SiteSelection
ChapterIII 03
3.1. UrbanAnalysis
3.1.1 Building Condition Map
As shown in figure (5 1), 60% of the buildings are in good to Moderate condition as a result of the interest in building with stones and wood to suit the nature of the place and to preserve its identity
3.1.2 Land Use Map
As shown in figure (5 4) 70% residential buildings, a small number of hotels, tourist villages, and a lack of service and educational buildings
SiteSelection
3.1.3 Building Height Map
As shown in figure (5 5), and according to our visit to the site, the architectural character of St Catherine was revealed One of the most important features of this character is the heights of the buildings that do not exceed two floors, except in religious and service buildings
3.1.4 Street Hierarchy Map
As shown in figure (5 6), There is one main road that goes around St Catherine, and many secondary and mountainous streets branch off from it, paving the way for access to rugged places
16
Figure (5.1 Building Condition map, source by (Google earth,2021) , Illustrated by (Authors,2021) Good Moderate Poor
60% 30% 10% Fig (5.2), building condition map, data source (Authors), illustrated by (Authors,2021)
Figure (5.3 Land Use map, source by (Google earth,2021) , Illustrated by (Authors,2021)
Mixed Use Commercial Entertainment Residential Religious 670% 10% 13% 2% 5% Fig (5.4), land use map data source (Authors), illustrated by (Authors,2021) Figure (5.5) Building Height map, source by (Google earth,2021) Illustrated by (Authors,2021) GROUND 1-2 LEVEL 2-4 LEVEL 60% 20% 20% Fig (5.6), building height map, data source(Authors) , illustrated by (Authors,2021)
Figure 5.6) Building Height map, source by (Google earth,2021) Illustrated by (Authors,2021) Secondary Street Main Street 70% 30% Fig (5.7), street hierarchy map, data source (Authors) illustrated by (Authors,2021)
SiteSelection
3.1.4 SolidAnd Void Map
3.1.5 Topography
This Figure show the topography of Saint Catherine
As shown in figure (5.8), 80% is void and 20% is solid due to the desert environment of the city and the low rate urbanization in St Catherine
3.1.6 ClimaticAnalysis
• St. Catherine Climate Summary:
• This is the only site in Egypt where it snows on a regular basis. The days are typically bright enough to feel comfortable outside, even if it can become cold at night Some trekking groups prefer the winter season since it is more pleasant to hike and climb.
• Temperature:
• When humidity is included in, temperatures feel hot for roughly half of the year and pleasant the other half.
• Precipitation:
• January, May, and June have the lowest risk of major precipitation in St Catherine.
• Late December is the most likely time for heavy precipitation.
17
Solid 15% Void 85% 6 80% 20% Fig (5.9), solid and void map, data source (Authors), illustrated by (Authors,2021)
Fig(5 10),Topographyof Saint Catherine, Google, Authors 2021
Apr Dec 30 Days 25 Days 20 Days 15 Days 10 Days 05 Days 0 Days Jan Feb Mar May Jun Jul Aug Sep Oc N v >40 C >35 C >30 C >25 C >20 C >15 C >10 C >5 C
Fig (5.11) Temperature, Data source (meteoblue)
30 Days 25 Days 20 Days 15 Days 10 Days 05 Days 0 Days 20-50 10-20mm 5-10 2-5 Dry Days SnowDays Apr Dec Jan Feb Mar May Jun Jul Aug Sep Oc N o v Figure (5.8) Building Height map, source by (Google earth,2021) , Illustrated by (Authors,2021
Fig(5.12) Precipitation, Data source (meteoblue)
SiteSelection
• Relative Humidity:
• The least humid month is March (39.6 percent relative humidity) and the most humid is September (51.6%) for St.
• Wind Speed:
• The wind at St Catherine is typically stronger than in many other areas
• Maximum sustained winds are at their strongest in late August to early September, with average peak sustained speeds reaching 23.7 knots, which is considered a strong breeze.
• Wind Rose:
• Maximum wind from the North
• Minimum wind from the South.
• Best orientation for maximizing gain from prevailing wind is Northwest for good ventilation.
• Cloudy, sunny, and precipitation days:
• On average, June is the most sunny.
• On average, December and January have the lowest amount of sunshine.
• Sun path diagram
Sumer sun path and winter sun path shown in the following figure .
18
Jan Feb Mar Apr J u n Jul Aug Sep Oct Nov May 20 40 60 80 100
Catherine
Fig( 5.13) Relative Humidity, Data source (championtraveler)
Nov Dec 30 Days 25 Days 20 Days 15 Days 10 Days 05 Days 0 Days Jan Feb Mar Apr May Jun Jul Aug Sep Oct >1 >5 >12 >19 >28 >38 >50 >61 Km/hr
Fig (5.14) Wind Speed, Data source (meteoblue)
>1 >5 >12 >19 >28 >38 >50 >61 Km/hr
Fig(5.15) Wind Rose, Data source (meteoblue)
30 Days 25 Days 20 Days 15 Days 10 Days 05 Days 0 Days Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec Sunny Partly Cloudy Overcast Precipitatio n Days
Fig(5.16)Wind Speed, Data source (meteoblue)
Fig(5.17) site analysis , Data source (authors),
SiteSelection
• ClimateAnalysis Conclusion from a touristic point of view:
1. The high altitude provides a pleasant climate, with refreshing cool summer nights and warm and sunny winter days
2. Spring (March through May) Humidity and temperatures combine to make this season feel warm Highs range from 91 4°F (33°C) and 73 6°F (23 1°C) with warmer temperatures in the later months. Rain is nonexistent with roughly 0 days of significant precipitation per month
3. Summer (June through August) The middle-year months have hot weather with high temperatures that are quite warm These months see the least precipitation with about 0 days of precipitation per month.
4. Fall (September through November) Fall daily highs range from 92°F (33.3°C) and 77 1°F (25 1°C), which will feel very nice given the humidity and wind It rains or snows a trivial amount: approximately 0 days per month.
5. Winter (December through February) Weather is somewhat cool this time of year in St Catherine to be enjoyable for warm weather travelers. The average high during this season is between 75.4°F (24.1°C) and 68.7°F (20.4°C). On average, it rains or snows a insignificant amount: consistently 0 times per month.
6. The busiest month for tourism in St Catherine, Egypt is January, followed by July andAugust
7. Tourists are unlikely to visit St Catherine in December.
3.1.7 SkyLine
19
Fig(5.218)Wind Speed, Data source (meteoblue)
Fig(5.19), Saint Catherine residents, data source (st-katherine.net, 2019), Illustrated by (Authors,2021)
Fig(5.20), Saint Catherine residents , data source (stkatherine.net, 2019), Illustrated by (Authors,2021)
• The Skyline of St Catherine is diversified due to the contour of the area
SiteSelection
3.1.10 Architectural Analysis
• Elevations
St Catherine is famous for its building material that they use stone that brought from St. Catherine mountain, this is shown in most of St. Catherine houses, they also use shading device for their windows, roofs, and entrances, recently they use concrete as a building material as shown in wadi moqads mosque.
1 2
Small Openings
Roof Shading Device
RoundArches Dome Granite Wall RoundArch Door
Columns
8
Door Shading Device 8
20
Fig(5.31), Saint Catherine residents , data source (stkatherine.net, 2019), Illustrated by (Authors,2021)
Fig(5.32), St. Catherine Monastery , data source (sinaimonastery), Illustrated by (Authors,2021)
Fig(5.33), Saint Catherine residents , data source (st-katherine.net, 2019), Illustrated by (Authors,2021)
3 4 5 6 7 2 3 4 5 6 7 1
SiteSelection
21
Fig(5.34), Saint Catherine residents , data source (dreamstime) ), Illustrated by (Authors,2021)
Fig(5.36), Saint Catherine residents , data source (africanworldheritagesites) , Illustrated by (Authors,2021)
9 10 11 12 13 14 15 9 10 11 12 13 14 15 RoundArches Window Minaret Pointed Arch Window Columns Entrance Shading Device Wooden Window
Fig(5.35), Saint Catherine residents , data source (dreamstime) ) , Illustrated by (Authors,2021)
• Vegetation
Site
• Stone material that brought from the mountain
22
Selection • Street Views
Fig(5.37), Saint Catherine residents , data source (st-katherine.net, (Authors,2021)
Fig(5.38), Saint Catherine residents , data source (st-katherine.net, (Authors,2021)
• Bedouin house
• St. Catherine mountain
• Stone Bedouin house
• Mountain
SiteSelection
• Religious Tourism
• Entertainment trips with camels for tourist
23
Fig(5.39), Saint Catherine residents, data source (sinaimonastery) , Illustrated by (Authors,2021)
• St. Catherine Monastery
SiteSelection
3.1.8 Landmarks
3.1.9 Transportation analysis
A real problem is that the citizens of Saint Catherine’s tourist city suffer from, from the scarcity of public transportation to move between the cities of South Sinai or to Cairo and the rest of the governorates of the Republic, where many tourists come to enjoy the religious and historical tourism attractions
Fig(5.22), Saint Catherine transportation, data source (stkatherine, 2019), illustrated by (authors)
Fig(5.23), Saint Catherine transportation , data source (stkatherine.net, 2019), illustrated by (authors)
Fig(5.21)Saint cathrine, Data source (Authors),illustarated by authors
SiteSelection
3.1.10 Socio-economic Analysis
• The population Population of the city of Saint Catherine Population of 1400 people (2020 census)
• Brief about The Bedouins.
The Bedouins’ conservation practices preserve not only economic and aesthetic values, but also an entire way of life. Conservation of plants and animals is an expression of the nomads’ deep-seated beliefs. Loss of livelihoods, also means loss a desert home and without their cultural and historical ties that go with the place.
• Population activities:
• Farming
• Irrigation
• Tourism
3.1.11 SWOTAnalysis
25
Fig(5.26), Saint Catherine residents , (stkatherine.net, 2019), illustrated by (authors)
Fig(5.27), Saint Catherine residents , data source (stkatherine.net, 2019), illustrated by (authors)
3.2 Site location:
3.1. SiteAnalysis
3.2.1 Building Condition Map
Map), illustrated by (author, 2021) 15% Fig(5.30), Building height map, data source(authors), illustrated by (author, 2021)
All the surroundings off the buildings are consists of one floor except the airport and port / harbor security service
SiteSelection
Fig(5.31), Building condition map, data source(Google Map), illustrated by (author, 2021) Good conditions Moderate poor
5% 75% 20% Fig(5.32), Building condition map, data source(authors), illustrated by (author, 2021)
The map shows that most of the buildings are corrupted and average except the airport and the harbor security service is considered to be in a good conditions
26
Due to the analysis we did, we location for our project, in order that there is no service road on western side that obstacle our site, and in the planes. Fig(5.29), Building height map, data source(Google Map), illustrated by (author, 2021) 1 floor building 2 floors building 85%
3.2.2 Building Condition Map
3.2.3 Building Condition Map
3.2.4 Street Hierarchy
SiteSelection
The surrounding context of the airport is mainly utilities buildings in addition to commercial and residential buildings which is identified on the map
3.2.5 Solid and void
The map helps us to identify the main road and the side roads, it also shows that the only way to reach the airport is the (airport road)
3.2.6 ViewsAnd Sensors
The map illustrates the decrease of the number of buildings compared to the void
27
45% 25% 5% 10%
Fig(5.33), Land use,data source(Google Map), illustrated by (author, 2021) Public buildings Utilities Commercial Residential Military
Fig(5 34), Land use, data source(authors),illustrated by (author, 2021)
Fig(5.35), Street hierarchy map, data source(Google Map), illustrated by (author, 2021) Main roads Secondary roads 70% 30% Fig(5.36), Street hierarchy map, data source(authors), illustrated by (author, 2021)
Solid Secondary roads Fig(5.37), Solid and void map, data source(Google Map), illustrated by (author, 2021
90% 10% Fig(5.38), Solid and void map, data source(authors),illustrated by (author, 2021)
sensors
data source(Google
by 9author, 2021)
Fig(5.38),Views and
,
Map), illustrated
SiteSelection
3.2.7 SWOTAnalysis
Conclusion
• The site has been selected according to certain criteria, representing in: plans of the government, landmarks, community and residence, flexibility, location and accessibly.
• After studying the roads and buildings in the area, the plot of land was chosen, adjacent to the airport from the north direction so that it would be easily accessible via the already existing street and it will easily integrate with the internal circulation of the airport building as it is adjacent to it from the passenger terminal zone
28
DesignDevelopment
5.5. Jury IV
55
FinalizedProject 5.6.
5.6. Finalized Project
57 FinalizedProject
58 FinalizedProject
59 FinalizedProject
FinalizedProject 60
61 FinalizedProject
62 FinalizedProject
Construction ChapterVI 06
6.1. Foundation:
- Because the terrain in St. Catherine is typically rocky and sturdy, foundations are safe to sustain one level of bearing wall construction with 70 cm ground depth
- Land in non-rocky/sandy locations is usually composed of tafla (clay), which must be replaced with a clean and smooth layer of sand at least 60 cm thick.
6.2. Used materials:
1. In curtain wall
Invisible solar harvesting technology:
Transparent glass is utilized in the invisible solar harvesting system to act as solar panels without blocking the view from inside or outside, this technology called luminescent solar concentrator (LSC).
The new LSC technology is made transparent by targeting wavelengths of sunlight that are not in the visible spectrum The LSC technology uses small organic molecules to pick up ultraviolet and near infrared wavelengths that then 'glow' at another wavelength in the infrared.
2. Wall cladding
GRC panels:
Glass fiber reinforced concrete (GFRC) is a type of fiber-reinforced concrete Glass fiber concretes are mainly used in exterior building façade panels and as architectural precast concrete.
Glass fiber-reinforced concrete ceramic consists of high-strength, alkali-resistant glass fiber embedded in a concrete & ceramicmatrix. In this form, both fibers and matrix retain their physical and chemical identities, while offering a synergistic combination of properties that cannot be achieved with either of the components acting alone.
64 Construction
Figure(6.1)Foundation, Data source (academia), Illustrated by (Authors,2021)
Figure(6.1) Invisible solar harvesting technology, Data source (dezeen,2017)
Figure(6.3) GRC panels, Data source (dezeen,2017)
Figure(6.2) Invisible solar harvesting technology, Data source (Anthony Cuthbertson,2017)
65 Construction Curtain wall wall cladding 2nd 6.3. Construction details Self shading 3rd Saw tooth 4th 1st Saw tooth 1st Detail 1 (Detail 1)
66 Construction Curtain wall 2nd ( 1)
Wall section Detail 1 Detail 2 (Detail 2)
67
Construction
wall cladding
3rd Wall section
( 1 )
Detail 1 Detail 2 ( Detail 2 )
Construction
68
Wall cladding
Curtain wall
6.4. curtain wall & cladding in plan
Chapter
07
Structure
VII
1
Space trusses are three-dimensional structures with longitudinal members connected at their ends by hinges assumed to be frictionless. The loads on space trusses are applied only at the nodes or joints, thus the self-weight is allocated for each element at its two ends joining other elements of the truss. The conditions imposed on space trusses are certainly the same as those on plane trusses.
2nd
Shell structure
The term grid shell is defined more recently as a structure with the shape and strength of a double curvature shell, but made of a grid instead of a solid surface these structures can cross large spans with very few material
A grid shell is defined to be a long span structure comprised of a network of members creating the single layer "grid" that forms the curved surface "shell"
• The space trusses span is 40m
• The distance between the columns from 8 to 10 m
• When we are dealing with grid shell, there is no need for columns in the middle of the space, columns in the edges can be sufficient
• Therefore it was chosen for spaces with large spans like the departure hall
70 Structure 7 Space trusses Shell structure 1st 2nd Flat slab 3rd
Space trusses
st
Figure(7.1) Space trusses , Data source (arch daily,2022)
Figure(7.2) Shell structure, Data source (arch daily,2022)
Structure
3rd
Flat slab
A flat slab is a reinforced concrete slab that is supported directly by concrete columns rather than beams
The term "flat slab" refers to a one-sided or two-sided support system in which the shear stress of the slab is concentrated on the supporting columns
7.2. Structure systems in plans
• The flat slab span is between 7m and 9m
Space trusses
Grid shell
71
Figure(7.3) flat slab , Data source (arch daily,2022)
Environmental Chapter
08
VIII
8.1. Environmental Strategies Used
Invisible solar harvesting technology: Transparent glass is utilized in the invisible solar harvesting system to act as solar panels without blocking the view from inside or outside, this technology called luminescent solar concentrator (LSC).
The new LSC technology is made transparent by targeting wavelengths of sunlight that are not in the visible spectrum The LSC technology uses small organic molecules to pick up ultraviolet and near infrared wavelengths that then 'glow' at another wavelength in the infrared
2nd
Water features
Water features soothes the atmosphere, it also Improves the air quality and reduces noise pollution.
Landscaping water features add visual interest and charm for potential homebuyers.
73 Environmental
Curtain wall Water features Self shading 3rd Saw tooth 4th 1st 2nd Curtain wall 1st
Fig ( 8.1.1) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
3rd
Self shading
the main idea of the self shading mass is to reduce the direct solar radiation, emitted from the sun
A self-shading mass is a mass that shade itself. Saw tooth
4th
Asaw-tooth roof is a roof comprising a series of ridges with dual pitches either side. The steeper surfaces are glazed and face away from the equator to shield spaces from direct sunlight. This kind of roof admits natural light into the building.
5th
Courtyard
Including courtyards inside the structure to regulate air flow and provide effective ventilation increasing natural daylight in the middle of a building They are also great for introducing an outdoor area to the interior of the building
74 Environmental
Fig ( 8.1.2) Self shading mass, Data source (Shady Shawky Saifelnasr,2019)
Ventilation 6th
The orientation of the building in the direction of the north allows horizontal and vertical ventilation, as the openings in the sides of the shell is directly facing the north west which is the direction of the wind, the enters from this side and then exit from the other side.
Beside that the building also achieve passive cooling as the top of the shell heated because of the direct sun light and as a result the air underneath it heated an come out from the openings
75 Environmental
Sustainability ChapterIX 09
Sustainability
9.1. The main sustainability aspects that were taken into consideration are:
Social sustainability
Economic sustainability
Environmental sustainability
• Social Sustainability:
Social sustainability is defined as "the process of developing long-term, successful locations that promote well-being by understanding what people require from the areas where they live and work "
Social sustainability integrates physical and social realm design - infrastructure to support social and cultural life, social amenities, methods for citizen involvement, and space for people and places to grow (Woodcraft et al, 2012).
• Economic Sustainability:
Economic sustainability is a subset of sustainability, and it refers to how we use, secure, and sustain resources (both human and natural) in order to create long-term value through optimal use, recovery, and recycling. To put it another way, we must conserve finite natural resources today in order for future generations to be able to meet their own requirements.
• Long-term resource conservation is required. Rather than consuming the Earth's natural resources
• We must rely on their "returns." The present and future worth of natural resources
• Drinking water, as well as products, investments, consumption, markets, and the global economy, are all aspects of long-term economic sustainability
• Social Sustainability:
Is the rates of renewable resource harvest, pollution creation, and nonrenewable resource depletion that can be continued indefinitely. If they cannot be continued indefinitely then they are not sustainable (Robert,20160.
77
Fig(9.1) Sustainability, data Source (researchgate), illustrated by (Authors,2021)
The building also achieve passive cooling as the top of the shell heated because of the direct sun light and as a result the air underneath it heated an come out from the openings
Transparent glass is utilized in the invisible solar harvesting system to act as solar panels without blocking the view from inside or outside, this technology called luminescent solar concentrator (LSC).”
The new LSC technology is made transparent by targeting wavelengths of sunlight that are not in the visible spectrum. The LSC technology uses small organic molecules to pick up ultraviolet and near infrared wavelengths that then 'glow' at another wavelength in the infrared This infrared 'glow' is directed towards the edge of the plastic where it is converted by thin strips of photovoltaic cells into electricity.
78 Sustainability Passive cooling 1st Heated shell Sun light Warm air out
Invisible solar harvesting technology 2nd
Fig ( 9.3) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
Fig (9.4 ) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
Fig (9.2) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
Transparent LSC technology has many benefits in addition to being aesthetically pleasing. Firstly, it could be used in a variety of applications and has the potential to be scaled to both commercial and industrial applications at an affordable cost, from windows to cell phone screens Secondly, the technology can be used to manage solar heat gain since it specifically targets infrared wavelengths. According to Lunt, “There are already window film technologies that aim to reject infrared light such as low-E coatings. We aim to have a similar functionality while also generating electricity.”
Exploiting the landscape of the project utilizing smart technology pavement made with recycled truck tires and polymer used to generate electricity Each step on the pavement produces up to five watts of power
Kinetic Tiles is a flooring system consisting of tiles that are assembled as tiles that produce kinetic energy as anyone walks on it. This power can be used in many ways, such as lighting or charging.
Application of Pave Gen:
Reduce energy: tiles generate energy that can illuminate and power the open spaces
Data collection: wireless sensors are available to provide information about the movement of people that can be used to know peak hours and places most visited
Engaging the social: using Kinetic Tiles in the community room allows people to participate in the project, allowing it to minimize energy by being there and working.
79
Sustainability
Fig ( 9.5 ) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
3
Kinetic Tiles (Pave Gen)
rd
Fig ( 9.6) Energy Generating Pavement, Data source (inhabitat)
Fig ( 9.7) Energy Generating Pavement, Data source (inhabitat)
Fig ( 9.8) Energy Generating Pavement, Data source (inhabitat)
Chapter
10
Bibliography
X
10.1. List of figures :
Chapter I
• Fig (1 0), The smart hub holds different mode of transportation, data source (Elshater, 2014), illustrated by (Authors,2021)
• Fig (1 1), Transportation System in Concept, data source (Tony, 2006), illustrated by (Authors,2021)
• Fig (1 2),) Point-to-Point vs Hub and Spoke Systems, data source (Woxenius and Tony, 2006, illustrated by (Authors,2021)
Chapter II
• Fig(2.1) Saint Catharine, data Source (Authors, 2021)
• Fig(2.2) Private transportation in saint Catharine, data Source (Authors, 2021)
• Fig(2.3) Private transportation in saint Catharine, data Source (Authors, 2021)
• Fig(2.4) Topography of saint Catharine, data Source (Climate Consultant , 2021)
• Fig(2.5) Al-Sisi briefed on the proposal of the “Altagli Alazam” project, data Source (yom7, 2021)
• Fig(2.6) Moussa mountain, data Source (masrawy, 2021)
• Fig(2.7) Dair saint Catharine, data Source (Gate al-Ahram, 2021)
• Fig(2.8) Tagli project, data Source (yom7, 2021)
• Fig(2.9) Tagli project, data Source (yom7, 2021)
• Fig(2.10) Taba Naiwbaa, data Source (Egypt project map, 2021)
• Fig(2.11) Taba Naiwbaa Road, data Source (Egypt project map, 2021)
• Fig(2.12) Wadi Saal - St. Catherine Road , data Source (Egypt project Road, 2021)
• Fig(2.13) Wadi Saal - St. Catherine Road , data Source (Egypt project map, 2021)
• Fig(2.14) Wadi Saal - St. Catherine Road , data Source (Egypt project map, 2021)
• Fig(2.15) St Catherine Airport, data Source (civil aviation, 2021)
Chapter III
• Figure (3.1) Building Condition map, source by (Google earth,2021) , Illustrated by (Authors,2021) Fig (5.2),St. Katherine Health Office, data source (Google) , illustrated by (Authors,2021)
• Fig (3.3), St. Katherine Tourist Village , data source (Katherine) , illustrated by (Authors,2021)
• Fig (3.4) Land Use map, source by (Google earth,2021) , Illustrated by (Authors,2021) Fig (5.5),St. Katherine
81 Bibliography
• Fig (3.4) Land Use map, source by (Google earth,2021) , Illustrated by (Authors,2021) Fig (5.5),St. Katherine Monastery , data source (7th day) , illustrated by (Authors,2021) Fig (5.6), St. Catherin Hospital, data source (Katherine) , illustrated by (Authors,2021)
• Fig (3.7) Building Height map, source by (Google earth,2021) , Illustrated by (Authors,2021)
• Fig (3.8), St. Katherine Hotel , data source (Authors) , illustrated by (Authors,2021)
• Fig (3.9), Monastery of St. Katherine , data source (Katherine) , illustrated by (Authors,2021)
• Fig (3.10) Building Height map, source by (Google earth,2021) , Illustrated by (Authors,2021) Fig (5.11), St. Katherine snowing, data source (akhbarelyom), illustrated by (Authors,2021)
• Fig (3.12), city of St. Katherine, data source (propertyfinder), illustrated by (Authors,2021) Fig (5.13) Building Height map, source by (Google earth,2021) , Illustrated by (Authors,2021)
• Fig (3.14), St. Katherine Roads, data source (Authors), illustrated by (Authors,2021)
• Fig (3.15), St. Katherine Protectorate, data source (youm7), illustrated by (Authors,2021)
• Fig(3.16), topography of Saint Catherine, illustrated by (Authors,2021)
• Fig (3.17) Temperature, Data source (meteoblue), illustrated by (Authors,2021)
• Fig(3.18) Precipitation, Data source (meteoblue)
• Fig( 3.19) Relative Humidity, Data source (championtraveler)
• Fig (3.20) Wind Speed, Data source (meteoblue)
• Fig(3.21) Wind Rose, Data source (meteoblue)
• Fig(3.22)Wind Speed, Data source (meteoblue)
• Fig(3.23) site analysis , Data source (authors),
• Fig(3.24)Wind Speed, Data source (meteoblue)
• Fig(3.25), Saint Catherine residents, data source (st-katherine.net, 2019), Illustrated by (Authors,2021)
• Fig(3.26), Saint Catherine residents , data source (st-katherine.net, 2019), Illustrated by (Authors,2021)
• Fig(3.27), Saint Catherine residents , data source (st-katherine.net, 2019), Illustrated by (Authors,2021)
• Fig(3.28), St. Catherine Monastery, data source (sinaimonastery), Illustrated by (Authors,2021)
Chapter VI
• Fig ( 4.3.1) Egyptian vision 2030 logo, Data source (Egypt today,2020)
• Fig ( 4.3.2) the selected two means of transportation, illustrated by the author
82
Bibliography
• Fig(4.3.3) Tagli project, data Source (yom7, 2021)
• Fig(4.3.4) St. Catherine nuwibaa Rd, data Source (google earth, 2021)
• Fig(4.3.5), Saint Catherine residents , data source (st-katherine.net, 2019) , Illustrated by (Authors,2021)
• Fig(4.3.6), Saint Catherine residents , data source (st-katherine.net, 2019) , Illustrated by (Authors,2021)
• Fig(4.3.7), Saint Catherine residents , data source (st-katherine.net, 2019) , Illustrated by (Authors,2021)
• Fig(4.3.8), 3d view, data source (unstudio,2020), illustrated by (Authors,2021)
• Fig(4.3.9), concept, data source (unstudio,2020), illustrated by (Authors,2021)
• Fig(4.3.10), case study analysis, data source (Authors,2021)
• Fig ( 4.3.11) bird’s migration from Europe to Sudan , Data source (vector stoke, 2016)
• Fig ( 4.3.12) bird’s migration path from Europe to Sudan stopping in St Catherine, illustrated by the author
• Fig ( 4.3.13) bird’s wing analogy, Data source (Jakkapan Jabjainai,2016)
• Fig ( 4.3.15) inspiration, Data source (Megan Barber,2018)
• Fig (4.3.16) inspiration, Data source (Megan Barber,2018)
• Fig (4.3.17) inspiration, Data source (Megan Barber,2018)
• Fig (4.3.18) mountains in St. Catherine, Data source (google earth, 2022)
• Fig (4.3.19) mountain analogy sketch, illustrated by the author
• Fig (4.3.20) green between cracks , Data source (Heatherwick, 2017)
• Fig (4.3.20) schematic elevation sketch, illustrated by the author
• Fig ( 4.3.22) mousa mount, Data source (moheb wessa, 2019)
• Fig ( 4.3.23) topography , Data source (designbysml, 2019)
• Fig (4.3.24) nspiration, Data source (site less book, 2008 )
• Fig (4.3.25) inspiration, Data source (site less book, 2008 )
• Fig (4.3.26) integration sketches, illustrated by the author
• Fig (4.3.28) integration,Data source (arch daily , 2013 )
• Fig ( 4.3.30) bird’s migration path from Europe to Sudan stopping in St Catherine, illustrated by the author
Chapter V
• Fig ( 5.1.1) first form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.2) second form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.3) third form, Data source (illustrated by the author ,2022)
83
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• Fig ( 5.1.1) first form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.2) second form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.3) third form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.4) fourth form, Data source (illustrated by the author ,2022)
• Fig ( 5.1.5) final form, Data source (illustrated by the author ,2022)
• Fig ( 5.2.1) first form, Data source (illustrated by the author ,2022)
• Fig ( 5.2.3) third form, Data source (illustrated by the author ,2022)
• Fig ( 5.2.2) second form, Data source (illustrated by the author ,2022)
• Fig ( 5.2.4) fourth form, Data source (illustrated by the author ,2022)
• Fig ( 5.2.5) final form, Data source (illustrated by the author ,2022)
Chapter VI
• Figure(6.1)Foundation, Data source (academia), Illustrated by (Authors,2021)
• Figure(6.1) Invisible solar harvesting technology, Data source (dezeen,2017)
• Figure(6.2) Invisible solar harvesting technology, Data source (Anthony Cuthbertson,2017)
• Figure(6.3) GRC panels, Data source (dezeen,2017)
Chapter VII
• Figure(7.1) Space trusses , Data source (arch daily,2022)
• Figure(7.2) Shell structure, Data source (arch daily,2022)
• Figure(7.3) flat slab , Data source (arch daily,2022)
Chapter VIII
• Fig ( 8.1.1) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig ( 8.1.2) Self shading mass, Data source (Shady Shawky Saifelnasr,2019)
Chapter XI
• Fig(9.1) Sustainability, data Source (researchgate), illustrated by (Authors,2021)
• Fig (9.2) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig ( 9.3) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig (9.4.) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
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• Fig(9.1) Sustainability, data Source (researchgate), illustrated by (Authors,2021)
• Fig (9.2) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig ( 9.3) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig (9.4.) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig ( 9.5.) Invisible solar harvesting technology , Data source (Anthony Cuthbertson,2017)
• Fig ( 9.6) Energy Generating Pavement, Data source (inhabitat)
• Fig ( 9.7) Energy Generating Pavement, Data source (inhabitat)
• Fig ( 9.8) Energy Generating Pavement, Data source (inhabitat)
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