HIGH RESOLUTION DATA PROCESSING AND TSUNAMI ASSESSMENT AND APPLICATIONS TO PORTS IN THE SEA OF MARMARA

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HIGH RESOLUTION DATA PROCESSING AND TSUNAMI ASSESSMENT AND APPLICATIONS TO PORTS IN THE SEA OF MARMARA BETUL AYTORE 1, ZEYNEP CEREN CANKAYA 2, AHMET CEVDET YALCINER 1, MEHMET LÜTFI SUZEN 2, ANDREY ZAYTSEV 3, 4 1. M E T U, D e p a r t m e n t o f C i v i l E n g i n e e r i n g, O c e a n E n g i n e e r i n g R e s e a r c h C e n t e r, 0 6 8 0 0, A n k a r a, Tu r ke y, b e t u l a y t o r e @ g m a i l. c o m, y a l c i ner@ m e t u. e d u. t r 2. M E T U, D e p a r t m e n t o f G e o l o g i c a l E n g i n e e r i n g, R e m o t e S e n s i n g A n d G e o g r a p h i c a l I n fo r m a t i o n S y s t e m s L a b o r a t o r y, 0 6 8 0 0, A n k a r a, Tu r ke y, c a n k a y a c e r e n @ g m a i l. c o m, s u z e n @ m e t u. e d u. t r 3. S p e c i a l R e s e a r c h B u r e a u fo r A u t o m a t i o n o f M a r i n e R e s e a r c h e s, R u s s i a n A c a d e m y o f S c i e n c e s, 6 9 3 0 1 3, S a k h a l i n s k, R u s s i a, a i z a y t s e v @ m a i l. r u 4. N i z h n y N o v g o r o d, 2 4 M i n i n S t r e e t, N i z h n y N o v g o r o d S t a t e Te c h n i с a l U n i v e r s i t y, R u s s i a APPROACHES AND IMPLICATIONS FOR HAZARD ASSESSMENT», RHODES ISL., GREECE, 6-8 OCTOBER, 2014.

HIGH RESOLUTION DATA PROCESSING AND TSUNAMI ASSESSMENT AND APPLICATIONS TO PORTS IN THE SEA OF MARMARA The vulnerable nature of ports requires detailed assessment, serious preparedness and strong mitigation strategies for significant reduction of the loss of life and property. High resolution data processing and tsunami assessment for ports is very substantial solution to achieve these objectives. High resolution data processing and tsunami assessment for ports is performed by using tsunami simulation and visualization code NAMIDANCE to two different ports in the Sea of Marmara. APPROACHES AND IMPLICATIONS FOR HAZARD ASSESSMENT», RHODES ISL., GREECE, 6-8 OCTOBER, 2014.

When it comes to tsunami hazard and tsunami hazard assessment, there are several critical structures in the Sea of Marmara. Two of them are Haydarpasa and Yenikapi Ports. Both ports are located in Istanbul at the Southern entrance to the Bosphorus. The ports serve the hinterland which is the most industrialized area of Turkey. Especially, Haydarpasa Port has a great importance due to being a gateway to the biggest container port in the Marmara Region. the Sea of Marmara Yenikapi Port Haydarpasa Port

DATA PROCESSING Haydarpasa Port Bathymetric and Shoreline Data The bathymetric data is acquired from General Bathymetric Chart of the Oceans (GEBCO) of the British Oceanographic Data Centre. Nevertheless, the dataset obtained from Navigation Charts is added to improve bathymetric data in high-resolution maps since GEBCO is insufficient in shallow water regions, especially inside the port areas due to its resolution. The cross-section of breakwaters of Haydarpasa Port are also acquired from the original plots of design stage of the ports. Besides, images from Google Earth are used to define a better shoreline and location of the breakwaters in the chosen domains. Topographic Data The topographical data purchased from Directorate of Cartography underneath of Department of Housing and Urban Development of Istanbul Metropolitan Municipality (IMM) to be able to create higher resolution topographic models. In general, the purchased data from IMM has two parts: one is the raster data of digital elevation models that covers all districts in Istanbul and second is different vector data (points, lines and polygons) related to all type of structures in all districts in Istanbul.

DATA PROCESSING Haydarpasa Port For higher resolution numerical modeling, data set are obtained from Istanbul Metropolitan Municipality. This data set includes: Digital Elevation Maps for all regions in Istanbul (for both in European and Anatolian Sites) USKUDAR Example Study: Obtained contour map KADIKOY with 5 meters interval by using DEMs for Uskudar (on top) and Kadikoy (at the bottom) Example Study: DEMs for two different regions in Istanbul where Domain D is in: Uskudar and Kadikoy

DATA PROCESSING Haydarpasa Port For higher resolution numerical modeling, data set are obtained from Istanbul Metropolitan Municipality. This data set includes: Elevation and coordinates of all structures (as polygons, lines and points) for all regions in Istanbul (for both in European and Anatolian Sites) Example Study: Representing all line polygon features in Kadikoy and Uskudar such as roads, schools, bicycle public buildings, roads, passenger religious ways, buildings, rocky, factories, walls etc. load carrying platfoms, factory chimneys, greenhouses, pools, closed bus stops etc.

DATA PROCESSING Haydarpasa Port Example Study: For a better view of given data, representing all structures (polygons and lines) in Domain D by using UTM coordinates.

CREATED BATHYMETRIC AND TOPOGRAPHIC MAPS Haydarpasa Port Domain Name Grid Size Coordinates of the Domains C 3 40.98 41.0165 N 28.973 29.030 E D 1 40.987 41.015 N 28.995 29.025 E Details of Domain D

DETERMINATION OF POSSIBLE TSUNAMI SOURCE Haydarpasa Port When the results of six different tsunami scenario simulations, namely Prince s Islands (PI), Prince s Islands Normal (PIN), Ganos Fault (GA), Yalova Fault Normal (YAN), Central Marmara Fault Normal (CMN), and Prince s Island and Ganos Fault (PI+GA) from previous studies were compared, it is found that the tsunami generated by the sources PI, PIN and YAN cause higher water level, flow depth and stronger current velocities near the port of Haydarpasa. When these three sources are carefully investigated, the scenario YAN is found as the most critical one for the port (OYO Int. Co., 2007; Ayca, 2012): Lon. Lat. Depth Strike Dip Rake Length Width Vertical Disp. 29.47103 40.72115 1978 257.96 70 195 7058 17027 5 29.38946 40.70850 1960 261.14 70 195 6873 17027 5 29.30920 40.69851 1823 260.98 70 195 10952 17027 5 YAN 29.18143 40.68121 1681 262.35 70 270 4448 17027 5 29.12936 40.67650 1557 273.96 70 270 4562 17027 5 29.07651 40.67891 1252 283.78 70 270 10021 17027 5 28.96007 40.69843 1219 294.84 70 270 3154 17027 5 28.96202 40.71005 1178 284.90 70 270 14043 17027 5

TSUNAMI ANALYSIS RESULTS Haydarpasa Port Distributions of maximum sea surface elevation amplitude in Domain B Distributions of maximum sea surface elevation amplitude in Domain D Distributions of minimum sea surface elevation amplitude in Domain D Distributions of minimum sea surface elevation amplitude in Domain B Arrival time distributions of first wave along shoreline in Domain B (min) Distributions of maximum flow depth on land in Domain D

CREATED MAP AND SELECTED TSUNAMI SOURCE Yenikapi Port Domain Name Grid Size Coordinates of the Domains D 1 40.995 41.005 N 28.952 29.949 E Lon. Lat. Depth Strike Dip Rake Length Width Vertical Disp. PIN 29.12942 40.75691 744 108.15 70 270 8753 17027 5 29.06928 40.78610 740 123.15 70 270 6024 17027 5 28.99465 40.81653 779 118.85 70 270 7148 17027 5 28.90432 40.87251 1210 129.90 70 270 9834 17027 5

TSUNAMI ANALYSIS RESULTS Yenikapi Port Distributions of maximum sea surface elevation amplitude in Domain B Distributions of maximum sea surface elevation amplitude in Domain D Distributions of minimum sea surface elevation amplitude in Domain D Distributions of minimum sea surface elevation amplitude in Domain B Arrival time distributions of first wave along shoreline in Domain B (min) Distributions of maximum flow depth on land in Domain D

SIMULATIONS

GENERAL EVALUATION, DISCUSSION AND CONCLUSION Summary of the results are obtained for each port. The computed values does not cover the possible change of water level in long term (sea level rise) and short term during the storm and surge conditions if occur during tsunami. According to these results: In regard to functions of the port of Haydarpasa, it is clear that, the water area inside the port will be agitated and water flow through both entrances will cause sea level rise and strong current inside the port. Damages and dragging of floating bodies due to strong currents and water level rise at both Haydarpasa and Yenikapi Ports should be expected. Example Summary Sheet of Main Tsunami Parameters at Selected Gauges for Haydarpasa Port Name of gauge pt. hp35 hp51 hp55 hp76 p13 p35 p52 p55 Depth of gauge pt. Longitude Latitude Arrival time of initial wave (min) Arrival time of max.wave (min) Maximum (+)ve amp. Maximum (-)ve amp. -2.6 29.0236 40.9965 21 22 3.5 0.0 13.6 29.012 41.0031 3 37 3.5-3.6-2.8 29.0146 41.0031 23 38 3.2 0.0 4.0 29.0096 40.9979 2 20 4.8-2.9 7.2 29.0171 40.9982 3 39 2.5-3.2 8.8 29.0094 41.0078 3 22 5.0-5.0 11.6 29.009 41.0013 3 37 2.4-2.8 5.3 29.0164 40.9966 3 38 2.6-3.2

THANK YOU FOR YOUR KIND ATTENTION HIGH RESOLUTION DATA PROCESSING AND TSUNAMI ASSESSMENT AND APPLICATIONS TO PORTS IN THE SEA OF MARMARA B E T U L AY T O R E 1, Z E Y N E P C E R E N C A N K AYA 2, A H M E T C E V D E T YA L C I N E R 1, M E H M E T L Ü T F I S U Z E N 2, A N D R E Y Z AY T S E V 3, 4 1. M E T U, D e p a r t m e n t o f C i v i l E n g i n e e r i n g, O c e a n E n g i n e e r i n g R e s e a r c h C e n t e r, 0 6 8 0 0, A n k a r a, T u r k e y, b e t u l a y t o r e @ g m a i l. c o m, y a l c i n e r @ m e t u. e d u. t r 2. M E T U, D e p a r t m e n t o f G e o l o g i c a l E n g i n e e r i n g, R e m o t e S e n s i n g A n d G e o g r a p h i c a l I n f o r m a t i o n S y s t e m s L a b o r a t o r y, 0 6 8 0 0, A n k a r a, T u r k e y, c a n k a y a c e r e n @ g m a i l. c o m, s u z e n @ m e t u. e d u. t r 3. S p e c i a l R e s e a r c h B u r e a u f o r A u t o m a t i o n o f M a r i n e R e s e a r c h e s, R u s s i a n A c a d e m y o f S c i e n c e s, 6 9 3 0 1 3, S a k h a l i n s k, R u s s i a, a i z a y t s e v @ m a i l. r u 4. N i z h n y N o v g o r o d, 2 4 M i n i n S t r e e t, N i z h n y N o v g o r o d S t a t e T e c h n i с a l U n i v e r s i t y, R u s s i a APPROACHES AND IMPLICATIONS FOR HAZARD ASSESSMENT», RHODES ISL., GREECE, 6-8 OCTOBER, 2014.