The Importance of Mina site within Mecca urban cover change between 1998 and 2013

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FINAL INTERNSHIP REPORT Internship in Urban Remote Sensing Period: February through May 2015 Company: Starlab Ltd, UK The Importance of site within Mecca urban cover change between 1998 and 2013 Author Ayman Imam Supervised by Bahaaeddin Alhaddad, GISP, PhD Business Developer, Starlab Space :the city of tents, Saudi Arabia

Introduction The following report describes the activities carried out during a 12-week, full-time internship at the STARLAB LTD, UK Office. The document contains information about the organization and the responsibilities performed throughout the period between 16 th of February and 16 th of May 2015. More than a plain account of tasks, the objective of this text is to reflect upon the experiences collected during the internship from the perspective of a PhD student in Urban Management Field. The first part of the report offers an overview of the organization, followed by the working plan initially agreed upon with the company and approved by the Barcelona Tech University as a suitable internship. Following, it proceeds to describe in some detail the most relevant tasks carried out and their respective analysis. Finally, the report wraps-up with a few closing remarks and conclusions from the experience. Starlab Ltd Starlab is a high-tech company innovating in two fields since 2000: Space and Neuroscience. Starlab's mission is to transform science into technologies with a profound positive impact on society. Our vision is to make science more useful, alive, vibrant, and faster. They focuses on creation of new technologies, value added information products and spin-off creation. They are currently organized in two business units: Neuroscience Research, Neurokai (neuromonitoring and neuromodulation services), Star2Earth (Earth Observation products and services) and Space Technology (Space tech research, simulation and performance analysis).

Working Plan Scuda Project The main project to be carried out during the internship was to work on the Scuda Project that was an Earth Observation Support for Asian Development Bank Activities (Secondary cities urban development in Armenia) to provide key information to support the creation of a priority list of urban investment projects and improvements in the selected cities. In that project I was in charge to complete the digitizing process for the satellite images provided for the selected cities on one hand, and on the other hand to examine the continuity and discontinuity of the built up area for 2003 and 2013 for each city in order to observe the changes. GIS and Remote sensing practices During the second part of the internship was focusing on some of GIS and Remote sensing application in which I have learned how to obtain the Landsat satellite images, how to open them on ENVI (Envi is the abbreviation of word phrases The Environment for Visualizing Images and this is the name for the software system to evolve and advanced image processing), how to process them to be useful for information extraction and classification and how to export them to ArcMap (as a shape file in order to apply some urban morphology indicators (ArcMap is the main component of Esri's ArcGIS suite of geospatial processing programs, and is used primarily to view, edit, create, and analyze geospatial data. The next slides show the work I have done exploiting the experience I learned from the Scuda project

The Title The site of within Makkah urban cover change between 1998 and 2013 Objectives Analyzing the urban cover change of Makkah between 1998 and 2013 in order to find out: 1- How much have changed the urban cover of Makkah 2- The pattern and the directions of the growth. 3- Comparison between the growth of the different part of Makkah. 4- How important the part where is located among the other parts 5- The change of the Entropy and the compactness of the urban cover and how their impact on the site if could be. 6- The location of and its relation with the social and economic spot of Makkah. Methods Multi-temporal satellite images analysis using the Remote sensing and GIS application to extract data as much as possible from Landsat Satellite images of Makkah for the years of 1998, 2003, 2008 and 2013 Source Download Landsat satellite images from EarthExplorer (USGS) http://earthexplorer.usgs.gov/ Software ENVI 5.1, ArcMap 10, Excel and PowerPoint.

Working Plan A) Landsat satellite imagery download Year Satellite Sensor type Acquisition Spatial (Dataset) Date Resolution 1998 LANDSAT_5 TM 8/25/1998 30 m 2003 LANDSAT_7 ETM+ 8/15/2003 30 m 2008 LANDSAT_7 ETM+ 8/28/2008 30 m 2013 LANDSAT_7 ETM+ 8/26/2013 30 m

1998 2003 2008 2013

B) Filling Gaps in Landsat ETM Images On 31 May 2003 the Landsat 7 Enhanced Thematic Mapper (ETM) sensor had a failure of the Scan Line Corrector (SLC). Since that time all Landsat ETM images have had wedgeshaped gaps on both sides of each scene, resulting in approximately 22% data loss. Scaramuzza, et al (2004) developed a technique which can be used to fill gaps in one scene with data from another Landsat scene. A linear transform is applied to the filling image to adjust it based on the standard deviation and mean values of each band, of each scene. This can be applied by using ENVI software and install the plugin landsat_gapfill.sav in the proper ENVI install folder. Below you can see an example of this gap-filling technique as applied to a pair of Landsat ETM

B) Pan-sharpening Satellite Images This technique to increase image quality. Pan-sharpening produces a high-resolution color image from three, four or more low-resolution multispectral satellite bands plus a corresponding high-resolution panchromatic bands: High-res grayscale band + Low-res color bands = Hi-res color image Resolution 15 m Resolution 30 m

C) Region of interest selection It is important to define and select the region of our interest (Makkah city) in order to facilitate the rest of processing, by imported the boundary of Makkah into the full downloaded images in order to extract the city of Makkah. Full image Makkah city

C) Land cover change detection Many methods and techniques have been used to detect the land cover change of the multi-temporal satellite images of Makkah in order to extract the urban caver change. we have applied the supervised classification technique in which the user selects representative samples for each land cover class in the digital image. These sample land cover classes are called training sites. The image classification software uses the training sites to identify the land cover classes in the entire image. The classification of land cover is based on the spectral signature defined in the training set. The digital image classification software determines each class on what it resembles most in the training set. Five land cover class we have identify; Urban, Street, Slope, Soil and Vegetation

Classification test

Exporting the result to GIS After having the land cover classified using ENVI, we exported the result to GIS in order to start the analysis and apply some urban morphology indices

Urban Cover class In a city such Makkah most of land cover change between 1998 and 2013 have been occurred within the urban cover class and the roads network. Our focusing in this part is the urban cover change in order to measuring change by km2, the pattern and axis of change, comparison between the different part of Makkah, the Entropy and the compactness change etc. 1998 2003 2008 2013

1998 Total urban cover area 77294700 m2 (77.29 Km2) Urban Cover City Center Roads network

2003 Total urban cover area 90613800 m2 (90.61 Km2) Change Percentage 17.23 % Urban Cover City Center Roads network

2008 Total urban cover area 106569900 m2 (106.56 Km2) Change Percentage 17.61 % Urban Cover City Center Roads network

2013 Total urban cover area 121157550 m2 (121.15 Km) Change Percentage 13.69 % Urban Cover City Center Roads network

Makkah urban cover change between 1998 and 2013 1998 2008 2003 2013 130 20.00% 120 110 18.00% 100 90 80 70 Built-up area change by Km2 16.00% 14.00% 12.00% Change Percentag 60 1998 2003 2008 2013 10.00% 1998-2003 2003-2008 2008-2013 Year 1998 2003 2008 2013 Built-up area change by Km2 77.29 90.61 106.56 121.16 Year 1998-2003 2003-2008 2008-2013 Total 1998-2013 Change Percentage % 17.23% 17.61% 13.69% 56.75%

The total change percentage between 1998 and 2013 is (56.75%) Year 1998 2013 Change % Urban Km2 77.29 121.16 56.75 1998 77294700 m2 140 120 100 Urban cover area by Km2 80 60 Urban Km2 40 20 0 1998 2013 2013 121157550 m2 Note : The change between 2008 and 2013 is less than the change between 1998 2003 and between 2003-2008, because of the huge urban development projects started since 2011 which eliminate many slum areas located in the city center.

Urban Growth Direction As observed that most of the urban growth of Makkah concentrates on five main axes, the west, the northwest, the northeast, the southeast and the southwest. West axis Jeddah Road Northwest axis Al-madinah Road Northeast axis Riyadh Road Those five axes are the direction of five important cities, Jeddah, Al-madinah, Riyadh, Taif and Jizan. The site of is located between tow axes, the Northeast (Riyadh Road) and Southeast (Taif Road). Southwest axis Jizan Road Southeast axis Taif Road

Urban Growth Direction In order to measure the urban cover change in each axis, we divide the urban cover into five parts according to the five axes and observe and calculate the urban cover change of each part to find out the percentage of change of the parts where the site of is located. We called the five parts as; Northwest Part (NWP), Northeast Part (NEP), Southeast Part (SEP), Southwest Part (SWP) and West Part (WP).

Northwest Part (NWP) Year Urban km2 chg. % 1998 16.36 2003 18.28 11.7 2008 21.29 16.45 2013 22.87 7.46 % from the total of 55.75 7.96 25 23 21 19 17 15 Urban change by km2 (NWP) 1998 2003 2008 2013 18 16 14 12 10 8 6 (NWP) Precentage of chg. % 16.45 11.7 7.46 1998 2003 2008 2013

Northwest Part (NWP) Year Urban km2 Chg. % 1998 16.02 2003 19.22 19.96 2008 23.9 24.34 2013 30.3 26.78 % from the total of 55.75 17.82 33 30 27 24 21 18 15 Urban change by km2 (NWP) 1998 2003 2008 2013 (NWP) Precentage of chg. % 29 27 25 23 21 19 17 26.78 24.34 19.96 1998 2003 2008 2013

Southeast Part (SEP) Year Urban km2 chg. % 1998 13.17 2003 16.16 22.69 2008 19.26 19.14 2013 22.55 17.1 % from the total of 55.75 14.23 24 21 18 15 12 Urban change by km2 (SWP) 1998 2003 2008 2013 25 23 21 19 17 15 (NWP) Precentage of chg. % 22.69 19.14 17.1 1998 2003 2008 2013

Northwest Part (NWP) Year Urban km2 chg. % 1998 15.15 2003 17.35 14.55 2008 20.16 16.21 2013 23.48 16.46 % from the total of 55.75 11 24 21 18 15 12 Urban change by km2 (SWP) 1998 2003 2008 2013 18 16 14 (SWP) Precentage of chg. % 14.55 16.21 16.46 12 1998 2003 2008 2013

Northwest Part (NWP) Year Urban km2 chg. % 1998 15.15 2003 17.35 14.55 2008 20.16 16.21 2013 23.48 16.46 % from the total of 55.75 11 24 21 18 15 12 Urban change by km2 (WP) 1998 2003 2008 2013 20 15 10 5 0-5 (WP) Precentage of chg. % 14.57 7.94-0.07 1998 2003 2008 2013

Urban cover area change by km2 35 Year NWP NEP SEP SWP WP 1998 16.36 16.02 13.17 15.15 15.04 2003 18.28 19.22 16.16 17.35 16.24 2008 21.29 23.9 19.26 20.16 18.6 2013 22.87 30.3 22.55 23.48 18.59 30 25 WP NWP 20 15 10 1998 2003 2008 2013 SWP NEP SEP Percentages of change % Year NWP NEP SEP SWP WP 1998-2003 11.7 19.96 22.69 14.55 7.94 2003-2008 16.45 24.34 19.14 16.21 14.57 2008-2013 7.46 26.78 17.1 16.46-0.07 Total chg. 39.78 89.1 71.18 55.03 23.58 35.00 30.00 30 28 26 24 22 20 18 16 14 12 10 8 6 4 2 0-2 1998-2003 2003-2008 2008-2013 WP NWP SWP NEP SEP 25.00 20.00 15.00 10.00 5.00 0.00 NWP (39.78%) NEP (89.10%) SEP (71.18%) SWP (55.03%) WP (23.58%) 1998 2013

Observation The below charts show the comparison between the areas and percentage of change for all parts. it is observed that the Northeast part (NEP) had more urban cover change than the other parts and the (NEP) and (SEP) Parts where is located have had higher percentage of change than the other parts during the last 20 years. that said, the parts where is located have had more than the half of the total urban cover change of Makkah, therefore, the location of is also getting higher importance within the urban growth of Makkah. 1998 2013 chg km2 chg % All parts 75.74 117.79 42.05 55.51 Chg of 55.51% Total 35.00 30.00 25.00 20.00 15.00 10.00 1998 2013 NEP 16.02 30.30 14.27 89.10 17.82 SEP 13.17 22.55 9.38 71.18 14.24 32.06 5.00 0.00 NWP (39.78%) NEP (89.10%) SEP (71.18%) SWP (55.03%) WP (23.58%)

The Entropy Index Objective -To describe the structure and behavior of different systems such as the urban growth. -Identify and characterize the degree of spatial concentration or dispersion in a specific area. Methods By converting the urban cover into cells and apply a specific developed tool on GIS to calculate the correlation between each cell and its surrounded cells. The highest cell value will be 1 and the lowest will be 0, cells value close to zero indicate that there are more chance to change (high entropy) cells value close to one indicate that the change is hard (low entropy).. For urban studies it is preferred to have more high entropy cells than low entropy cells.. Lowest entropy cell Highest entropy cell

1998 NWP NEP - All Cells Comparison WP 28000 26000 24000 22000 20000 18000 16000 14000 12000 10000 8000 6000 4000 2000 0 All Parts NEP NWP SEP SWP WP Total cells 16968 3943 3630 3303 3792 2623 Low entropy cells 6947 1444 1555 1297 1325 1508 High Entropy cells 10021 2499 2075 2006 2467 1115 Percentage % 69.32 57.78 74.94 64.66 53.71 135.25 SWP SEP NWP NEP - High Entropy Cells Comparison WP 4500 4000 3500 3000 2500 2000 1500 1000 500 0 NEP NWP SEP SWP WP High Entropy Cells 2499 2075 2006 2467 1115 SWP SEP

2003 NWP NEP - All Cells Comparison WP 28000 26000 24000 22000 20000 18000 16000 14000 12000 10000 8000 6000 4000 2000 0 All Parts NEP NWP SEP SWP WP Total cells 18997 4449 3919 4032 4118 2817 Low entropy cells 8294 1779 1735 1771 1553 1646 High Entropy cells 10703 2670 2184 2261 2565 1171 Percentage % 77.49 66.63 79.44 78.33 60.55 140.56 SWP SEP NWP NEP - High Entropy Cells Comparison WP 4500 4000 3500 3000 2500 2000 1500 1000 500 0 NEP NWP SEP SWP WP SWP SEP High Ent. 1998 2499 2075 2006 2467 1115 High Ent. 2003 2670 2184 2261 2565 1171

2008 NWP NEP - All Cells Comparison WP 28000 26000 24000 22000 20000 18000 16000 14000 12000 10000 8000 6000 4000 2000 0 All Parts NEP NWP SEP SWP WP Total cells 21924 5345 4276 4731 4565 3349 Low entropy cells 9693 2175 2022 2031 1824 1847 High Entropy cells 12231 3170 2254 2700 2741 1502 Percentage % 79.25 68.61 89.71 75.22 66.55 122.97 SWP SEP NWP NEP - High Entropy Cells Comparison WP 4500 4000 3500 3000 2500 2000 1500 1000 500 0 NEP NWP SEP SWP WP High Ent. 1998 2499 2075 2006 2467 1115 SWP SEP High Ent. 2003 2670 2184 2261 2565 1171 High Ent. 2008 3170 2254 2700 2741 1502

2013 NWP NEP - All Cells Comparison WP 28000 26000 24000 22000 20000 18000 16000 14000 12000 10000 8000 6000 4000 2000 0 All Parts NEP NWP SEP SWP WP Total cells 26187 6903 4711 5893 5059 3992 Low entropy cells 10958 2785 2187 2332 2099 1712 High Entropy cells 15229 4118 2524 3561 2960 2280 Percentage % 71.95 67.63 86.65 65.49 70.91 75.09 SWP SEP NWP NEP - High Entropy Cells Comparison WP 4500 4000 3500 3000 2500 2000 1500 1000 500 0 NEP NWP SEP SWP WP High Ent. 1998 2499 2075 2006 2467 1115 High Ent. 2003 2670 2184 2261 2565 1171 High Ent. 2008 3170 2254 2700 2741 1502 High Ent. 2013 4118 2524 3561 2960 2280 SWP SEP

Observation As we can observed below that the parts of (NEP and SEP) where located are the parts with the highest number of high entropy cells, that said, the opportunity of growing in these parts are higher than the other parts, which indicate that for the future urban growth of Mecca will be inside the most growing parts of Mecca. On the other hand the percentage of change shows that the (WP) part had the highest change during last twenty years because of the demolish work in the central part of Mecca, and the (NEP and SEP) parts come next. Year NWP NEP SEP SWP WP 1998 2075 2499 2006 2467 1115 2003 2184 2670 2261 2565 1171 2008 2254 3170 2700 2741 1502 2013 2524 4118 3561 2960 2280 Year NWP NEP SEP SWP WP 1998-2003 5.25 6.84 12.71 3.97 5.02 2003-2008 3.21 18.73 19.42 6.86 28.27 2008-2013 11.98 29.91 31.89 7.99 51.80 Total chg. 39.78 89.1 71.18 55.03 23.58 4500 60.00 4000 3500 50.00 3000 NWP 40.00 NWP 2500 2000 1500 1000 500 NEP SEP SWP WP 30.00 20.00 10.00 NEP SEP SWP WP 0 1998 2003 2008 2013 0.00 1998-2003 2003-2008 2008-2013

Comparing the area change with the entropy values change for each part of Mecca Urban cover area change by km2 Year NWP NEP SEP SWP WP 1998 16.36 16.02 13.17 15.15 15.04 2003 18.28 19.22 16.16 17.35 16.24 2008 21.29 23.9 19.26 20.16 18.6 2013 22.87 30.3 22.55 23.48 18.59 High Entropy cells change Year NWP NEP SEP SWP WP 1998 2075 2499 2006 2467 1115 2003 2184 2670 2261 2565 1171 2008 2254 3170 2700 2741 1502 2013 2524 4118 3561 2960 2280 35 30 25 20 15 10 1998 2003 2008 2013 WP NWP SWP NEP SEP 5000 4000 3000 2000 1000 0 1998 2003 2008 2013 NWP NEP SEP SWP WP Year NWP NEP SEP SWP WP 1998-2003 11.7 19.96 22.69 14.55 7.94 2003-2008 16.45 24.34 19.14 16.21 14.57 2008-2013 7.46 26.78 17.1 16.46-0.07 Total chg. 39.78 89.1 71.18 55.03 23.58 30 28 26 24 22 20 18 16 14 12 10 8 6 4 2 0-2 1998-2003 2003-2008 2008-2013 WP NWP SWP NEP SEP Year NWP NEP SEP SWP WP 1998-2003 5.25 6.84 12.71 3.97 5.02 2003-2008 3.21 18.73 19.42 6.86 28.27 2008-2013 11.98 29.91 31.89 7.99 51.80 Total chg. 39.78 89.1 71.18 55.03 23.58 60.00 50.00 40.00 30.00 20.00 10.00 0.00 1998-2003 2003-2008 2008-2013 NWP NEP SEP SWP WP

1998 The kernel density of the entropy value change indicate the direction of growth

2003

2008

2013

Conclusion - The urban cover change of Mecca shows that the parts where located have gained higher importance than the other parts, that because of the higher change of the urban cover area and in the same time higher number of high entropy cells. -The central part have had the lowest urban cover change but have had the highest percentage of high entropy cells change. -The site of during the last twenty years have not changed in its cover area neither in its entropy cells value, which indicate the opportunity to change the site of to adapt the future need of Mecca growth is low. But the surrounding areas have high opportunity to grow than the other parts of Mecca -The last slides show the Kernel density of the entropy value change which can indicate the direction of growth inside the parts where is located and how that direction gives more importance to the sites of within the future growth of Mecca. -Many others indexes can be applied to analyze the urban cover change and its impact on the site of.

Future Plans -Participating in XXIII ISPRS CONGRESS, Prague 2016. - Publishing some articles related to the subject. - Trying to make some kind of collaboration between my university in Saudi Arabia and Barcelona tech university and Starlab company as well. CLOSING REMARKS - The internship, and in general working at Starlab, provided interesting insight of how is urban remote sensing analysis and development is important nowadays for any academic or professional urban study - Simultaneously, it was a good opportunity to put in practice and develop further negotiation and organizational skills and refresh some concepts in Urban field required for the completion of my PhD Thesis - Last but not least, it was a great opportunity for developing personal networking activities and making contacts which may prove of value in the near future and to work with a fantastic team of very hard-working guys