탕으로 건강한 물 공급체계를 구현한 물의 도시를 말한다. 본 연구는 SWC 사업의 효과성을 평가하기 위하여 사업목표에 상응하는 평가 기준을 수립하고, 사업 시행 전후의 값(산출물)을 비교 분석한다. 분석 결과, SWC는 공급과정의 수량 및 수질 관리를 강화하고 수돗물의 신뢰도 및 음용률을 제고하는데 기여하였다. 구체적으로는 평균 유수율 및 누수저감량 향상, 수질감시시스템의 확산, 배수관로의 부유성 입자농도 및 탁도 감소 등을 달성하였다. 이는 명확한 목표 설정과 달성을 위한 구체적인 실행 방안, 그리고 시민들을 위한 적극적이고 집중적인 서비스가 제공되었기에 가능하였다. 수량 및 수질과 관련된 대부분의 수치상에서 SWMS 도입 이전 대비 개선된 성과를 보였다는 점은 스마트워터시티의 긍정적인 효과로 볼 수 있다. 그러나 산출물에 대한 계량화된 분석은 긍정적인 변화에 끼친 다른 외부요인을 밝히는 데는 한계를 보인다. 향후에는 SWC 확산을 위한 가이드라인과 더욱 포괄적이고 구체적인 평가지표가 마련되어야 하며, SWMS은 이용자의 필요를 고려하여 개발되어야 할 것이다.

Keywords

References

  1. Anthony, R.N. (1965). Planning and control systems: a framework for analysis. Division of Research, Harvard Business School, Boston, M.A., U.S.
  2. Architecture & Urban Research Institute (AURUM) (2020). accessed 20 April 2020, .
  3. Brzozowski, C. (2011). "The 'smart' water grid: A new way to describe the relationship between technology, resource management, and sustainable water infrastructures." Water Efficiency, Vol. 6, No. 5. pp. 10-23.
  4. Choi, T.S. (2016). Implementing an effective performance management system for local public enterprise. Evaluation Institute of Regional Public Corporation.
  5. Dror, Y. (1971). Ventures in policy sciences: concepts and applications. American Elsevier Publishing Company, N.Y., U.S.
  6. Fischer, F. (1997). Evaluating public policy. Nelson-Hall Publishers, Chicago, I.L., U.S.
  7. Han, K.H. (2014). "Smart water grid." Korean National Committee on Irrigation Drainage, Vol. 54, pp. 52-57.
  8. Harbour, J.L. (1997). The basics of performance measurement. Productivity Press, N.Y., U.S.
  9. Harry, P.H., Richard, E.W., and Donald M.F. (1973). Practical program evaluation for state and local government officials. The Urban Institute Press, Washington D.C., U.S.
  10. Iim, D.H. (2017). The era comes when the ability to manage water is a national capability: 'Smart Water Grid', Future Eco, accessed 3 August 2020, .
  11. Keeling, M., and Sullivan, M. (2012). Fixing the future: Why we need smarter water management for the world's most essential resource. IBM Global Business Services, N.Y., U.S.
  12. Kim, J.R. (2019). Accelerate the widespread of Korean smart cities, ScienceTimes, accessed 26 April 2020, .
  13. Kim, M.S., and Ghong, B.C. (2013). Performance management. Kstudy.
  14. Kim, S.M. (2015). "Healthy water service, Smart Water City." Journal of Water Policy & Economy, Vol. 24, pp. 21-30.
  15. Koh, K.K. (2019). "Empirical analysis of efficiency improvement of public enterprise using Data Envelopment Analysis (DEA)." Performance management in the public sector, Edited by Park, S.A., Moonwoosa, pp. 401-438.
  16. Koo, H.R. (2015). "Does publicness reduce risks?: Examined across OECD countries." Korea Social Policy Review, Vol. 22, No. 1, pp.19-47. https://doi.org/10.17000/kspr.22.1.201503.19
  17. K-water and International Water Resources Association (IWRA). (2018). Smart Water Management Case Study Report.
  18. K-water (2014). Master plan report for the Smart Water City.
  19. K-water (2016a). Smart Water City Guidebook.
  20. K-water (2016b). Final performance report for the Smart Water City pilot project in Paju City.
  21. K-water (2016c). A study on the comprehensive performance analysis of the Smart Water Management Initiative.
  22. K-water (2019). Operating results report: 'Safety Check on Tap Water in Our Home' in Paju in 2019.
  23. K-water (2020a). Action plan for smart pipe network management infrastructure construction project.
  24. K-water (2020b). accessed 21 April 2020, .
  25. K-water (2020c). accessed 6 August 2020, .
  26. Lee, H.D., Lee, J.H., and Kwak, P.J. (2014). "Study on standardization method establishment of multi water-loop system using multi water resources." Korean National Committee on Irrigation and Drainage Journal, Vol. 21, No. 1, pp. 109-117.
  27. Lee, S.H. (2014). The analysis of smart water gird related technology and policy trend. Smart Water Grid Research Group.
  28. Lee, S.H. (2015). Smart water technology, Seoul Water, accessed 3 August 2020, .
  29. Lee, S.H. (2017). "Current understanding the setting and management of performance indicators in the public sector." Performance management in the public sector, Edited by Park, S.A., Moonwoosa, pp. 75-104.
  30. Lee, Y.K., and Lee, S.H. (2018). "A case study of smart water management technology in Korea: Based on conceptualization of smart city and smart technology." Regional Policy Review, Vol. 29, No. 2, pp. 149-183.
  31. Ministry of Education (MOE) (2010). A study on development of performance indicators for effective performance management.
  32. Ministry of Environment (ME). (2019a). The first master plan of the development of water management technology and water industry 2019-2023.
  33. Ministry of Environment (ME). (2019b). Innovation for water supply management: Smart water management system completed in 2022.
  34. Moises, J. (2015). Who builds a future city?, Goethe Institut, accessed 25 April 2020, .
  35. National Environment Information Network System (NEINS) (2020). accessed 22 April 2020, .
  36. Nikolaou, A.D., Golfinopoulos, S.K., Lekkas, T.D., and Arhonditsis, G.B. (2004). "Factors affecting the formation of organic by-products during water chlorination: A bench-scale study." Water, Air, and Soil Pollution, Vol. 159, No. 1, pp. 357-371. https://doi.org/10.1023/B:WATE.0000049189.61762.61
  37. Noh, H.J. (2015). Policy evaluation 5th edition. Bobmunsa.
  38. Office for Government Policy Coordination (OPC). (2016). A study on improvement plan for performance indicators.
  39. Paju Municipal Government (PMG). (2014). The mid-long term development plan for Paju City.
  40. Park, H. (2015). Introduction to public administration with Park: public policy in public administration (24th), The Law Journal, accessed 27 April 2020, .
  41. Presidential Committee on The Fourth Industrial Revolution (PCFIR) (2017). The people-centered response plan for the 4th industrial revolution to promote innovative growth.
  42. Presidential Committee on The Fourth Industrial Revolution (PCFIR) (2018). Smart city promotion strategy for designing for urban innovation and future growth engine.
  43. R&D Information Center (RDIC) (2017). The analysis of smart water industry/smart water grid status and water resource/seawater desalination technology and market. Knowledge Industry Innovation Institute.
  44. Usilaner, B., and Soniet, E. (1980). "Productivity measurement." Productivity improvement handbook for state and local government, Edited by Washnis, G.J., A Wiley-Interscience Publication, N.Y., U.S., pp. 91-114.
  45. Waldo, D. (1980). The enterprise of public administration: a summary view. Chandler & Sharp Publishers, Novato, CA, U.S.
  46. Water Innovations Alliance (WIA). (2012). White paper: The water smart grid initiative, CT., U.S.
  47. Won, J.M. (2012). The urban regeneration theory and experience. The Landscape.
  48. Yeo, I.G. (2019). South Korea throws her hat into the ring to take the lead in the rapidly growing global smart city market, Kharn, accessed 28 April 2020, .
  49. Yim, J.I., Kim, Y.W., Kim, H.J., and Sohn, S.W. (2014). "Trend of smart water grid technology developments and standardization." Electronic and Telecommunications Trends, Vol. 29, No. 2, pp. 87-96.