Initial report of the aimwetlab project: Simultaneous airborne hyperspectral, lidar and photogrammetric survey of the full shoreline of Lake Balaton, Hungary

Geographia Technica

Volumn , Issue 1, 2011, Pages 101-117

  Zlinszky, András ^a   Tóth, Viktor ^a   Pomogyi, Piroska ^b   Timár, Gábor ^c  

^a BALATON LIMNOLOGICAL RESEARCH INSTITUTE   (Hungary)

^b Kozep dunantuli Kornyezetvedelmi es Vizugyi Igazgatosag Szekesfehervar   (Hungary)

^c EÖTVÖS LORÁND UNIVERSITY   (Hungary)

Author keywords

Lake balaton; Lidar and photogrametric survey; Vegetation species; Wetlands

Indexed keywords

AIRBORNE SENSING; DATA PROCESSING; GEOMORPHOLOGY; IMAGING METHOD; LIDAR; PHOTOGRAMMETRY; SHORE (NONMARINE); VEGETATION STRUCTURE; WETLAND;

HUNGARY; LAKE BALATON;

EID: 79953743394     PISSN: 18425135     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (45)

1. Aber J.S., Marzolff I., Ries J.B., (2010), Small-format aerial photography: principles, techniques and geoscience applications. Elsevier, Amsterdam, Boston.
2. Alvarez-Cobelas M., Cirujano S., (2007), Multilevel responses of emergent vegetation to environmental factors in a semiarid floodplain. Aquatic Botany 87, pp. 49-60.
3. Artigas F., Pechmann I.C., (2010), Balloon imagery verification of remotely sensed Phragmites australis expansion in an urban estuary of New Jersey, USA. Landscape and Urban Planning 95, pp. 105-112.
4. Bakó G., (2010), Igen nagy felbontású légifelvétel-mozaikok készítése kis- és középformátumú digitális fényképezo{double acute}gépekkel., Geodézia és Kartográfia 62, pp. 21-29.
5. Belluco E., Camuffo M., Ferrari S., Modenese L., Silvestri S., Marani A., Marani M., (2006), Mapping salt-marsh vegetation by multispectral and hyperspectral remote sensing, Remote Sensing of Environment 105, pp. 54-67.
6. Boar R.R., Crook C.E., Moss B., (1989), Regression of Phragmites australis reedswamps and recent changes of water chemistry in the Norfolk Broadland, Endland, Aquatic Botany 35, pp. 41-55.
7. Chust G., Galparsoro I., Borja A., Franco J., Uriarte A., (2008), Coastal and estuarine habitat mapping, using LIDAR height and intensity and multi-spectral imagery, Estuarine Coastal and Shelf Science 78, pp. 633-643.
8. Cserny T., Nagy-Bodor E., (2000), Limnogeology of Lake Balaton, Hungary, In: Gierlowski-Kordesch, E.H., Kelts, K.R. (Eds.), Lake basins through space and time, pp. 605-618.
9. Dömötörfy Z., Pomogyi P., (1997), A KVBR vegetációtérképezés módszerei. Hidrológiai Közlöny 77, pp. 48-49.
10. Fodor L., Bada G., Csillag G., Horvath E., Ruszkiczay-Rudiger Z., Palotas K., Sikhegyi F., Timar G., Cloetingh S., Horvath F., (2005), An outline of neotectonic structures and morphotectonics of the western and central Pannonian Basin. Tectonophysics 410, pp. 15-41.
11. Gilmore M.S., Wilson E.H., Barrett N., Civco D.L., Prisloe S., Hurd J.D., Chadwick C., (2008), Integrating multi-temporal spectral and structural information to map wetland vegetation in a lower Connecticut River tidal marsh. Remote Sensing of Environment 112, pp. 4048-4060.
12. Gilvear D., Tyler A., Davids C., (2004), Detection of estuarine and tidal river hydromorphology using hyper-spectral and LiDAR data: Forth estuary, Scotland, Estuarine Coastal and Shelf Science 61, pp. 379-392.
13. Hunter P.D., Gilvear D.J., Tyler A.N., Willby N.J., Kelly A., (2010), Mapping macrophytic vegetation in shallow lakes using the Compact Airborne Spectrographic Imager (CASI), Aquatic Conservation-Marine and Freshwater Ecosystems 20, pp. 717-727.
14. Jochem A., Hollaus M., Rutzinger M., Hofle B., (2011), Estimation of Aboveground Biomass in Alpine Forests: A Semi-Empirical Approach Considering Canopy Transparency Derived from Airborne LiDAR Data, Sensors 11, pp. 278-295.
15. Knight J.M., Dale P.E.R., Spencer J., Griffin L., (2009), Exploring LiDAR data for mapping the micro-topography and tidal hydro-dynamics of mangrove systems: An example from southeast Queensland, Australia, Estuarine Coastal and Shelf Science 85, pp. 593-600.
16. Kovács M., Szabó S., Busics I., Kaszab L., (1994), A Balatoni nádasok területének változása, degradációjuk, Magyar Hidrológiai Társaság Országos Vándorgyu{double acute}lése 12, pp. 250-257.
17. Kovács M., Turcsányi G., Tuba Z., Wolcsánszky S.E., Vásárhelyi T., Dely-Draskovics Á., Tóth S., Koltay A., Kaszab L., Szoke P., Jankó B., (1989), The decay of reed in Hungarian lakes. In: J, S., S., H. (Eds.), Conservation and Management of Lakes, Akadémiai Kiadó, Budapest, pp. 461-470.
18. Kraus K., Waldhäusl P., (1998), Fotogrammetria, Tertia Kiadó, Budapest.
19. Kárpáti I., Szeglet P., Tóth I., (1987), Die Vegetationskarte der Bozsauer-Bucht. BFB-Bericht 63, pp. 63-68.
20. LaCapra V.C., Melack J.M., Gastil M., Valeriano D., (1996), Remote sensing of foliar chemistry of inundated rice with imaging spectrometry, Remote Sensing of Environment 55, pp. 50-58.
21. Lang M.W., McCarty G.W., (2009), Lidar intensity for improved detection of inundation below the forest canopy, Wetlands 29, pp. 1166-1178.
22. Mackereth F.H.J., Heron J., Talling J.F., (1978), Water analysis: some revised methods for limnologists, Freshwater Biological Association, Ambleside.
23. Mather P.M., (2006), Computer processing of remotely sensed images. John Wiley and Sons Ltd, Chichester.
24. Mitsch W.J., Gosselink J., (2003), Wetlands. John Wiley & Sons, New York.
25. Murphy J., Riley J.P., (1962), A modified single solution method for the determination of phosphate in natural waters, Analytica Chimica Acta 27, pp. 31-62.
26. Ostendorp W., Dienst M., Schmieder K., (2003), Disturbance and rehabilitation of lakeside Phragmites reeds following an extreme flood in Lake Constance (Germany), Hydrobiologia 506, pp. 687-695.
27. Pengra B.W., Johnston C.A., Loveland T.R., (2007), Mapping an invasive plant, Phragmites australis, in coastal wetlands using the EO-1 Hyperion hyperspectral sensor, Remote Sensing of Environment 108, pp. 74-81.
28. Pereira E., Beneatel R., Correia J., Felix L., Goncalves G., Morgado J., Sousa J., (2009), Unmanned Air Vehicles for Coastal and Environmental Research. Journal of Coastal Research, pp. 1557- 1561.
29. Pinnel N., Heege T., Zimmermann S., (2004), Spectral Discrimination of Submerged Macrophytes in Lakes Using Hyperspectral Remote Sensing Data, In: SPIE - The International Society for Optical Engineering (Ed.), SPIE - The International;Society for Optical Engineering,., Fremantle, Australia, pp. 1-16.
30. Rosso P.H., Ustin S.L., Hastings A., (2006), Use of lidar to study changes associated with Spartina invasion in San Francisco Bay marshes, Remote Sensing of Environment 100, pp. 295-306.
31. Schmidt K.S., Skidmore A.K., (2003), Spectral discrimination of vegetation types in a coastal wetland. Remote Sensing of Environment 85, pp. 92-108.
32. Siciliano D., Wasson K., Potts D.C., Olsen R.C., (2008), Evaluating hyperspectral imaging of wetland vegetation as a tool for detecting estuarine nutrient enrichment, Remote Sensing of Environment 112, pp. 4020-4033.
33. Sickel H., Ihse M., Norderhaug A., Sickel M.A.K., (2004), How to monitor semi-natural key habitats in relation to grazing preferences of cattle in mountain summer farming areas - An aerial photo and GPS method study, Landscape and Urban Planning 67, pp. 67-77.
34. Tatrai I., Matyas K., Korponai J., Paulovits G., Pomogyi P., (2000), The role of the Kis-Balaton Water Protection System in the control of water quality of Lake Balaton. pp. 73-78.
35. Tóth L., Mónus P., Zsíros T., Bus Z., Kiszely M., Czifra T., (2008), Magyarországi földrengések évkönyve-Hungarian Earthquake Bulletin-2007. GeoRisk-MTA GGKI, Budapest.
36. Van der Putten W.H., (1997), Die-back of Phragmites australis in European wetlands: an overview of the European Research Programme on Reed Die-Back and Progression (1993-1994), Aquatic Botany 59, pp. 263-275.
37. Verhoeven G.J.J., (2009), Providing an Archaeological Bird's-eye View - an Overall Picture of Ground-based Means to Execute Low-altitude Aerial Photography (LAAP) in Archaeology, Archaeological Prospection 16, pp. 233-249.
38. Virág Á., (1998), A Balaton múltja és jelene, Egri nyomda, Eger.
39. Vymazal J., (2011), Enhancing ecosystem services on the landscape with created, constructed and restored wetlands, Ecological Engineering 37, pp. 1-5.
40. Wang C., Menenti M., Stoll M.P., Belluco E., Marani M., (2007), Mapping mixed vegetation communities in salt marshes using airborne spectral data, Remote Sensing of Environment 107, pp. 559-570.
41. Wang K., Franklin S.E., Guo X.L., Cattet M., (2010), Remote Sensing of Ecology, Biodiversity and Conservation: A Review from the Perspective of Remote Sensing Specialists, Sensors 10, pp. 9647-9667.
42. Wehr A., Lohr U., (1999), Airborne laser scanning - an introduction and overview, Isprs Journal of Photogrammetry and Remote Sensing 54, pp. 68-82.
43. Wellburn A.R., (1994), The spectral determination of chlorophyll-a and chlorophhyll-b, as well as total carotenoids, using various solvents with spectrophotometers of different resolution, Journal of Plant Physiology 144, pp. 307-313.
44. Zlinszky A., (2007), A balatoni nádpusztulás légifelvételes vizsgálata, Dept. of Plant Taxonomy and Ecology. Eötvös Loránd University, Budapest, p. 29.
45. Zlinszky A., Molnar G., (2009), Georeferencing the first bathymetric maps of Lake Balaton, Hungary, Acta Geodaetica Et Geophysica Hungarica 44, pp. 79-94.