Page 40 - TINA Dergi Sayi 11
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TINA


             Denizcilik Arkeolojisi Dergisi


              Additionally,  a  shallow  freshwater  lake  supplied   11- TARSUS (BERDAN) PLAIN, GÖZLÜKULE MOUND
            by karstic springs originating from the foothills of the   Located within the borders of the Tarsus District of
            Toçak Mountain was found among these fans (Fig. 17).   İçel Province, the Gözlükule Mound lies on the north-
            The peat layers reached by drillings indicated that this   western edge of Çukurova delta plain surrounded by
            shallow  water  lake,  which  was  potentially  connected   the Taurus Mountain to the north, and the Mediterra-
            with the sea level, became very shallow and swampy   nean Sea to the south (Fig. 4). Çukurova Plain has
                                                                                 47
            from time to time. It indicates that the sea level has de-  been formed by the sediments transported by Seyhan,
            creased  a  few  meters  and  risen  again  during  the  past   Ceyhan and Tarsus rivers, originating from the Taurus
            7000-6000 years. Radiocarbon dating analysis showed   Mountains. The sediments brought by the Tarsus and
            that this period was between 4100 and 3400 years ago .   Seyhan  rivers  have  contributed  to  formation  of  the
                                                         45
              The ancient city of Limyra was initially established on   western section of the plain on which the Gözlükule
            the slopes of the Toçak Mountain and the alluvial cones   mound is situated (Fig. 4, 19).
            on its foothill, while late-period buildings of the city ex-  A  total  of  19  alluvial  core  drillings  were  carried
            panded onto the plain area after landscaping of fresh-  out in order to determine environmental changes at
            water lake and swamps by both natural and handmade   Gözlükule Mound and its environs. According to the
            drainages. Data obtained from the drillings in the Fini-  results of core drilling samples, the Gözlükule Mound
            ke Plain and the environs of the ancient city of Limyra   is seated on a earlier alluvial cone of Tarsus river from
            were analysed, resulting in generation of cross-sections,   the Holocene era . Gözlükule was never situated on
                                                                             48
            and paleogeographical maps of the region (Fig. 4, 17,   the  shoreline  since  the  time  it  was  initially  settled.
            18). The alluviums transported by existing streams to   However,  there might have been a connection with
            the east and west of the Finike Plain have formed two   the sea over the shallow water area to the southwest-
            large alluvial fans. The area that remained between the   ern part of the mound.
            south of the Toçak Mountain and the fans yielded pres-  During that period, the Aulai port in the Rhegma
            ence of a shallow water environment or a lake although   Laguna was accessible for ships from the sea. From
            its boundaries cannot be established very clearly. Due   that point, which was like an inner harbor, the city
            to  supply  from  karstic  springs  originating  at  the  foot   was accessible by smaller boats along the stream bed
            of the Toçak Mountain, it is a freshwater lake (Fig. 17,   of Tarsus river, which spills into that water environ-
            18). The ancient city of Limyra was initially founded   ment and passing through Tarsus during that period
            around the lake and former alluvial cones surrounding   (Fig. 19).  Later on, the stream bed was moved to its
            it. Late-period buildings of the city were constructed on   present channel 1 km to the north of the city in order
            the areas where the was dried up. To the south, this water   to avoid floods of the Tarsus river .
                                                                                            49
            environment is delimited by a fluvial barrier consisting   Due  to  this  change  in  the  watercourse,  although
            of coarse-grained alluvial material basically transported   it gradually became a closed lake, the lagoon lying
            by rivers. The southern section of the barrier has been   to the south of Tarsus survived for a long period of
            influenced by maritime effects, where also coastal-ae-  time (Fig. 19). Because the sediments transported by
            olian sands developed. It appears that rising sea level   the Tarsus  River,  which  spilled  into  this  lake  were
            during the Early Holocene didn’t move further inland   reduced, and little sediment was brought to the lake
            in the section to the west of the Finike plain. It might   when the riverbed inside the city was totally aban-
            be related with a very old mass slip on the slope of the   doned. The Rhegma Lake was gradually filled with
            Gülmez Mountain overlooking the plain.            alluviums by small streams descending to the plain
              Deeper core drilling data showed thick peat layers be-  from  the  heights  on  the  north  and  waters  from  the
            low the present sea level  (Fig. 17, 18). Such desicca-  former channel of the Tarsus river. Additionally, the
                                 46
            tion is only possible by a sea level fall. Therefore, the   floods  of  the  Tarsus  river  flowing  through  its  new
            sea level has been lowered a few meters in the Bronze   channel on the east have reached this area. From time
            Age during which the peat layers were formed compared   to time, Seyhan river headed towards this area, direct-
            to present day. The settlements around the lake seem to   ing sediments during floods, relatively being a bigger
            have started when the sea reached its present level again.  stream.




            45  ÖNER – VARDAR 2018e
            46  ÖNER 1997c; ÖNER – VARDAR 2018e
            47  ÖZYAR et al 2003
            48  ÖNER et al 2003a, 2003b
            49  RAMSAY 2000

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