N.M.P.A.C NEW MANSOURA PERFORMING ARTS CENTER
Abstract…………………………………………………………….. III Acknowledgments…………………………………………….. IV Chapter 1: Introduction • Autonomy overview……………………………………… 1
OCTOBER UNIVERSITY FOR MODERN SCIENCES & ARTS
• Approaches of autonomy in architecture……… 1 • Selected autonomous approach…………………… 2 • Selected project’s location……………………………. 2
FACULTY OF ENGINEERING
• Selected project type……………………………………. 3
ARCHITECTURAL DEPARTMENT
• Selected site………………………………………………… 5
• Program………………………………………………………… 7
GRADUATION PROJECT II
Chapter 2: Design Approach
SPRING 2021
• Case study…………………………………………………….. 8
CONTENTS
UNDER THE SUPERVISION OF: Dr. Sameh El Feki Dr. Omar Fawzy
• Preliminary concept selection ……………………… 12 • Selected concept………………………………………….. 17
SUBMITTED BY: Samar Adham 170301
• Inspired design solutions……………………............ 11
• Selected concept development……………………. 17 An architectural product has to fulfill its function, but furthermore, it needs to transcend its function and have aesthetic values”.
• Final project’s drawings ……………………………….. 22
-Le Corbusier
• Selected rating system certificate…………………. 28
Chapter 3: sustainability and environmental aspects • Sustainibilty overview…………………………………… 27 • Design solutions……………………………………………. 29
Dr. Tarek Galal
Chapter 4: Construction
Dr. Hasnaa El Sherbiny
• Auditorium finishing details…………………………. 32 • Theatre finishing details……………………………….. 37
Eng. Merna Mohamed
• Training complex finishing details…………......... 39
Eng. Esraa El Areef
Chaoter 5: Structure • Auditorium structural analysis……………………... 41 • Theatre structural analysis……………………………. 43 • Training complex structural analysis…….……….. 44 Bibliography • List of figures • Refrences 2
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ABSTRACT
ACKNOWLWDGEMENTS
This project’s theme required studying the meaning of “Autonomy”, whether generally; the ability of self expression accompanied with the freedom of will and independence, or with respect to architecture; the individuality of a building and its ability to stand out without being limited down by rules or constraints. Following the project’s theme, the studies carried on to choosing a suitable autonomous approach which impacted both; the project type selection, and the location selection. The selected project type is a biophilic performing arts center located in New Mansoura city which not only offers a not-so-common service for Egypt and the surrounding region by providing both educational and enteratainment purposes, but also it serves as a great attraction spot to motivate citizens of Egypt to visit the newly constructed city of New Mansoura and raise both of its economic state, and its national importance.
I would like to express my gratitude to my primary supervisor; Dr. Tarek Galal who guided me throughout this project and provided me with deep insight to the project. I would also like thank the supervising team; Dr.Hasnaa El-Sherbeiny, Eng. Merna Mohamed, and Eng. Esraa El-Areef for their continuous help and support. I would also like to express my appreciation, gratitude, and respect to Prof. Sameh El Feki, Prof. Omar Fawzy, and Dr. Moahmed Rafik for their infinite knowledge, conception, and compassion that helped me through the journey and made it much easier. And finally, I would like to thank my friends and family for their constant support and motivation throughout the whole journey.
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Autonomy According to Dworkin (1988), the term “autonomy” has several meanings and descriptions but mainly it is all about self-rule and self-determination; the ability of self expression accompanied with the freedom of will and independence. Autonomy is also reflected in the individuality of a person, and idea, or a building; to be able to stand out without being limited down by rules or constraints (Christman, 1989).
The concept of relational autonomy in architecture cancels the idea that autonomy only lies in under-socializing and individualism, or that achieving architectural autonomy or architectural freedom depends on the complete detachment from the surrounding context.
In the last decades, autonomy has been integrated in three major fields that correlates to each other; philosophical autonomy, artistic autonomy, and architectural autonomy.
The concept of absolute autonomy in architecture is the total freedom of the shape which is associated with its uniqueness and individualism making it stand out.
Autonomy In Architecture
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INTRODUCTION
According to the American architect; Mario Gandelsonas (1973), the main concept of autonomous architecture is it being a force in itself that speaks about itself and does not communicate ideas other than its own.
Absolute Autonomy ‘Architecture as art’
The flexibility or unfamiliarity of the building form and it being designed as an artistic drawing, this type of freedom is called “contemporary architecture" used as a method of expressing the artistic significance a building could have and its ability to be considered as a landmark that adds a value to its location.
Methodology Of Autonomy In a study done by Canan Sehyun (2004), he stated that the characteristics of autonomy in architecture depend on two main factors: Fig.(1) National Museum Of Qatar
Architecture as a practice Evaluating the autonomy of an architecture of a building considering the internal qualities of architecture practice including:
This chapter is going to discuss the general theme of the project which is “Autonomy In Architecture” highlighting the selected autonomous approach with its relation to both; the project type selection and the location/site selection. This chapter will also discuss further details of the chosen site and the main zones of the selected project type.
Formal values
Tectonic values
Functional values Architecture as a discipline Evaluating the autonomy of the building regarding its relationship with external factors that architecture has to fulfill including: Social factors
Political factors
Cultural factors
Economic factors
Approaches Of Autonomy Relational autonomy According to Tony Fry (2009), relational autonomy lies in the’ being of the building’ as a whole regarding the spatial-temporal relations of the building’s design and function. It is constituted through and enhanced by maintaining a connection with the external factors whether socially, politically, morally, or geographically. 4
Fig.(2) Peter Eisenman’s House VI
Functional Autonomy ‘Architecture as service’ Functional autonomy is what makes the building distinctive by providing new or uncommon services to the place it’s in whether it’s autonomous for being: • Mechanically independent: the building is selfoperational and doesn’t need much human interference for operational issues. • Has an independent design program: the building itself doesn’t rely on functions of surrounding buildings or events. • Offers a new service to its location, might even solve an issue by its services. The museum in Bilbao was considered as a landmark that added to the city’s economy 4 Fig.(3) Guggenheim museum Bilbao
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Selected Autonomous Approach The selected autonomous approach is offering an extraordinary service through a free-form building that will act as an iconic landmark lying within a flexible context along with adding to the selected location’s social and economic state.
The city overlooks 15 kilometers of the Mediterranean and is brilliantly positioned in the middle of three governments, Kafr El Sheikh, El Dakahlia, and Damietta.
This approach impacted the project type selection since the main objective was to select a building type that will have a significant effect not only nationally, but regionally as well.
Location:
It also affected the project location selection as it was hugely important to choose a location which can provide the needed flexibility of the project type.
General information
Acessibility:
Project Type
The connection between New Mansoura city and the cities of Al Delta, specifically Al-Mansoura city is fasilitaded through different methods of transportations and accessible through three main routes :
Selection criteria
1) Through El Mansoura / Gamasa Road (67km / 1hr 23min)
The New Mansoura City project is set to be finalized in several stages. 20 km from New Damietta City, roughly.
Offering a new or uncommon service to the country/region
Selection criteria • Location that give the freedom and flexibility needed to achieve the selected autonomous approach.
A building type which acts as a strong attraction for local visitors and tourists by providing a common interest or connection.
A building type with the needed flexibility of form suitable to achieve the selected autonomous approach.
Building type with the ability to have a flexible envelope
Fig.(5) location within Egypt
Fig.(6) New Mansoura location
Fig.(9) Mansoura/Gamasa road to New Mansoura city
Area:
Location
A building type that offers an unfamiliar service in Egypt and the surrounding region.
An iconic landmark with a free-form envelope
An iconic landmark with a free-form envelope
Adding to the surrounding context and region
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Building type Offering a new or uncommon service to the country/region
Building type connecting people over a common interest
2) Through Talkha / Damietta Road
The city is built on the Mediterranean coast as a smart city extending over a total area of about 5,100 feddans.
(86km /1hr 42min) Performing Arts Center A performing arts center is a multi-use performance complex designed to provide the guest with the suitable environment to watch arious types of the performing arts, including dance, music and theatre.
• Location with a gtreat attraction spot for visitors nationally and regionally. • Location with a close connection to the main cities of Egypt (Delta) • Location with low economic state/motive for visitors. New Mansoura City New Mansoura is one of the 9 cities of the fourth generation, along with the New Administrative Capital ,New Alamin, New Bir Al-Abed, New Aswan, New Sphinx, and East port-said, all of which act as a part of the dreams of Egypt for 2030.
Fig.(4) New Mansoura City Proposal
Style:
Fig.(10) Talkha/Damietta road to New Mansoura city
Fig.(7) New Mansoura City Proposal
The residential units will be designed between greenery and landscapes, promising fresh air for the inhabitants of the area. Built in a modern way, modern compounds are.
3) Through the future planned Monorail (90km /15min)
Fig.(11) Monorail Path to New Mansoura City
Fig.(8) Residential Towers in New Mansoura
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Fig.(12) National PAC of China
Fig.(13) Sydney Opera House PAC
The selected project type is supported by the endless passion that the Egyptians have for various types of arts, specifically the art of performing. And regardless of their fondness of this type of art, there is no presence of a performing arts center in Egypt That’s why the Performing Art Center will be a vital sector of the fabric of the city; in addition to be given the opportunity of activating an educational key which attracts more residents having the same motive for enhancing the quality of life. 3
2) El- Gnena theatre
Performing Arts In Egypt History
Selection Criteria
The history of performing arts in Egypt dates back to the ancient Egyptians as they were the first to make public performing shows and plays whether they were religious, dramatic, or ceremonial performances. These performances usually took place in the streets except the religious ones which took place in temples.
• Site having a fascinating view to make the building stand out and support its autonomous form. Fig.(19) El-Gnena Theatre
• Site lying on a main street to allow the performing arts center to be easily accessible.
Fig.(20) El-Gnena Theatre
• Site with nearby services to encourage people to visit.
3) The National Theatre
Fig.(26) Selected site in proposed master plan
Site accessibility
• Site with easy accessibility to nearby residential units and educational facilities to make it easy for the trainees of the training complex within the performing arts center.
Fig.(14) Ancient Egyptians ceremonial Performance
Fig.(15) Ancient Egyptians Shadow Plays
Theatres in Egypt Performances used to take place at palaces and temples until the appearance of the roman theatres in Egypt including the roman “Odeum” located in Alexandria.
Fig.(21) National Theatre of Egypt
Fig.(22) National Theatre of Egypt
Services
Reasons for choosing New Mansoura City to be the location hosting the performing arts center • Lack of theatres and operas near the delta region.
Legend Main Rd. Secondary Rd.
Accessibility
Needs to be accessible from main roads
Presence of nearby services to encourage visitors to come
Fig.(27) Site accessibility map
Solid & Void Attractive view
Surrounding context To be near residential units and educational facilities for the trainees
The building needs the view to add to its autonomous impact
Legend Solid Void
Selected Site The chosen site is surrounded by residential areas from two sides and a nearby commercial center. Fig.(23) Map showing theatre locations in Delta
Fig.(16) Odeum Roman Amphitheatre in Alexandria
As the years passed, it was hard to practice several types of performances with the limited places available which encouraged the creation of operas and theatres in Egypt.
However, most of these theatres and operas are located in main cities and densed areas as the center of cairo.
• New Mansoura city lies on the north coast so it’s easily accessible for national and regional guests. • Benefits New Mansoura’s vision for 2030 to be one of the main cities of Egypt since the performing arts center will act as a landmark to the city.
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Site Analysis
Site Selection
The site benefits the selected project type as it has an un-interrupted vision of the Mediterranean sea.
Fig.(28) Solid and voids map
Building Heigts Legend
The site is easily accessible to local, regional, and international guests as it lies on the North Coast.
Residential Villas Residential Towers
Site information Area: 30,000 m.sq. Fig.(29) Building heights map
Examples of theatres and opera houses in Egypt
Land Use
1) Cairo Opera House
Legend Residential Green area
Commercial
Fig.(17) Cairo Opera House
Fig.(18) Cairo Opera House interior
Fig.(25) Selected site in satellite map
Fig.(24) Theatres distribution in Cairo
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Fig.(30) Land use map
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Composite Site Analysis
Average Rainy Days
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Project : Program The performing arts center project in New Mansoura City is classified into three main zones:
The performance zone which includes the main The educational zone consisting of a training performance halls. complex that provides all the training classes and recital halls needed for trainees of all ages. Fig.(35) Average Rainy Days chart
The maximum rate of rainy days in el Mansoura are in January, July and August. In those months we can use rainwater reuse technique to vegetate the landscape of the site.
Fig.(31) Composite site analysis
Climate Analysis
Average Monthly Sun Hours
Average Day/Night Temperature
B. Toilets & services C. auditorium hall D. Orchestra pit Fig.(36) Average Monthly Sun Hours chart
Fig.(32) Average Day/Night Temperature chart
The maximum temperature at day and night are June , July and August while the minimum are In January, February and March.
The maximum sun hours are I June, July and August. In those months we can use those sun hours by generating electricity by using solar panels.
Average Relative Humidity
Average Wind Speed
Fig.(33) Average Relative Humidity chart
Fig.(37) Average Wind Speed chart
August has the highest humidity rate, while April is the least month. The average annual percentage of humidity is 68%.
The maximum wind speed is in January, February, March, April, July, and December.
Average Perciptation
SWOT Analysis Strength -Easily accessible -Near the city center -Training complex close to residential area
Weakness - Difference in skyline of the PAC and surrounding
-Has a great view; the Mediterranean sea
Fig.(34) Average Precipitation chart
January and precipitation.
December
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PERFORMANCE ZONE Space Adjacencies Function Area(m Description 2) I. Main Auditorium Building 1. Entrance A. Entrance foyer Tickets, main Waiting area 180 theatre B. Reservation Lobby Reservations for 35 desk x2 shows 2. Main Auditorium A.Foyer Lobby/ main hall Waiting area 320
the
highest
-Modern style surrounding context ( High rise towers)t
190
Foyer/ lobby
Seating area
800
Stage
Performance area Performance area
70
Backstage
Threats -
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180
Backstage/ Stage
70
B. Dressing room Rehearsal rooms Dressing x4 C. Rehearsal Dressing rooms/ Show rehearsal room x2 stage D. Services & Dressing rooms toilets II. Secondary Theatre building 1.Entrance A. Entrance foyer Tickets, main Waiting area theatre B. Reservation lobby Reservations for desk shows 2. Theatre A. Foyer Lobby/ theatre hall B. Toilets & Theatre hall/ services lobby C. Theatre hall Foyer Seating area D. Performing Backstage Performance stage area 3. Backstage A. Lobby Backstage/ stage
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B. Dressing room Stage Dressing x2 C. Rehearsal Dressing rooms/ Show rehearsal room x2 stage D. Services & Dressing rooms toilets
Opportunity
-Ability for future expansion
E. Performing stage 3. Backstag A.Lobby
Main hall
70 120
Space Description
TRAINING ZONE Adjacencies Function
I. Main training program A. Entrance lobby Administration Booking classes B. Chorus room x4 Performance Practicing music hall C. Training room x2 Chorus room Training for shows D. Performance hall Training rooms Practicing hall E. Digital gallery Outdoor Display area exhibition F. Toilets & services Training rooms II. Kids training program A. Entrance lobby Administration Booking classes B. Training room Chorus room Training for shows C. Chorus room x2 Performance Practicing music hall D. Recital hall x2 Chorus rooms Rehearsing for
Area(m2 ) 70 60 60 100 180 65
50 80 45 80
shows E. Performance hall Training room
Rehearsing for shows F. Dressing room x2 Training rooms dressing G. Administration Entrance lobby Booking classes H. Toilets & Dressing room services
120 50 70 70
The outdoor program zone includes outdoor performance areas and recreational areas 55 15
210 120 550 65
60 25 25 50
Space Description
OUTDOOR ZONE Adjacencies Function
I. Training zone A. Outdoor Kids training training area for program kids II. Recreational zone A. Outdoor Main drop-off/ exhibition exhibition hall B. Amphitheater Main drop-off/ C. Food courts
food outlets Toilets & services
Area (m2)
Training area
450
Display area
700
Performance area Seating area
860 1300
III. Service zone
A. Toilets & services B. Outdoor parking
150
Food courts Secondary roads
Parking area
2800
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Inspiration
Concept
Autonomous Performing Arts Center
-As one the world’s greatest cultural centers through a seamless spatial experience allowing Rabat to showcase its rich cultural heritage.
Grand Theatre Of Rabat Architects: Zaha Hadid Architects Location: Rabat, Morocco Design: Zaha Hadid with Patrik Schumacher Project Area: 47,000 sq. m.
Fig.(41) Grand Theatre Of Rabat
Fig.(42) Conceptual Illustration
-As well as the outdoor amphitheater the dynamic of the river is represented on site. the project generates the landscape of the park that engulfs the theatre. Fig.(38) Grand Theatre Of Rabat
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The Bou regreg river running between the ancient cities of Rabat and Sale is the main source of inspiration for the sculpture form of the building .
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DESIGN APPROACH
This chapter is going to discuss the design approach of the project including the project’s inspirations and how they affected the concept and its development phases. This chapter will also discuss in details the development process of the performing arts center design highlighting its impact on the context and the design considerations taken.
The design in one fluid sweep traverses from the ground extending into the sky taking its direction from the adjacent Bou regreg River
Fig.(39) Form Inspiration
By melting into the landscape the auditoriums are enveloped into the sculpted building which moves back to the ground Interior: by taking the inspiration from traditional Moroccan muqarnas the main auditorium has a crystalline geometry inspired
Fig.(40) Interior inspiration
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Layout Analysis Accessibility -The site is accessible through the two main avenues between Rabat and Sale; Al- Marsa avenue and Al- Rahba avenue. They connect at Hassan II bridge .
Fig.(43) Theatre Accessibility Map
Al- Marsa avenue
Al- Rahba avenue
Hassan II bridge Context
Fig.(44) Theatre within context
Urban grid form 8
-The form of the building blends in with the context since it’s inspired from the river’s water flow. -The geometry of the land matches the radial grid pattern of the site. -Presence of a range of special services and external equipment such as car parking, and green spaces
Circulation
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Sections
-Providing privacy needed for artists to enter the hall by separating the visitors entrance from the artists’ entrance.
-Both entrances are supported by elevators and escalators to facilitate the vertical circulation throughout the whole building.
Green room
“Box in box” Staircase and elevators acoustical solution
in order to complete the structural concrete shell the voids were filled in with concrete panels.
Main theatre Foyer
-The fluidity from the river is reflected in the building’s seamless and uninterrupted circulation. Orchestra stage Fig.(49) 3D section
Mechanical chambers
Fig.(55) Concrete panels between ribs
Beam and ribs connection -Providing privacy needed for artists to enter the hall by separating the visitors entrance from the artists’ entrance. Steel beams connecting vertical ribs
Fig.(46) Circulation analysis
Fig.(45) Theatre with surroundings
-Geometry of the building is a free form that reflects the fluidity of the river. -The height of the mass is reasonable with the surrounding buildings.
Fig.(50) section
Sturctural Analysis
PlanAnalysis Zoning
-Grid lines perpendicular to the façade Following the external shape of the building. -To ensure critical ribs to touch the supports those grid lines were positioned in a few key points along the envelope
Foyer
-Distributing the rest of those grid lines with an equal distance between them.
Bookstore Artists’ entrance Cafes/Restaurant Theatre Shops Theatre services Experimental performance space Experimental performance hall Main theatre
Plan
Vertical ribs
Structural Grid
-The dynamic of the river is represented on site; This fluidity provides an intuitive visual and physical guide for visitors Main entrance
Steel tail
-Through a set of longitudinal beams closely following the pronounced creases of the architectural form the vertical ribs were then connected and tied together.
Fig.(47) Zoning analysis
Green room
Fig.(56) Beams and ribs connection
-Both entrances are supported by elevators and escalators to facilitate the vertical circulation throughout the whole building. -The fluidity from the river is reflected in a seamless and uninterrupted circulation within the building Exploded Axonometric Concrete deck.
Internal canyon with skylight Steel structure for roof geometry.
Concrete ribbed shell with concrete supports and steel tail.
Control room Services for performers
Foyer
Fig.(51) Structural Grid
Fig.(52) Vertical ribs section
Internal floor slab structure. Foundation rafts and piles.
Artists’ entrance
Main entrance
Fig.(48) Plan analysis
Restaurant with panoramic view 9
Fig.(53) Vertical ribs distribution
Fig.(54) Vertical ribs with concrete shell
Fig.(57) Structural layers
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Conclusion Concept 2: “Vulnerability”
Inspired Design Solutions
Design Issue
Considerations taken in Grand Theatre Of Rabat
Reflecting the vulnerability of art in which the performer becomes subjected to judgment and transforming it into an architecturally vulnerable entity.
Inspired solution for New Mansoura Performing Arts Center
The theatre has a strong connection with the river it lies on which made it stand out and be considered as a landmark.
Designing the PAC with maximum horizontal facades facing the Mediterranean sea
The grand foyer allows visitors to spend time while admiring nature since it’s oriented towards the river
Maximizing the outdoor spaces and inner courts and providing them with activity areas
Image
Interaction
Preliminary concept
-Clear glass façade for the main performance halls facing the sea
Fig.(62) Form Sketch
Inspiration
Fig.(63) Harbin opera house
Fig.(64) Italian Pavilion
Fig.(65) Interior Sketch
Fig.(66) Physical Model
Zoning Circulation
Providing privacy needed for artists to enter the hall by separating the visitors entrance from the artists’ entrance.
Mood
Visitors feel connected to the surrounding environment while walking under the skylight shaded canyon
Safety
The interior circulation of the theatre facilitates the evacuating process in case of emergencies
Concepts Concept 1: “Dynamic Vision”
Inspiration
Fig.(59) Museum of Ethnography building in Budapest
Maximizing the voids through using skylights, curtain wall facades, and glass inner courts to connect guests with outdoor environment.
Fig.(67) Program zoning Ground floor
-Planning the kids circulation to and from the training complex to be away from main roads and near pedestrian walkways -Multiple reservation desks to prevent overcrowding
Plans
Fig.(68) Ground floor schematic plan
Fig.(69) Program zoning First Floor
Fig.(70) First floor schematic plan
Providing an exterior ramp that allows visitors to watch performances within the central arena
Concept selection Allowing audience to witness all types of performance through different views and perspectives.
-Separate entrances for visitors and artists -Multiple reservation desks in the theatre and auditorium to prevent crowding
Fig.(58) Physical model
Fig.(60) New Chicago arts center proposal
Fig.(71) Ground Floor Plan
Fig.(61) Schematic form sketch
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Fig.(72) First Floor Plan
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First Floor Plan Development
Concept 2: “Vulnerability”
Mediterranean Sea
Concept’s First Development Maximizing the facades facing the mediteanean sea and using glazed curtain walls on these facades. Layout
Fig.(73) Form Generation
• Enlargng the apacity of the auditorium and theatre and enlarging the areas of their foyers as well. • Increasing the area of the mai circulation path within the building. • Adding a secondary entrance. Ground floor plan development
Fig.(74) layout
Mediterranean Sea
Fig.(76) First Floor Plan
Section
Fig.(77) Section
Elevation
Fig.(75) Ground Floor Plan
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Fig.(78) Elevation
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2
First Floor Plan Development
Concept 2: “Vulnerability”
Form Development
Concept’s Second Development • Better orientation for theatre and auditorium services
• Developed outdoor parking orientation • Increasing area of the theatre’s foyer • More seamless geometry • Maximizing natural lighting with more skylight Layout
Fig.(79) Form Generation
Contextual layout
Fig.(81) Contextual layout
Fig.(80) Layout
Develoved Ground floor plan
Fig.(83) First Floor Plan
Section
Fig.(84) Section
Elevation
Fig.(85) Elevation Fig.(82) Ground floor Plan
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Selected Concept Selected Concept Concept 3: “Biophilic Architecture” Architectural design approach with the aim of maximizing the physical and visual interaction of the user with the surrounding natural environment.
Criteria
-Using green walls on concrete facades
Nature in the space
-Using canopy trees to provide natural shading
Visual connection with nature
-Mechanical flow of bodies of water with great occupations within the project.
Maximizing the guest’s interaction with nature by separating the three main zones of the project instead of including them within the same building.
-Alligning outdoor activities to gain maximum natural ventilation from the prevailing winds
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-Spatial landscape designing
The guest will have to interact with the outdoor environment since it’s the main transitionig zone to and from the project’s spaces. Fig.(92) Green wall façade in Switzerland
Amphitheatre
Fig.(86) New York times building garden
Fig.(87) Nanyang Technical University
The previous figures showed the strong connection that both buildings have with the outdoor natural environment which is exactly the intended experience desired for the performing arts center in new Mansoura. Not only biophilic architecture is considered as a great eco-friendly designing criteria but also, a performing arts center designed on this concept supports the selected autonomous approach by offering a unique experience in New Mansoura City and the surrounding region as well. Conceptual Statement A performing arts center designed based on the concept of biophilic architecture which is reflected through the distribution of the three main zones of the project and connecting them through the outdoor landscape to maximize the interaction of the guests with the outdoor environment. The program includes a main auditorium building that hosts over a thousand guest, a secondary theatre that hosts five hundred guests, and a training complex which includes training programs for users of every age provided with outdoor training and performing spaces.
Outdoor exhibition
Outdoor plaza
Fig.(93) Canopy Trees with a water body Fig.(94) Access and Circulation within the project
Training complex
Recreational area
Bubble diagram Training complex
Theatre Chorus rooms
Gallery
Training complex
Theatre Outdoor Court
Auditorium
Bubble diagram Entrance foyer
Entrance foyer
Training halls
theatre
foyer
reception
Backstage zone
Plan Plan
Fig.(89) Program bubble diagram
Stimulated visual connection -Maximizing shaded outdoor activity areas. Fig.(95) Green wall façade in Switzerland
Auditorium Plan
Bubble diagram
Fig.(90) Outdoor shaded activity area
-Using courtyards and inner courts for maximum gain of natural ventilation and daylight
Fig.(96) Green wall façade in Switzerland
reception
Entrance foyer
Auditorium foyer
reception
foyer
Fig.(88) Zones relationships
Fig.(91) Rehab in New Zealand
Backstage zone
Fig.(97) Auditorium ground floor plan
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Ground floor plan
Elevation
Fig.(98) Ground Floor Plan
Fig.(99) Elevation
Section
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Fig.(100) Section
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Layout
3D Shots
2
Layout with surrounding context
Fig.(101) Layout
Fig.(102) Layout within context
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Final Concept Development
Design considerations Safety
Outdoor Circulation -More spacious transitioning plaza for guests to go from one building to another.
Zoning
Indoor circulation
2
-Separate entrances for visitors and artists. -Multiple reservation desks in the theatre and auditorium to prevent crowding.
-Planning the kids outdoor activity zone to be away from main roads and near pedestrian walkways.
-Alligning outdoor activities to gain maximum natural ventilation from the prevailing winds -Spatial landscape designing
Fig.(104) Kids outdoor training
Design Considerations Zoning
Fig.(103) Access and Circulation within the project Fig.(107) Zoning
Physical Model Model within surrounding context
Fig.(105) Physical model
Emergency exits and handicapped consideration
Fig.(106) Physical model with context
Fig.(108) Emergency exits and handicapped considerations
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22
2
Ground Floor Plan
Fig.(109) Ground floor plan
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Intended User Experience
2
Layout
-Being able to perform outdoor training and activities under the suitable shading while being connected to the outdoor nature. -The ability of kids to train outside in a safe environment since the kids training program is positioned away from the main road and near the pedestrian access -Connecting the outdoor exhibition and bazaars to the gallery
Fig.(111) Shaded exhibition inspiration
Fig.(112) Outdoor courtyard inspiration Fig.(110) Layout
Fig.(113) Inner court inspiration
Fig.(114) shading over outdoor training
Fig.(115) Skylight
Fig.(116) Food outlets inspiration
Fig.(117) Food outlets inspiration
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Contextual layout
Basement
2
Auditorium balconies plan
Fig.(119) Auditorium balconies inspiration
Fig.(118) Basement Plan
Elevation
Fig.(120) Auditorium balconies in first level
Fig.(117) Layout within context
Fig.(121) North West Elevation
Sectional elevation
Fig.(122) Sectional Elevation
Section
Fig.(123) Sectional Elevation
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Fig.(123) 3D shot showing shaded outdoor training spaces
Fig.(126) Translucent concrete panels
Fig.(124) Auditorium foyer
Fig.(125) Layout Fig.(127) Skylight
Rendered Elevation
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Sustanability Definition The role of sustainability focuses on meeting the needs of the present without disrupting future generations' ability to fulfill their needs.
• Maximizing the natural light gain through using curtain wall facades and skylights • Maxmizing natural ventilation through the project by using courtyards, inner courts, and orienting the buildings on the north west direction to face the prevailing winds.
Sustainability In Architecture Sustainability, according to architecture, is accomplished across the three social, economic and environmental pillars. They are linked to another, that you can find a strategy while achieves two pillars. Social Sustainability A building's capacity to work through human interaction, entertainment, education, wellness, and room management for the long term.
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SUSTAINABILITY & ENVIRONMENAL ASPECTS
Criteria Used In The Performing Arts Center • Creating creative environments for children and adults to practice and design their activities for comfort and privacy. • Hosting outdoor activities to draw more visitors to the place and inspire the trainees to perform at big events there.
Fig.(130) Skylights over inner courts
Environmental Sustainability Environmental sustainability is defined as responsible interaction with the environment in order to avoid natural resource depletion or degradation and ensure the quality of the environment in the long term. It also ensures to minimize the usage of active systems and depending more on passive systems Sustainable architecture strategies Passive Sustainable Design
This chapter is going to discuss the social, economic, and environmental sustainability considerations taken within the project. Moreover, this chapter is going to discuss the considred environmental aspects and their application on the project including natural lighting aspects, thermal considerations, and natural ventilation systems.
Fig.(128) Shot showing shaded outdoor activity area
Economic Sustainability Energy cost reduction
• Passive strategies include taking advantage of natural environmental factors such as the position of the sun and climatic conditions under which a building is built and deciding where windows will be placed. This allows designers to practically monitor day-lighting and natural ventilation to their own advantage and thereby reduce the energy requirements of the building.
Theatre operations do not create social or environmental issues that impact the long-term success of the company. Criteria Used In The Performing Arts Center • Reducing maintanence cost required by using acoustic perforated timber panels on walls and ceiling of the auditorium Fig.(129) Perforated timber panel 21
Fig.(131) Climate Analysis
27
Following the Green Pyramid Rating System (GPRS) Criteria
GPRS Category 2:
Environmental Impact
Reflection on the project:
Energy efficiency
• Covering the south facades with green walls
Water Efficient Landscaping
GPRS Category 1:
Category Objectives
• Mamizing the green area within the project
Sustainble site, accessibility, and ecology The objectives of this Category are: 1.Site Selection: to encourage development in desert areas, redevelopment in informal areas and avoid projects which negatively affect archaeological, historical and protected areas. 2.Accessibility: to minimize pollution and traffic congestion from car use and to conserve nonrenewable energy by encouraging public and alternative transport. Reflection on the project: 1.Site selection: desert area development The performing arts center will take place in new Mansoura city, the site is still unplanned and the project will transform this area from deserted area into an iconic landmark and a stop for visitors which will raise from its economic state.
• Planting trees for natural shading
• reduce energy consumption and carbon emissions by incorporating passive design strategies
• Using water bodies for natural cooling effect Operation and Maintenance
• optimize the choice of electrical and mechanical equipment, to and to evaluate the inventory of energy and carbon for each developed MEP system, and to minimize their impact on the environment;
• Reducing maintanence cost required by using acoustic perforated timber panels on walls and ceiling of the auditorium
3
Irrigation Operation and Maintenance plan • Using canopy trees to provide natural shading instead of mechanical shading devices.
Optimized balance of Energy and Performance
• reduce energy demand to cater for loads at peak use times through efficient building and services design and site based, where possible, on renewable energy generation.
• Natural ventilation is the main ventilation method through the project • Optimized natural lighting for the buildings
• encourage the provision of metering facilities that allow the energy performance o the building to be recorded and monitored to allow future improvement and prove validity
Fig.(136) Canopy trees
Efficiency of Water-based Cooling systems • Adding a flowing water body in the middle of the project to maximize the cooling effect of the prevailing winds
• minimize the energy consumed by the commonly used building appliances. Reflection on the project: Passive External Heat Gain Reduction
• Using double glazed curtain walls on the north west facades
Fig.(135) Ventilation in the training complex
• Using thermal insulation walls
Fig.(132) Site location in New Mansoura City
• Orienting the buildings towards the north west direction for maximum cooling from prevailing winds
GPRS Category 3:
2.Accessibility: alternative methods of transportations and connection to infrastructure The transportation to and from the performing arts center is accessible whether by on road transportations, or visitors coming through the Mediterranean Sea, or also by using the new monorail.
GPRS Category 4
Category Objectives
Materials and resources
• Improve the quality of our buildings and their impact on the environment
Category objectives
• implement strategy
• To encourage selection of materials with a low environmental impact and cost over the full life cycle of the building,
a
comprehensive
water
• Reduce potable water use by promoting the use of reused grey water or avoiding the use of potable clean water • Water efficient landscaping
Renewable Energy Sources
• Minimize potable use for irrigation
• Natural light gain from glass facades and courtyards Fig.(133) Monorail in New Mansoura City
Water efficiency
• Minimize indoor and outdoor water demands
Fig.(134) Climate Analysis
Fig.(137) Water Features in the project
Selection of materials
• Using regional and local materials to reduce the environmental impacts resulting from transportation • Using enewable materials • Using recycled materials • Use highly efficient materials to reduce the need for maintenance, construction energy or skill or can be easily dismantled for reuse
• Reduce generation of wastewater
• Natural light from skylights 28
29
3
Reflection on the project
GPRS Category 5:
Natural Ventilation Systems
Visual Comfort
Regionally procured materials
Indoor Enviromental Quality
Natural lighting considerations
• Regionally produced perforated acoustic timber panels used in both the auditorium and theatre
Category Objectives
• Natural ventilation through the inner courts and outer courtyards
• Regionally produced timber battens for theatre interior
• decrease the building temperature in a warm environment, saving money on bills for vitality.
• to provide a building and its systems that support the wellbeing and comfort of occupant by providing sufficient outside air ventilation and indoor air quality;
Maxmizing the voids of the project through alternating between the use of: •
Glass curtain wall facades
•
Skyligts over inner courts
• to eliminate exposure of building occupants to the harmful effects of tobacco smoke, the risk of Legionella and other pathogens;
Fig.(139) Perforated timber panels
Fig.(138) Timber battens
Use of readily renewable materials • Using stretch ceiling systems for the main auditorium hall
• to encourage use of low-emission adhesives, sealants, paints, coatings, flooring and ceiling systems and to mitigate the health risks associated with formaldehyde in building products; • to promote thermal, visual and acoustic comfort of occupants (including provision of individual comfort controls, where appropriate) to optimize occupant wellbeing, productivity, energy efficiency and future flexibility; Reflection on the project Fig.(144) Courtyards/ inner courts
Ventilation and Indoor Air Quality Fig.(140) Stretch ceiling system
Use of recycled materials • Using recycled concrete and recycled aggregates in the manufacturing of the translucent concrete panels
Indoor air quality affects both the health and comfort of those who may live or work in buildings as part of good urban design. It is necessary for architectural design to be sustainable. In order to prevent mold growth, well-designed ventilation that will keep the indoor air clean and fresh, sufficient air exchanges, and moisture control are critical design elements.
Thermal Comfort •
Using double glazed curtain walls on the north west facades
• Natural ventilation through the inner courts and outer courtyards Fig.(141) Translucent concrete panels Fig.(145) Curtain wall facade
Use of lightweight materials
• Using steel shell structure for the auditorium
Fig.(142) Steel shell structure
Indigenous Landscaping Indigenous landscaping, and even planting on a very small scale, has gained prominence worldwide. Not only are native trees and plants easier to grow, but they also mitigate irrigation needs.
Criteria Used In The Performing Arts Center
Advantages Fig.(143) Courtyard
• This lowers the cost of warming and cooling
They give the client of each property a private outside space that is protected and available for the remainder of the day.
• Non-sustainable assets and ozonedamaging reductions emanations of substance.
• decrease the building temperature in a warm environment, saving money on bills for vitality.
• Assurance of the building envelope's components From the intense hot pressure.
Advantages
Fig.(146) Skylights over inner courts
30
Landscaping can also be used as part of passive sustainable design. Planting trees decreases the gain of solar heat inside the building. Criteria Used In The Performing Arts Center
• Using canopy trees to provide natural shading instead of mechanical shading devices. • Adding a flowing water body in the middle of the project to maximize the cooling effect of the prevailing winds 31
4
Panel detail
Materials Used Auditorium Interior Walls
Fig.(147) Perforated timber acoustic panel
Fig.148) Auditorium plan
Fig.150) Acoustic Timber panel layers
Faixation Method
CHAPTER
4
CONSTRUCTION
Acoustic timber Panels Demountable acoustic perforated timber wall panels are used in the main auditorium hall to separate the acoustic function from the visual appearance of the main heavy masonry walls.
• Fixing timber battens on masonry wall. • Attaching aluminum split battens to create an air gap between the timber acoustic panels timber battens. • Attaching perforated acoustic timber panels.
This chapter is going to discuss the interior and exterior materials used within the project highlighting their advantages, methods of construction, and their details. Fig.(149) Acoustic perforated timber cladding
Advantages • Enhancing sound absorption and reducing reverberation • High natural & recycled content. • Secret Fixings. • Lower Embedded Energy (compared to MDF, HPL and other veneered acoustic panels) • Flexible design & panel sizes. • Large reduction in waste. • Greater Control of Quality. 24
• Reductions in Installation Time & On-site Prelims.
Fig.(151) Timber panel section 1:5
32
4
Ceiling
Advantages
Exterior
Advantages
Stretch Ceiling Systems
• Stretch Ceiling Systems can act as a special resonance absorber, also called a microperforated sound absorber.
North West Façade
Maximizing the visual connection with the outdoor environment
• The membrane is made with a special polyvinyl chloride base that is guaranteed to be cadmium-free.
• Auditorium foyer
Decorative membranes that can be used in nearly any application that can be given virtually any shape.
• Entrance foyer
Allows maximum gain of natural lighting Aesthetically pleasing Great thermal performance
• Stretch Ceiling Systems allow the user to achieve attractive and modern designs within a short period of time while avoiding the mess typically associated with ceiling construction. • Translucent membrane finish can cover entire ceiling and, when backlit, can offer beautifully diffused lighting.
Fig.(152) Stretch ceiling system on dome ceiling
Fixation Method
Fig.(156) North west elevation
• Fixing aluminium structure at the desired height
Curtain wall system
• Stretching the ceiling membrane across the previously fixed aluminium structure
Tinted glass curtain wall panels on the facades facing the Mediterranean sea.
Fig.(159) Glazed curtain wall façade
Fixation Detail. Panel connection with mullion
Fig.(155) Perimeter detail
Fig.(153) Dome vertical joint detail
Fig.(157) Tinted curtain wall facade
Section Indication in plan
Dome clip/joint detail Dome clip/joint detail
Dome clip/joint detail
Perimeter detail
Fig.(154) Fabric dome ceiling section
33
Fig.(158) Auditorium Plan
Fig.(160) Curtain wall panels connection to mullion 1:5
34
Exterior
Advantages
Fixation Method
Back Façade
• Aesthetically pleasing with a seamless finish
• Auditorium hall
• Its shiny reflection gives the building an autonomous finishing
• Gaskets are placed between each panel as an air and water barrier
• Backstage
• Suitable for almost every building shape or style
• services
4
Façade cladding
• Attaching basic male/female clips simply to the cladding to the building
• Allows building expansion • Simple installation method
Titanium panels
Steel shell structure
• Little or no maintenance or service required Aluminium cladding clips Gasket
Titanium cladding
Fig.(161) Auditorium back facade
Steel shell Tinted Titanium Panels Tinted titanium panels on the back facades.
Tinted Curtain wall Fig.(164) Tinted titanium panels cladding
Panel Detail Fig.(167) Titanium panel section
Theatre Interior
Fig.(162) Tinted titanium cladded facade
Walls
View from auditorium foyer
Kerfed Timber Battens Indication In Plan
Fig.(169) Auditorium facade Cladding layers
The process of kerfing involves cutting small notches in the back of the timber batten to allow the timber to be flexed around a substructure to create the forms or curves
Fig.(165) Titanium Panel layers
Advantages • Enhancing sound absorption and reducing reverberation • High natural & recycled content. • Secret Fixings.
• Lower Embedded Energy (compared to MDF, HPL and other veneered acoustic panels) • Greater Control of Quality. • Great aesthetics
Fig.(163) Auditorium plan
Fig.(166) Titanium insulation detail
35
Fig.(168) Kerfed timber batten
36
Interior cladding layers
Indication in plan
4
Exterior
Advantages
North West Façade
• High impact resistance
• Entrance foyer
• UV protection • Evenly diffused light • Lightweight • Superior air and water tightness
• Highly secure • Easy installation Fig.(172) Theatre plan Fig.(175) Theatre elevation Fig.(170) Kerfed timber battens fixation
Single glazed translucent façade Thermal advanced system
Fixation details • Cutting through the timber battens
Fig.(171) Cuts through the timber batten
Fixation Details Fig.(178) Translucent glazed panel
• Filling the gaps in between with aluminium joiner strip • Attaching the battens to mounting tracks
Fig.(173) Aluminum joiner strip between gaps
• Attach the cladding to the curved stud steel frame
Fig.(176) Single glazed translucent facade
Indication in plan
Fig.(177) Theatre plan
Fig.(174) Kerfed timber acoustic wall installation
37
Fig.(179) Panel fixation detail 1:5
38
Training Complex
Indication in plan
4
Indication in plan
Exterior
Exterior
Back and side facades
North West Façade
• Performance halls
• Performance halls
• Training classes
• Training classes
• Services
Translucent concrete Panel
• Gallery • Adminstration Fig.(182) Tinted curtain wall facade
Fig.(184) Training complex side elevation
Translucent Concrete Panels is a concrete based building material with lighttransmissive properties due to embedded optical fibers.
Fig.(180) Training complex elevation
Fixation Detail.
Fig.(187) Training complex plan
This results in a certain light pattern on the other surface, Shadows cast onto one side appear as silhouettes through the material.
Tinted Double glazed Curtain wall Advantages • Maximizing the visual connection with the outdoor environment
Detailed Section
• Great view for the trainees within the training classes • Allows maximum gain of natural lighting • Aesthetically pleasing • Great thermal performance
Advantages
Fig.(185) Translucent concrete facade
• Great aesthetical view to the building. • the texture of finer translucent concrete becomes indistinct at distance. • Energy saving can be done by the utilization of transparent concrete in building. •
Totally environment friendly because of its lighttransmitting characteristics.
Fig.(181) Tinted curtain wall facade Fig.(183) Curtain all fixation detail 1:5
39
Fig.(186) Translucent concrete Panel
Fig.(188) Translucent concrete Panel installation detail 1:5
40
5
Stucture Auditorium
Fig.(190) Auditorium elevation
CHAPTER
5
STRUCTURE
Fig.(189) Auditorium plan
Structural Envelope Geodesic dome spherical form in which lightweight triangular or polygonal facets consisting of either skeletal struts or flat planes, largely in tension, replace the arch principle and distribute stresses within the structure itself.
This chapter is going to discuss the structure systems used in the performing arts center spaces with their details and construction methods.
Fig.(192) Auditorium structure
Fig.(193) Geodesic dome construction
Fig.(191) Geodesic dome steel frame
The triangles are architecturally firm and distribute the stress throughout the dome, allowing the structure to bear heavy loads for their size.
Space frame is the three dimensional framework that makes the dome structure stable. 29
Fig.(194) Space truss joint connection
41
Connection to foundation
Theatre
Fig.(199) Theatre plan
Structural envelope
Fig.(196) Wall section
Fig.(195) Foundation connection
Fig.(200) Theatre elevation
Grid shell A grid shell's organic shape and column-free space provide unlimited design freedom to architects and structural engineers.These innovative space-frame structures derive their strength from having double curvature in their overall shape.
Roof and column connection
They are similar to geodesic domes. But while geodesic domes are limited to spherical surfaces, gridshells may take on different curvature in each of two orthogonal directions Fig.(201) Grid shell structure
Shell connections
Fig.(197) Roof connection
Fig.(198) Roof section
Ellipsodial steel columns
Fig.(202) Shell connections Fig.(199) Steel columns
42
43
Training Complex
Skylight details
Fig.(204) Training complex elevation
Fig.(203) Training complex plan
Structural envelope Grid shell A grid shell's organic shape and column-free space provide unlimited design freedom to architects and structural engineers.These innovative space-frame structures derive their strength from having double curvature in their overall shape.
Fig.(207) Skylight details
Column distribution
Fig.(205) Grid shell envelope
Fig.(206) Column distribution
Column details
Fig.(208) Column section
44
45
Table Of Figures Figure No.
Description
Page No.
Fig.1
National Museum Of Qatar
2
Fig.2
Peter Eisenman’s House VI
Fig.3
Description
Page No.
Fig.31
Composite site analysis
6
2
Fig.32
6
Guggenheim museum Bilbao
2
Fig.33
Average Day/Night Temperature chart Average Relative Humidity chart
Fig.4
New Mansoura City Proposal
3
Fig.34
Average Precipitation chart
6
Fig.5
location within Egypt
3
Fig.35
Average Rainy Days chart
6
Fig.6
New Mansoura location
3
Fig.36
Average Monthly Sun Hours chart
6
Fig.7
New Mansoura City Proposal
3
Fig.37
Average Wind Speed chart
6
Fig.8
3
Fig.38
Grand Theatre Of Rabat
8
Fig.39
Form Inspiration
8
Fig.40
Interior inspiration
8
Fig.41
Grand Theatre Of Rabat
8
Fig.42
Conceptual Illustration
8
Fig.12
Residential Towers in New Mansoura Mansoura/Gamasa road to New Mansoura city Talkha/Damietta road to New Mansoura city Monorail Path to New Mansoura City National PAC of China
Fig.43
Theatre Accessibility Map
8
Fig.13
Sydney Opera House PAC
3 Fig.44
Theatre within context
8
Fig.14
Ancient Egyptians ceremonial Performance Ancient Egyptians Shadow Plays
4 Fig.45
Theatre with surroundings
9
Fig.46
Circulation analysis
9
4
Fig.47
Zoning analysis
9
Fig.17
Odeum Roman Amphitheatre in Alexandria Cairo Opera House
Fig.48
Plan analysis
9
Fig.18
Cairo Opera House interior
4
Fig.49
3D section
10
Fig.19
El-Gnena Theatre
4
Fig.50
Section
10
Fig.20
El-Gnena Theatre
4
Fig.51
Structural Grid
10
Fig.21
National Theatre of Egypt
4
Fig.52
Vertical ribs section
10
Fig.22
National Theatre of Egypt
4
Fig.53
Vertical ribs distribution
10
Fig.23
4
Fig.54
Vertical ribs with concrete shell
10
Fig.24
Map showing theatre locations in Delta Theatres distribution in Cairo
4
Fig.55
Concrete panels between ribs
10
Fig.25
Selected site in satellite map
5
Fig.56
Beams and ribs connection
10
Fig.26
5
Fig.57
Structural layers
10
Fig.27
Selected site in proposed master plan Site accessibility map
5
Fig.58
Physical model
11
Fig.28
Solid and voids map
5
Fig.59
11
Fig.29
Building heights map
5
Fig.60
Museum of Ethnography building in Budapest New Chicago arts center proposal
Fig.9 Fig.10 Fig.11
Fig.15 Fig.16
3 3
Figure No.
6
3 3
4
4
11 32
32
Fig.30
Land use map
5
Fig.61
Schematic form sketch
11
Table Of Figures Figure No.
Description
Page No.
Fig.62
Form Sketch
12
Fig.63
Harbin opera house
Fig.64
Description
Page No.
Description
Page No.
Description
Page No.
Fig.92
Green wall façade in Switzerland
18
Fig.122
Sectional Elevation
25
Fig.152
33
Fig.153
Stretch ceiling system on dome ceiling Dome vertical joint detail
12
Fig.93
Canopy Trees with a water body
18
Fig.123
26
18
Fig.124
Fig.95
Access and Circulation within the project Green wall façade in Switzerland
3D shot showing shaded outdoor training spaces Auditorium foyer
Italian Pavilion
12
Fig.94
26
Fig.154
Fabric dome ceiling section
33
Fig.65
Interior Sketch
12
18
Fig.125
Layout
26
Fig.155
Perimeter detail
33
Fig.66
Physical Model
12
Fig.96
Green wall façade in Switzerland
18
Fig.126
Translucent concrete panels
26
Fig.156
North west elevation
34
Fig.67
Program zoning Ground floor
12
Fig.97
Auditorium ground floor plan
18
Fig.127
Skylight
26
Fig.157
Tinted curtain wall facade
34
Fig.68
Ground floor schematic plan
12
Fig.98
Ground Floor Plan
19
Fig.128
27
Fig.158
Auditorium plan
34
Fig.99
Elevation
19
Fig.129
Shot showing shaded outdoor activity area Perforated timber panel
Fig.69
Program zoning First floor
12
Fig.159
Glazed curtain wall façade
34
Fig.70
First floor schematic plan
12
Fig.100
Section
19
Fig.130
Skylights over inner courts
27
Fig.160
34
Ground Floor Plan
12
Fig.101
Layout
20
Fig.131
Climate Analysis
27
Fig.161
Curtain wall panels connection to mullion 1:5 Auditorium back facade
Fig.71 Fig.72
First Floor Plan
12
Fig.102
Layout with context
20
Fig.132
Site location in New Mansoura City
28
Fig.162
Tinted titanium cladded facade
35
Fig.73
Form generation
13
Fig.103
21
Fig.133
Monorail in New Mansoura City
28
Fig.163
Auditorium plan
35
Fig.74
Layout
13
Fig.104
Access and Circulation within the project Kids outdoor training
Fig.134
Climate Analysis
28
Fig.164
Tinted titanium panels cladding
35
Fig.75
Ground floor plan
13
Fig.105
Physical model
21
Fig.135
Ventilation in the training complex
29
Fig.165
Titanium Panel layers
35
Fig.76
First floor plan
14
Fig.106
Physical model with context
21
Fig.166
Titanium insulation detail
35
Fig.136
Canopy trees
29 Fig.167
Titanium panel section
36
Fig.77
Section
14
Fig.168
Kerfed timber batten
36
Fig.169
Auditorium facade Cladding layers
36
Fig.170
Kerfed timber battens fixation
37
Fig.171
Cuts through the timber batten
3737
Fig.172
Theatre plan
37
Fig.173
37
Fig.175
Aluminum joiner strip between gaps Kerfed timber acoustic wall installation Theatre elevation
Fig.176
Single glazed translucent facade
38
Fig.177
Theatre plan
38
Fig.78 Fig.79 Fig.80 Fig.81 Fig.82 Fig.83 Fig.84
Elevation Form generation Layout Contextual layout Ground floor plan First floor plan Section
Figure No.
Fig.107
Zoning
22
Fig.108
22
Fig.109
Emergency exits and handicapped considerations Ground floor plan
Fig.110
Layout
24
Fig.111
Shaded exhibition inspiration
24
Fig.112
Outdoor courtyard inspiration
24
Fig.113
Inner court inspiration
24
Fig.114
shading over outdoor training
24
Fig.115
Skylight
24
Fig.116
Food outlets inspiration
24
Fig.117
Layout within context
25
Fig.118
Basement Plan
25
Fig.119
Auditorium balconies inspiration
Fig.137
14 15 15 15 15
21
Figure No.
Water Features in the project
27
Figure No.
33
35
29
Fig.138
Timber battens
30
Fig.139
Perforated timber panels
30
Fig.140
Stretch ceiling system
30
Fig.141
Translucent concrete panels
10
Fig.142
Steel shell structure
30
Fig.143
Courtyard
30
Fig.144
Courtyards/ inner courts
31
Fig.145
Curtain wall facade
31
Fig.146
Skylights over inner courts
31
Fig.147
Perforated timber acoustic panel
32
Fig.178
Translucent glazed panel
38
25
Fig.148
Auditorium plan
32
Fig.179
Panel fixation detail 1:5
38
23
16 16
Fig.174
37 38
Fig.85
Elevation
16
Fig.86
New York times building garden
17
Fig.87
Nanyang Technical University
17
Fig.88
Zones relationships
17
Fig.89
Program bubble diagram
17
Fig.120
Auditorium balconies in first level
25
Fig.149
Acoustic perforated timber cladding
32
Fig.180
Training complex elevation
39
Fig.90
Outdoor shaded activity area
17
Fig.121
North West Elevation
25
Fig.150
Acoustic Timber panel layers
32
Fig.181
Tinted curtain wall facade
39
Fig.91
Rehab center in new Zeeland
17
Fig.122
Sectional Elevation
25
Fig.151
Timber panel section 1:5
32
Fig.182
Tinted curtain wall facade
39
Table Of Figures Figure No.
References Description
Page No.
Fif.183
Curtain all fixation detail 1:5
40
Fig.184
Training complex side elevation
40
Fig.185
Translucent concrete facade
40
Fig.186
Translucent concrete Panel
40
Fig.187
Training complex plan
40
Fig.188
Translucent concrete Panel installation detail 1:5
40
Fig.189
Auditorium plan
41
Fig.190
Auditorium elevation
41
Fig.191
Geodesic dome steel frame
41
Fig.192
Auditorium structure
41
Fig.193
Geodesic dome construction
41
Fig.194
Space truss joint connection
41
Fig.195
Foundation connection
42
Fig.196
Wall section
42
Fig.197
Roof connection
42
Fig.198
Roof section
42
Fig.199
Steel columns
42
Fig.200
Theatre elevation
43
Fig.201
Grid shell structure
43
Fig.202
Shell connections
43
Fig.203
Training complex plan
43
Fig.204
Training complex elevation
44
Fig.205
Grid shell envelope
44
Fig.206
Column distribution
44
Fig.207
Skylight details
44
Fig.208
Column section
44
Chapter 1 • https://www.academia.edu/10345269/Reconsidering_Emil_Kaufmanns_Vo n_Ledoux_bis_Le_Corbusier • https://architizer.com/blog/inspiration/collections/coop-himmelblau/ • https://lib.dr.iastate.edu/cgi/viewcontent.cgi?article=1082&context=arch_ pubs • https://francescacritchley.wordpress.com/2013/11/24/how-i-feel-aboutpostmodern-and-modernarchitecture/#:~:text=The%20Guggenheim%20Museum%20Bilbao%20in,of %20intricate%20and%20multiple%20spaces • http://www.cairo.gov.eg/en/Culture/Pages/History-of-Egyptian-Art.aspx • https://www.propertyfinder.eg/blog/en/new-mansoura-city/ • https://www.ecgsa.com/project/new-mansoura-city/ • https://jesaun.journals.ekb.eg/article_114990_09610aa23d6843de08cbce 01a7af24dd.pdf • https://invest-gate.me/news/works-underway-on-613-buildings-in-newmansoura/ • https://www.egypttoday.com/Article/1/62712/2018-AccomplishmentsBuilding-new-fourth-generation-cities • https://worldarchitecture.org/architecture-news/egvzn/interview-withcell-mansoura-s-sociourban-enterprise-in-egypt.html • https://weather-and-climate.com/average-monthly-Rainfall-TemperatureSunshine,Alexandria,Egypt Chapter 2
• https://www.archdaily.com/914739/oma-morphosis-and-johnstonmarklee-among-finalists-for-new-chicago-artscenter/5cacf395284dd1c399000339-oma-morphosis-and-johnstonmarklee-among-finalists-for-new-chicago-arts-center-image • https://static1.squarespace.com/static/53c0fff4e4b056735b994943/t/59d 8abd0e45a7c0ce23c1612/1507372002263/9236++Grand+Theatre+Rabat+AKTII+-+Sterling+Janssen+Hind.pdf • https://www.archdaily.com/90812/rabat-grand-theatre-zaha-hadid
• https://buildabroad.org/2017/08/15/sustainability-in-architecture/ • https://sustainability.umw.edu/areas-of-sustainability/economicsustainability/#:~:text=Economic%20sustainability%20refers%20to%20prac tices,sector%20through%20the%20UMW%20foundation • https://hbr.org/2011/10/the-sustainable-economy • https://www.process.st/economic-sustainability/ • https://www.esg.adec-innovations.com/about-us/faqs/what-is-socialsustainability/
• https://www.unglobalcompact.org/what-is-gc/our-work/social • https://www.sciencedirect.com/topics/engineering/social-sustainability • https://eg.saint-gobain-glass.com/download/file/fid/1246 Chapter 4 • http://earconsacoustic.in/Soles_Fabric.php • https://decoustics.com/products/fabric/ • https://www.thousandwonders.net/National+Centre+for+the+Performing+ Arts+China • https://www.vmzinc.com.au/projects/1364-fayetteville-state-universityscience-and-technology-building-fayetteville-usa.html • https://v9y7w3a3.stackpathcdn.com/wpcontent/uploads/2020/03/brochure-facade-cladding-104927-v015-ende.pdf • https://architizer.com/blog/practice/details/behind-the-design-metalcladding/ • https://sculptform.com/curved-timber-tech-specs/#ts-8193 • https://m.made-in-china.com/product/Curved-Micro-Perforated-WoodenTimber-Acoustic-Panel-762301925.html • http://danpal.com/wp-content/uploads/2015/11/AirPT-Facade-system.pdf
• https://www.architonic.com/en/project/mad-architects-harbin-operahouse/5103797
Chapter 5:
• https://www.kling-freitag.com/referenzen/harbin-grand-theatre/
• https://www.floornature.com/architectural-solutions/double-shell-steelstructure-ordos-museum-mad-14894/
Chapter 3 • https://hmcarchitects.com/news/the-top-6-sustainable-architecturestrategies-for-public-building-design-2018-10-03/ • https://www.barker-associates.co.uk/service/architecture/what-issustainable-architecture • https://www.bau.edu.lb/Research/Environmental-Studies-andSustainability-in-Architecture • https://medium.com/a9architecture/sustainability-in-architectureb349c2ab4542
• http://geodomas.eu/portfolio/geodesic-glass-dome-o15m-protects-house/
• https://favpng.com/download/Eaftby5X • https://tjpa.org/uploads/2015/02/TG08-3_PreProposal_Presentation.pdf • https://www.visionagi.co.uk/commercial-glazing/gridshell/
FREEDOM [ FREE-DUHM ] PHILOSOPHY. THE POWER TO EXERCISE CHOICE AND MAKE DECISIONS WITHOUT CONSTRAINT FROM WITHIN OR WITHOUT; AUTONOMY; SELF-DETERMINATION.