본문 바로가기
KERD
논문KCI 등재

지형형태와 변화를 반영한 대조차 해빈 분류: 태안지역 해빈을 사례로(2017-2018)

Macrotidal Beach Classifications Considering Beach Profiles and Changes: The Case of Beaches in Taean Region (2017-2018)

김찬웅
한국지형학회 (The Geomorphological Association Of Korea)|2019.12|한국지형학회지 (Journal of The Korean Geomorphological Association)|제26권 제4호|pp. 47-65|DOI 10.16968/JKGA.26.4.47

0

조회

0

다운로드

0

인용

0

참고문헌

키워드

Geometry해안지형사주지오메트리지질조건지형 분류Coastal geomorphologySand barGeological factorGeomorphic classification
주제분류지리학

초록

A case study was conducted in Taean region to seek a more detailed macrotidal beach classification than existing beach classification models (Masselink and Short, 1993). Seepage and ridge & runnel were used for classification. On 20 beaches, 68 transects were surveyed 5 times using VRS-GPS. Cross-section area from the transect profiles, mean grain size from sediment analysis, significant wave height from Swan-wave modeling and beach embaymentization from aerial photograph analysis were used to identify the characteristics of the individual types. The transects were classified into 5 types in Taean region; Type 1: low tidal terrace, Type 2: low tidal terrace & ridge, Type 3: dissipative, Type 4: seasonal ridge, and Type 5: ridge & runnel. Generally, seepage was related to coarse sediment size and ridge & runnel was related to high significant wave height. Each type has different characteristics and there was a tendency between the types. The low tidal terrace type had coarse sediments, because this type is excluded from the littoral cell. In this study, the ridge and runnel type could be applied to the classification because the study area is limited only to the macrotidal environment in Taean region.

Abstract

A case study was conducted in Taean region to seek a more detailed macrotidal beach classification than existing beach classification models (Masselink and Short, 1993). Seepage and ridge & runnel were used for classification. On 20 beaches, 68 transects were surveyed 5 times using VRS-GPS. Cross-section area from the transect profiles, mean grain size from sediment analysis, significant wave height from Swan-wave modeling and beach embaymentization from aerial photograph analysis were used to identify the characteristics of the individual types. The transects were classified into 5 types in Taean region; Type 1: low tidal terrace, Type 2: low tidal terrace & ridge, Type 3: dissipative, Type 4: seasonal ridge, and Type 5: ridge & runnel. Generally, seepage was related to coarse sediment size and ridge & runnel was related to high significant wave height. Each type has different characteristics and there was a tendency between the types. The low tidal terrace type had coarse sediments, because this type is excluded from the littoral cell. In this study, the ridge and runnel type could be applied to the classification because the study area is limited only to the macrotidal environment in Taean region.

참고문헌 (39)

  1. Anthony, E. J, "Sediment-wave parametric characterization of beaches", dJournal of Coastal Research, pp.347~352 (1998)
  2. Bennett, W. G, "Morphological Impacts due to Storms on a Macro-Tidal Beach", Coastal dynamics, 9, pp.1821~1831 (2017)
  3. Blott, S. J, "A grain size distribution and statistics package for the analysis of unconsolidated sediments, Earth Surf", Proc. Landforms, 26, pp.1237~1248 (2001)
  4. Bowman, D, "Planview geometry and morphological characteristics of pocket beaches on the Catalan coast (Spain)", Geomorphology, 108(3-4), pp.191~199 (2009)
  5. Choi, J. Y, "Field observation and modeling of wave set-up on a macrotidal beach: the Malipo Experiment", Journal of Coastal Research, pp.183~188 (2013)
  6. Chu, Y. S, "Seasonal Variations of Beach Sedimentation in the Middle Western Coast of Korea", Ocean and Polar Research, 18(1), pp.37~45 (1996)
  7. Costas, S, "ersistence of storm-induced morphology on a modal low-energy beach: a case study from NW-Iberian Peninsula", Marine Geology, 224(1-4), pp.43~56 (2005)
  8. Cuevas Jimenez, A, "Classification of beach erosion vulnerability on the Yucatan coast", Coastal Management, 44(4), pp.333~349 (2016)
  9. De Boer, W, "Understanding coastal erosion processes at the Korean east coast", Coastal Dynamics, 14, pp.1336~1347 (2017)
  10. Dehouck, A, "Pocket beach hydrodynamics: The example of four macrotidal beaches, Brittany, France", Marine Geology, 266(1-4), pp.1~17 (2009)
  11. Finkl, C. W, "Coastal classification: systematic approaches to consider in the development of a comprehensive scheme", Journal of Coastal Research, pp.166~213 (2004)
  12. Geosystem research, "Coastal Erosion monitoring-Chungcheongnamdo, Ministry of Land, Transport and Maritime Affairs" (2012)
  13. Goodwin, I. D, "An insight into headland sand bypassing and wave climate variability from shoreface bathymetric change at Byron Bay, New South Wales, Australia", Marine Geology, 341, pp.29~45 (2013)
  14. Harley, M. D, "New insights into embayed beach rotation: The importance of wave exposure and cross-shore processes", Journal of Geophysical Research: Earth Surface, 120(8), pp.1470~1484 (2015)
  15. Harley, M. D, "A reevaluation of coastal embayment rotation: The dominance of crossshore versus alongshore sediment transport processes, Collaroy-Narrabeen Beach, southeast Australia", Journal of Geophysical Research: Earth Surface, 116(F4), pp.116~ (2011)
  16. Heo, H, S, "Coastal Mapping Based on High Spatial Resolution Airborn Hyperspectral Image", The Conference of Korea Society of Surveying, Geodesy, Photogrammetry, and Cartography, pp.343~349 (2011)
  17. Hopkins, J, "Flow separation effects on shoreline sediment transport", Coastal Engineering, 125, pp.23~27 (2017)
  18. Jackson, D. W. T, "Geological control of beach morphodynamic state", Marine Geology, 216(4), pp.297~314 (2005)
  19. Kang, T. G, "The Interactions between Beach and Coastal Dune in Chungcheong Province, Central West Korea", Journal of the Korean Geomorphological Association, 10, pp.255~265 (2003)
  20. 김찬웅, "대조차 해빈의 릿지와 런넬 지형 변화", 대한지리학회지, 54(3), pp.285~300 (2019), 대한지리학회
  21. 김찬웅, "겨울철 서해안 사취형 해빈의 지형과 퇴적물 특성의 변화 - 안면도 백사장 해빈을 중심으로 -", 국토지리학회지, 49(1), pp.117~131 (2015), 국토지리학회
  22. 김태호, "제주도 해안지대의 지형분류", 한국지형학회지, 10(1), pp.33~47 (2003), 한국지형학회
  23. Loureiro, C, "Geologically constrained morphological variability and boundary effects on embayed beaches", Marine Geology, 329, pp.1~15 (2012)
  24. Magana, P, "Integrating complex numerical approaches into a user-friendly application for the management of coastal environments", Science of the Total Environment, 624, pp.979~990 (2018)
  25. Mascagni, M. L, "Morphodynamics of a wave dominated embayed beach on an irregular rocky coastline", Brazilian Journal of Oceanography, 66(2), pp.172~188 (2018)
  26. Masselink, G, "Formation and evolution of multiple intertidal bars on macrotidal beaches:application of a morphodynamic model", Coastal Engineering, 51(8-9), pp.713~730 (2004)
  27. Masselink, G, "Location and height of intertidal bars on macrotidal ridge and runnel beaches", Earth Surface Processes and Landforms, 26(7), pp.759~774 (2001)
  28. Masselink, G, "Morphodynamics of meso-and macrotidal beaches: examples from central Queensland", Australia, Marine Geology, 129(1-2), pp.1~23 (1995)
  29. Masselink, G, "Morphology and morphodynamics of sandy beaches. Coastal Zones and Estuaries", Encyclopedia of Life Support Systems, pp.221~243 (2009)
  30. Masselink, G, "Swash-zone morphodynamics", Continental Shelf Research, 26(5), pp.661~680 (2006)
  31. Masselink, G, "The effect of tide range on beach morphodynamics and morphology: a conceptual beach model", Journal of Coastal Research, pp.785~800 (1993)
  32. Masselink, G, "Morphodynamics of intertidal bars in wave-dominated coastal settings – a review", Geomorphology, 73(1-2), pp.33~49 (2006)
  33. Micallef, A, "Application of a novel approach to beach classification in the Maltese Islands", Ocean & Coastal Management, 47(5), pp.225~242 (2004)
  34. Nordstrom, K. F, "Beaches and dunes of developed coasts", pp.338~ (2000), Cambridge University Press
  35. Scott, T, "Morphodynamic characteristics and classification of beaches in England and Wales", Marine Geology, 286(1-4), pp.1~20 (2011)
  36. Silvester, R, "Innovative Concepts", pp.578~ (1993), Prentice Hall
  37. Van Houwelingen, S, "Characteristics and dynamics of multiple intertidal bars, north Lincolnshire, England", Earth Surface Processes and Landforms: The Journal of the British Geomorphological Research Group, 31(4), pp.428~443 (2006)
  38. "Korea Hydrographic and Oceanographic Administration"[URL]
  39. "Korea Meteorological Administration"[URL]

관련 논문AI추천

국내 해안의 해빈-해안사구 지형 및 퇴적물 특성과 입도기반 사구유형 분석강지현, 류호상한국지형학회 · 한국지형학회지2020 · 제27권 제3호무인항공기반 태안반도 방포해빈의 지형분석한민, 배성지, 양동윤, 유재형, 정용식한국지형학회 · 한국지형학회지2016 · 제23권 제1호혼합해빈의 퇴적물 분포 특성과 미지형 경관변화 - 태안해안국립공원 파도리 해빈을 중심으로 -성효현, 이원영한국지형학회 · 한국지형학회지2013 · 제20권 제4호독도에 발달한 역빈의 시계열적 변화와 특성분석강지현, 이재호, 최승세한국지형학회 · 한국지형학회지2016 · 제23권 제4호해안사구 모래보강을 통한 해안침식 저감 효과- 충청남도 다사리 사구를 사례로 -공학양, 박성민, 신영규, 최광희한국지형학회 · 한국지형학회지2018 · 제25권 제4호폭풍파랑에 따른 해빈과 호형 사주 지형변화 현장 관측 및 XBeach 모델 민감도 분석진혁, 김인호, 도기덕, 장성열한국해안,해양공학회 · 한국해안·해양공학회논문집2020 · 제32권 제6호

이 간행물의 다른 논문 (9건)

영산강 부유하중의 시계열적 입도 특성 변화: 승촌보, 죽산보를 중심으로김진관, 임영신pp. 1-20몬테카를로 시뮬레이션을 이용한 하안단구 10Be 수직단면 연대측정성영배, 김동은, 김종근pp. 21-31독도 서도 및 동도 남부 해안의 파식대 지형 발달권용휘, 황상일, 윤순옥pp. 33-45부산 다대포 지역 해안 단구 제1면의 구정선 고도와 형성 시기홍성찬, 신재열, 홍영민pp. 67-79영덕 일대의 해성단구와 해면변동단구의 대비와 편년최성길, 장호pp. 81-96
원문 보기