Portfolio JIANG JIALIN 2017-2022
PROLOGUE “Architecture is a form of social art”
-----Ieoh Ming Pei
What I desire to explore is the relationship between architecture and society. Generally speaking, architecture is the product and an instrumental means of social relations. In other words, social relations determine the development of architecture. Correspondingly, architecture also has a counterproductive effect on social relations. New social relations will be generated or restricted due to the form, scale, and cultural characteristics of the building. The intricate social network has a looming correspondence with the spatial structure. In this portfolio, I aim to use delicate design to sew the wounds that are constantly emerging in the process of rapid urbanization, creating spaces to trigger interpersonal interaction.
CONTENTS 01 REVITALIZE, REBIRTH
02
02 HYBRID LINK
14
03 HIDE ON BUSH
24
04 BACK TO THE NATURE
36
Re-enabling function to give new vitality Academic Project | Bologna, Italy
Establish a dialogue between architecture and highways Academic Project | ShangHai, China
Explore the possibility from actual architectural part Personal Research | San Simeon, US
Spatial generator for social activities Pavilion Design and Construction | ShangHai, China
05 ABOVE THE CITY
44
06 OTHER WORK
56
Imagination of future housing for post-Covid 19 Personal Research | WuHan, China
Establish a dialogue between architecture and cities Academic Project | HongKong, China
1
01 Revitalize, Rebirth Re-enabling function to give new vitality
Catagory: Academic Project Group work Instructor: Wenzhao Hsu Type: Architectural Design Contribution: Design(60%)/Digital Modeling(65%)/Drawings(55%) Location: Bologna, Italy Year: 2019 Design Description The site 'Centergross' is a trade center for fashion clothes industries. However, it is gradually losing its vitality due to the emerging online shopping mode. There is a need for industrial and spatial transformation, however, the original premises are separated from each other with unreasonable program organization. With two prototypes of blocks, we redesign the premises into polygonal lineshaped blocks with flowing spaces. Diverse activities such as clothes exhibitions and fashion shows can take place in these flowing spaces appropriately, attracting visitors and revitalizing Centergross.
2
"Architecture is really never experienced as we see it in photographs but it's always experienced in motion and in context" -----Marion Weiss
3
Centergross: The Trade City with convenient transportation Our target is to transform it to a worldwide side fashion center and face the challenge of onlineshopping mode. By recreating the site, we give centergross a new birth.
4
SITE ANALYSIS | CURRENT INDUSTRIES AND BUILDING DISTRIBUTION try dus
taly
in I
n nt i
tus Sta
e arm of g
t ges . big logna sing e th o a s is in B cre of rosarket s is deation g r te m le m Cenment ,the saansfor ent. r ga everear.Tr immin Howr by ydel is yea s mo sale
k par r, he othe t n h ck i ac l blo with e al b l n a o cti tion ixed fun unc re m d f e h a x c s Mi f ea ion ip o functis low h s s tion iou ncy relaic, varefficie e the Th haot use nd nt. ds a , si c the l k e parsufficible fie e and h e a t in t c k in sly ege spa en parseriouand v e l l r a g sm is ass r of ne e rate tly gr o Poo y c l a os s onen sp are m i e r e Therall grhe site oveund t fic traf d Aro n te a rou n a i str ede p f o n on rba rati a p n uside e a s o r e se t d in Poo clo e roa e and t thes is s i h wid , bu cles e T t i . s d g hi Thenk roais verydrivinnd ve r a u k o r r t pa nt f ple the venieof peored. conation y igno parremel rby ext nea s l oo sch n e Sev s ock
Fas h
ion
Tex til
eA
cce
sso
Cur the rent pot fashi Cente andentialon sal rgross Cen the t is inses. Ho`s sal ter our uffic we es m gro ism ien ver od ss. ind t. T , th el i ust he e ap s do ry b loca par min ring l re el b ate new side uyin d by pos nts d g sibi ema litie nd s to s ries
Adv ise f irm s L ogis itics Tec hnic al g ood s Re Fas hio stau n Tex ran tile t Acc e Adv ssorie ise s firm s
Per son al se rvic Log e isit
Tec ics h Per nical son goo Res al ser ds tau v ran ice t
A: M B: Main r a oa the in en ds of 'C tra th C: D enter nce o e city D: S istric gross f E:S urrout Park ' ubu nd rba ing n fi gre eld en s spa ce
5
DEMAND RELATIONSHIP RESEARCH Design
Clothes fitting Brand culture lecture Fashion exhibition Handmake experience
Drawing design
Customers
Plate-making Pattern making Sample making
Buyers
Taking art lessons Personal image design
Students
Enhancing aesthetic
Tourists
Beautiful scenery Cafe&Restaurant Taking photos Centergross`s history
Produce Spinning
Visitors
Weaving Printing & dyeing
Taking exercise Jogging
Sewing
Locals
Parking cars
Sale Designing activities
Employees
Fashion show
Photography Physical stores
Having meetings
Designers Group discussing Changing uniforms Storing products
Workers
Online stores
Delivering
JOUNREY MAP
People with different needs can take different express routes to get where they want to go
Entrance
Exhibition Area
Indoor exhibition hall
Customers
Outdoor fashion show
Experience Area
Clothes making selfexeperience
Interaction Area
Off
Aesthetic training studio
Customer ser Brand culture lecture hall
Personal image design
Art studio
Catering and Entertrainment
Visitors
6
Employees
Evacuation Square
Staff parking lot
Stroll in the Park
Lecture theatre
Enjoy the view from outdoor corridor
Work place
Tourist s cen Outdoor recreation and leisure
Meeting room
Design st
fice
rvice center
service nter
tudio
CONCEPT & FORM GENERATION By extracting the most common raw material in the original site - wool, we combined with our concept, weaving the functions of each part together, and commemorating the original garment factory.
Exhibition Area Prototype of Knitting
Prototype of Building Blocks
Prototype A Combined with Functional Zoning
Experience Area
Interaction Area
Prototype A Reformed & Put Back to the Site
Office Area Prototype B Reformed & Put into the Site Other Area
Physical stores
Corridor Knitting the Building Blocks Enjoy the view at the platform
Storehouse
7
A 2
1
5
3
2
6
4
A
8
7
1. Brand culture lecture hall 2. Fashion show catwalk 3. Model dressing room 4. Reception Room 5. Handmade clothes exhibition
1
5
3 2
7
6
4
8
1. Cafe&restaurant 2. Clothes exhibition hall 3. Model exhibition hall 4. Meeting Room 5. Brand poster exhibition hall
5
3 1
2
4
6
7
8
1. Lecture theatre 2. Masterpiece exhibition hall 3. Model exhibition hall 4. Roof garden 5. Tailoring self`experience studi
8
10
9
hall
io
6. Staff office Ground Floor Plan 7. Ground garden 8. Art lesson studio 9. Personal image design studio 10. Clothes making self-experience studio
Entrance Plaza
10
9
First Floor Plan 6. Staff office 7. Art lesson studio 8. Aesthetic appreciation training studio 9. Masterpiece exhibition hall 10. Viewing platform Central Courtyard
9
10
6. Cafe&meeting room 7. Art gallery 8. Art lesson studio 9. Staff office 10. Viewing platform
Second Floor Plan
Cultural Center 9
SECTION A-A
10
100mm Concreat 30X100mm Beam 10mm Window 100X100mm Concreat Column Double Layer Glass Fence
10mm Black Granite 100mm Concrete 30X100mm Beam 0.2mm Aluminum Film 20mm Polystyteo Board 120mm Reinforced Concrete Structure Board 11
EXTERIOR CORRIDORS WITH FAST ACCESS Exterior corridors allow for quick access to different destinations efficiently without passing through the interior of the building. This will also effectively increase the availability of space inside the building.
INTERIOR FLOWING SPACES WITH DIVERSE ACTIVITIES Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries. 12
EXTERIOR PLATFORMS WITH WONDERFUL PHOTO SPOTS The exterior corridors leads to many platforms more than just rest areas but also ideal places to take pictures of the wonderful scenery. When a person is photographing, he is also the model of other people's photographs.
THE EXTERIOR SPACES BELOW THE BLOCKS The rhythmic column network not only bears the load but also divides the grey space below the blocks deftly so that diverse activities can take place. 13
02 Hybrid Link
Re-enabling function to give new vitality
Catagory: Academic Project Group work Role: Group Leader Instructor: Lichun Wang Type: High-rise Design Contribution: Design(70%)/Digital Modeling(70%)/Drawings(70%) Location: Shanghai, China Year: 2021 Design Description For modern cities, viaducts, overpasses, and cross-river and cross-sea bridges in the city are the keys to resolving urban traffic congestion. These viaducts and overpasses have obviously alleviated the problem of urban traffic congestion and improved the efficiency of urban operations. However, in the cheers of urban bridges, some urban residents found that for Beijing, Shanghai, and other megacities, overpasses, and excessive congestion when passing through entrances and exits have become an inevitable daily routine. This design is based on Le Corbusier's theory of the Radiant City. Through the investigation of the traffic, commercial and residential areas around the Nanpu Bridge in Shanghai, to try a new type of complex combined with urban viaducts and the city's buildings.
14
"Modern life demands, and is waiting for, a new kind of plan, both for the house and the city" -----Le Corbusier
15
OVERPASSES IN SHANGHAI
ng
a aw
ang
daw
dawang road
ad dawang ro
d
d
roa
d
roa
xiao
road ang
d
roa
d
roa
ng
wa
d
roa
xiao
road
g road dawan
ang
daw
daw
ad
dawang ro
ang
daw
road
daw
wang
ang
road
SITE d
roa
dawang road a
daw
d
oa ng r
0 Viaduct
Greening
Residential
HuangPu River
0.3
0.75
1.5km
Road
For modern cities, viaducts, overpasses, and river- and sea-crossing bridges in the city are the keys to resolving urban traffic congestion. These viaducts and overpasses have significantly alleviated the problem of urban traffic congestion and improved the efficiency of urban operation. However, amid the cheers for the city's bridges, some urban residents found that for Beijing, Shanghai, and other megacities, traffic congestion at the entrance and exit has become an unavoidable normal in life. We investigated the traffic and commercial and residential areas around Nanpu Bridge in Shanghai to explore the possibility of combining a new type of viaduct with buildings in the city, in order to deal with the drawbacks that this viaduct gradually shows in urban traffic. Viaduct Exit
Viaduct Exit
16
Commerce
Huangpu River
Viaduct Exit Public Park
Housing
Complex Huangpu River
Viaduct Entrance Residential Area
Public Park Huangpu River
CURRENT INSUFFICIENCY Insufficient Transposition
Insufficient Entrance
Insufficient Pavement
Looking at the Nanpu viaduct from various locations in the city, we can find that the viaduct can affect many areas of the city, but there are few corresponding entrances and exits.
ACTIVITY DEMAND ANALYSIS
1. Want to go to a certain building
2. Leave from the side road
3. Enter the target building after getting off the bridge
4. Want to go to a certain building
5. Enter the upper viaduct directly from the auxiliary road
6. Arrive at the building integrated with the viaduct
2. The block scale of modern cities is small and fragmented, and there are many roads
3. Transplant the block scale in the glorious city into the modern city.
STRATEGY
1. The blocks in the radiant city are large in scale and integrated, with few roads
17
FORM-STRUCTURE STUDY
By Studying the Traditional Structure, an Optimized Structure is Proposed
Current Used Structure System: Core tube in the center
The core tube is in the middle, and the column network is evenly distributed around it
Then build the wall according to the column net to divide the space
Since the columns are distributed in the space, the space is divided into many small parts
This is our most common beamslab-column structure
Optimized Structure System: Core tube in the corner
Arrange the core tube in the corner of the building, and at the same time replace the pillars to play a supporting role
Divide the space according to the core tube in the four corners
Because there is no column network, the space can be freely divided into whole spaces
This is our newly proposed new structure with the core being all around and supporting it.
Twisted and deformed
Based on the layout of the core tube around the surroundings, the building is distorted to obtain different architectural appearances
STRUCTURE STUDY Determine The Structure Through Grasshopper
18
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
AXON-SYNTHETIC DIAGRAM Divide the Basic Functions
Office
OFFICE
Office
GARDE APRON
Outdoor Garden + Observatory Parking Apron Office + Council Chamber
CHAMBE
Entertainment
R
Elevator
OFFICE
Office Theater + Swimming Pool
POOL
Outdoor Garden
OFFICE
Employee Workspace
SHOPPING
OFFICE
Entertainment + Shopping Outdoor Garden + Sports Area
SPO
RTS
Parking + Retail
PARKING
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
XResolution: 25 Optimization Iterations: 4 Smooth: 0.2 Target Density: 0.2 Loads: 2 Anchor Point: 2 ISO Contour Value: 0.066
19
MASTER PLAN
PARKING-RETAIL FLOOR PLAN
GARDEN FLOOR PLA
0
60
150
300m
Traffic congestion at the entrance and exit has become an unavoidable normal in life. We investigate residential areas around Nanpu Bridge in Shanghai to explore the possibility of combining a new typ city, in order to deal with the drawbacks that this viaduct gradually shows in ur 20
OFFICE FLOOR PLAN
+460m
PLAYGROUND FLOOR PLAN
+320m
COMMERCIAL FLOOR PLAN 0
40
100
200m
AN
ed the traffic and commercial and pe of viaduct with buildings in the rban traffic.
+180m
THEATER FLOOR PLAN
0
60
150
+100m
300m
0
8
20
40m
21
SECTION A-A
Office
Outdoor Garden + Observatory Parking Apron
Office + Council Chamber
Employee Workspace
Swimming Pool
Theater
Entertainment
Outdoor Garden
22
VIEW OF THE COMPLEX FROM NANPU BRIDGE
Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries.
VIEW OF THE COMPLEX FROM THE HUANGPU RIVER
Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries.
23
03 Hide on Bush
Re-enabling function to give new vitality
Catagory: Academic Project Individual Work Type: Architectural Design Location: San Simeon, US Year: 2021 Design Description As the most basic architectural prototype, the house points to almost all functions of human behavior, even office and production. Hearst Castle is located on the mountain next to Highway One, the most scenic in the United States, while enjoying the Pacific Ocean and San Simeon mountain views. However, all the buildings are subject to the same style, which is contrary to the great feasibility of the architectural field provided by the vast area of the base itself. This project attempts to revert to a more basic research, splitting all the functions of the house into independent houses, starting from very practical architectural parts and very ideal behaviors (shell, plastic and performance), to explore the possibility of new specific building types .
24
"Architecture is the art of how to waste space" -----Philip Johnson
25
ORIGINAL SITE FUNCTION RESEARCH
In the 1940s, Philip Johnson carried out a series of experiments: splitting all the functions of the residence into separate houses and building them on his own estate. This was a very anti-intensive architectural experiment at the time, but now, it still does not break away from the traditional way of determining the design approach based on existing functions.
Original Buildings
Site Entrance
Original Functions
0 Selected Function
Unselected Function
Site Boundary
Road Slope:
10
0-3° 3-6°
25 6-9°
50m 9-12°
12-15°
Selected Site
HISTORY OF PLASTIC, SHELL AND PERFORMANCE Ancient Era (2600 BCE-500 CE)
Performance
The vast majority of Paleolithic instruments have been found in Europe and date to the Upper Paleolithic. It is certainly possible that singing emerged far before this time, though this is essentially impossible to confirm.
Shell Structure + Plastic
Plastic 26
Modern scholars generally define 'Medieval music' as the music of Western Europe during the Middle Ages, from approximately the 6th to 15th centuries.
Music was certainly prominent in the Early Middle Ages, as attested by artistic depictions of instruments, writings about music, and other records.
Performance + Shell Structure
Shell Structure
Medieval Era (500–1400)
Pantheon Rome, Italy 126 AD
Florence Cathedral Florence, Italy 1294-1436
Renaissance Era (1400–1600) The beginning of the Renaissance in music is not as clearly marked as the beginning of the Renaissance in the other arts, and unlike in the other arts, it did not begin in Italy, but in northern Europe. The first known occurrence of concerts where people are charged admission took place, Concerts Spirituels, the first public concerts , and arguably the world
Sultan Qaytbay Cairo, Egypt 15th century
Neoclassicis (1600–1
PROTOTYPE
Beijing National Aquatics Center China, 2007
Paper Church Japan, 1995
Bamboo theatre China, 2015
Yuhara Wooden Bridge Museum Japan, 2011
Space Frame Structure
Framework Structure
Braided Structure
Dougong Structure
Paper
Bamboo
Wood
Plastic
L'Oceanogràfic Spain, 2003
MaoSi Ecological Primary School China, 2003
Shell Structure
Shear Wall Structure
Concrete
Rammed Earth
? Plastic
sm Period 1820) violinist John Banister's home, Whitefriars, London, 1672 The first known occurrence of concerts where people are charged admission took place Paris, Vienna, London, 1725 Concerts Spirituels, the first public concerts , and arguably the world Taj Mahal Agra (India), 17th century
Revivalism Period (1820–1922) In the late 18th century, music from the likes of Haydn and Mozart was brought and performed in English concerts.
Shell
Modern Period (1922–1960) George Enescu and Alfred Cortot in 1930
The Postmodern Period (1960–Now) A classical music concert in the Rod Laver Arena, Melbourne, Australia, 2005
Red Hot Chili Peppers in 2006, showing a quartet lineup for a rock band
Royal Albert Hall London, UK 1871
Red Rocks Amphitheatre, 1941 construction began in 1936, and was opened to the public in June 1941.
The Sydney Opera House is a multi-venue performing arts centre in Sydney. Located on the banks of the Sydney Harbour, it is often regarded as one of the world's most famous and distinctive buildings and a masterpiece of 20th century architecture.
Gridshells were pioneered in the 1896 by Russian engineer Vladimir Shukhov
The Lotus Temple (Delhi, India), 1986
State Farm Center opened as Assembly Hall on March 2, 1963, and continues to attract attention for its design and construction.
The dome was made up of tefloncoated fiberglass, which was held up by the air pressure inside the building.
Beijing National Aquatics Center, Beijing China, 2007 Comprising a steel space frame, it is the largest ETFEclad structure in the world with over 100,000 m² of ETFE pillows that are only 0.2 mm (1/125 of an inch) in total thickness. The ETFE cladding, supplied and installed by the firm Vector Foiltec, allows more light and heat penetration than traditional glass, resulting in a 30% decrease in energy costs.
Parkesine, invented by Alexander Parkes in 1855 and patented the following year,[54] is considered the first man-made plastic.
In around 1600 BC, Mesoamericans used natural rubber for balls, bands, and figurines
Performance
The development of plastics accelerated with Charles Goodyear's 1839 discovery of vulcanization to harden natural rubber.
The world's first fully synthetic plastic was Bakelite, invented in New York in 1907 by Leo Baekeland, who coined the term plastics.
The structure was originally built as a component of EXPO 67, which officially opened on 27 April 1967.
in 1954 expanded polystyrene (used for building insulation, packaging, and cups) was invented by Dow Chemical
27
TRADITIONAL CONCERT HALL SPACE STUDY
Shape: Rectangle Capacity: Direct Sound Level: 3 Early Reflections Level: 5 Late Reflections Level: 0
Shape: Circle Capacity: Direct Sound Level: 4 Early Reflections Level: 3 Late Reflections Level: 3
Shape: Sector Capacity: Direct Sound Level: 5 Early Reflections Level: 1 Late Reflections Level: 0
REFLECTION PANEL MATERIAL STUDY
Material Characteristics: Thin High-frequency Sound Passability: 5 Low-frequency Sound Passability: 2
Material Characteristics: Thick High-frequency Sound Passability: 5 Low-frequency Sound Passability: 5
Material Characteristics: Smooth High-frequency Sound Passability: 0 Low-frequency Sound Passability: 0
Shape: Horseshoe-shaped Capacity: Direct Sound Level: 4 Early Reflections Level: 5 Late Reflections Level: 2
Material Characteristics: Rough High-frequency Sound Passability: 3 Low-frequency Sound Passability: 3
Shape: Polygon Capacity: Direct Sound Level: 3 Early Reflections Level: 4 Late Reflections Level: 1
Shape: Semicircle Capacity: Direct Sound Level: 5 Early Reflections Level: 2 Late Reflections Level: 2
Material Characteristics: Porous High-frequency Sound Passability: 1 Low-frequency Sound Passability: 1
Material Characteristics: Flat High-frequency Sound Passability: 5 Low-frequency Sound Passability: 5
Octobass Double Bass Cello Viola Violin Piano Contrabassoon Bassoon Heckelphone Coranglais Oboe Octocontrabass Clarinet Contrabass Clarinet Bass Clarinet Alto Clarinet Soprano Clarinet Subcontrabass Saxophone Bass Saxophone Tenor Saxophone Alto Saxophone Sopranino Saxophone Harmonium Hyperbass Flute Contrabass Flute Bass Flute Alto Flute Piccolo Contrabass Recorder Great Bass Recorder Tenor Recorder Alto Recorder Sopranino Recorder Garklein Recorder Contrabass Tuba Bass Tuba Euphonium Bass Trombone Tenor Trombone Alto Trombone Soprano Trombone Piccolo Trombone Cimbasso French Horn Baritone Horn Flugel Horn Bass Trumpet Trumpet Piccolo Trumpet Timpani Xylophones Marimba Crotales Gong Vessels Glockenspiel
28
3 ct io An n 4 da n Se te ct io Se n 1 ct io Se n 2 ct io Se n 3 ct io Sc n 4 he rz Se o ct io Se n 1 ct io Se n 2 ct io Se n 3 ct io Pr n 4 es to Se ct io Se n 1 ct io Se n 2 ct io Se n 3 ct io n 4
2
n io
Se
Se
ct
n
n
io
io
ct
ct
Se
Se
Loudness of Instruments in The Symphony No. 5 in C Minor, Op. 67
1
INSTRUMENTS FREQUENCY STUDY & FORM TRANSLATION Radius: Usage Time Colour: Loudness
Octobass Double Bass Cello Viola Violin Piano Contrabassoon Bassoon Heckelphone Coranglais Oboe Octocontrabass Clarinet Contrabass Clarinet Bass Clarinet Alto Clarinet Soprano Clarinet Subcontrabass Saxophone Bass Saxophone Tenor Saxophone Alto Saxophone Sopranino Saxophone Harmonium Hyperbass Flute Contrabass Flute Bass Flute Alto Flute Piccolo Contrabass Recorder Great Bass Recorder Tenor Recorder Alto Recorder Sopranino Recorder Garklein Recorder Contrabass Tuba Bass Tuba Euphonium Bass Trombone Tenor Trombone Alto Trombone Soprano Trombone Piccolo Trombone Cimbasso French Horn Baritone Horn Flugel Horn Bass Trumpet Trumpet Piccolo Trumpet Timpani Xylophones Marimba Crotales Gong Vessels Glockenspiel
Instrument Sound Frequency
FORM STUDY
Determine The Shape Through Grasshopper
Bottom Shape: Triangle Anchors Num: 5 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Triangle Anchors Num: 4 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Quadrilateral Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Quadrilateral Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Pentagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 9%
Bottom shape: Pentagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Pentagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Hexagon Anchors Num: 6 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 12%
Bottom shape: Hexagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 12%
Bottom shape: Hexagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Hexagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Nonagon Anchors Num: 9 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Heptagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 14%
Bottom shape: Heptagon Anchors Num: 9 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 14%
Bottom shape: Heptagon Anchors Num: 9 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Heptagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Octagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Decagon Anchors Num: 10 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Octagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 15%
Bottom shape: Octagon Anchors Num: 10 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 15%
Bottom shape: Octagon Anchors Num: 10 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Octagon Anchors Num: 9 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Sector Anchors Num: 6 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Sector Anchors Num: 5 Vector Z: 0, 0, 8.328 Openness: False Percentage of Openness: 0%
Bottom shape: Trapezoid Anchors Num: 7 Vector Z: 0, 0, 5.328 Openness: False Percentage of Openness: 0%
Bottom shape: Trapezoid Anchors Num: 5 Vector Z: 0, 0, 3.332 Openness: False Percentage of Openness: 0%
Bottom shape: Sector Anchors Num: 5 Vector Z: 0, 0, 8.643 Openness: False Percentage of Openness: 0%
Bottom shape: Rectangle Anchors Num: 12 Vector Z: 0, 0, 9.865 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Ellipse Anchors Num: 8 Vector Z: 0, 0, 16.768 Openness: Ture Percentage of Openness: 12%
Bottom shape: Sector Anchors Num: 8 Vector Z: 0, 0, 5.568 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Shape Anchors Num: 9 Vector Z: 0, 0, 11.866 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Shape Anchors Num: 11 Vector Z: 0, 0, 16.640 Openness: False Percentage of Openness: 0%
Bottom shape: Rectangle Anchors Num: 9 Vector Z: 0, 0, 8.326 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Ellipse Anchors Num: 5 Vector Z: 0, 0, 4.834 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Ellipse Anchors Num: 5 Vector Z: 0, 0, 8.008 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Shape Anchors Num: 8 Vector Z: 0, 0, 3.657 Openness: False Percentage of Openness: 0%
Bottom shape: Ribbon Anchors Num: 20 Vector Z: 0, 0, 27.586 Openness: False Percentage of Openness: 0%
Bottom shape: Rectangle Anchors Num: 13 Vector Z: 0, 0, 9.482 Openness: False Percentage of Openness: 0%
Bottom shape: Sector Anchors Num: 6 Vector Z: 0, 0, 12.199 Openness: False Percentage of Openness: 0%
Bottom shape: Heart-shaped Anchors Num: 4 Vector Z: 0, 0, 13.821 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Ellipse Anchors Num: 8 Vector Z: 0, 0, 12.778 Openness: Ture Percentage of Openness: 9%
Bottom shape: Irregular Ellipse Anchors Num: 9 Vector Z: 0, 0, 12.778 Openness: Ture Percentage of Openness: 6%
Bottom shape: Irregular Shape Anchors Num: 8 Vector Z: 0, 0, 12.861 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Shape Anchors Num: 12 Vector Z: 0, 0, 28.596 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Shape Anchors Num: 9 Vector Z: 0, 0, 8.842 Openness: False Percentage of Openness: 0%
Bottom Shape: Triangle Anchors Num: 3 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 15%
Bottom Shape: Triangle Anchors Num: 3 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Irregular Pentagon Anchors Num: 5 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Quadrilateral Anchors Num: 4 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Irregular Hexagon Anchors Num: 6 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Pentagon Anchors Num: 5 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Heptagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Pentagon Anchors Num: 5 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 9%
Bottom shape: Hexagon Anchors Num: 6 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Irregular Octagon Anchors Num: 8 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom shape: Heptagon Anchors Num: 7 Vector Z: 0, 0, 14.285 Openness: False Percentage of Openness: 0%
Bottom Shape: Quadrilateral Anchors Num: 4 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 6%
Bottom shape: Trapezoid Anchors Num: 7 Vector Z: 0, 0, 3.332 Openness: False Percentage of Openness: 0%
Bottom Shape: Triangle Anchors Num: 5 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 15%
Bottom Shape: Quadrilateral Anchors Num: 6 Vector Z: 0, 0, 14.285 Openness: Ture Percentage of Openness: 6%
29
MASSING INTEGRATION
According to the original site, we determined the scope of land use. After the basic functions are determined, the basic shape generation is completed by using the parametrically generated form; after optimization, the architectural form is obtained.
AXON-SYNTHETIC DIAGRAM
According to the requirements of the plan, the building is d massing integration is based on the above functions
nce
ra Ent le
1. Select Area
e Caf
2. Integrate Volume
age kst c a B
by
Lob
all
oH Sol
4. Integrate Initial Shape
5. Adjust Surrounding Relationship
6. Integrate Final Form
SECTION A-A
Section A-A 0
30
2
5
10m
rt H nce
Co
nce
ra Ent all
3. Divide Function
ais
GROUND FLOOR PLAN
B
A
Since the building is semi-underground, we adopted the method of continuous section, and we can also clearly see the relationship between the building and the surrounding site in the section diagram below.
0
4
10
20m
1 +6.000
+10.000
3
4
-4.000
2
+0.000
6 6 7
5
8
-4.000
-3.500
9 -8.000
+9.500
10
1. Main Entrance 2. Lobby 3. Garden Entrance 4. Musician Entrance 5. Backstage 6. Storage 7. Dressing Room 8. Restroom 9. Solo Hall 10. Concert Hall
B
A
divided into seven areas, and the
31
SECTION B-B
GARDEN ENTRANCE WITH SPIRAL STAIRCASE Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries. 32
Section B-B 0
2
5
10m
INTERIOR FLOWING SPACES WITH DIVERSE ACTIVITIES Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries. 33
STRUCTURE DETAILS
Exterior Plastic Panel Bolt Connection Steel Keel Water Proofing
Double Layer Glass
Rain Gutter Steel Beam Steel Connection Light Steel Hanging Joint
Handrail Double Layer Glass Fence Rain Gutter Plastic Floor Concrete Board Water Pipe
Exterior Plastic Panel Steel Keel Steel Beam Steel Connection Bolt Water Proofing Bolt Connection Interior Plastic Panel
Pool Basin Water Pipe Water Proofing
Base
34
Steel Hanging Joint Plastic Floor Concrete Concrete Board Light
GARDEN ENTRANCE CONNECTED BY BRIDGE Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries.
CONCERT HALL DRILLED OUT OF THE MOUNTAIN Column network load-bearing structure frees the wall so that diverse interior f lowing linear spaces can be designed for different types of galleries. 35
04 Back to the Nature Spatial generator for social activities
Catagory: Pavilion Design&Construction Group work Role: Collaborative Work as a Group Leader of 5 Members Instructor: LiFeng Lin Type: Pavilion Design&Construction Client: Hanamaki Farm Location: Shanghai, China Year: 2020 Design Description Chongming, a beautiful island with an excellent natural environment and ecological resources, has unique advantages to provide conditions for the development of local tourism and agriculture. How space can activate behaviors and become a social generator is the main focus of this spatial experiment. This design makes a breakthrough among the extensibility of a horizontal plan without obvious aggregation in space, whose spatial enclosure is highlighted vertically as well.
36
Man is the measure of all things -----Vitruvius
37
ERGONOMIC ANALYSIS
By connecting crowd activities to the facade according to different activities orientation types and ergonomics, the facade become an interface to host diverse activities. 0
105 850 0 100 350
1 900
0
125
600
0
110
0
550
105
0
120
700 0 130
0 170
0
135
900 750 Enc
ircl
300
ed
Asp Par a
ect ant
Act
llel
ivit
ies
ed
Sep
Ori
ara ted
ent atio
nT ype
SITE PLAN
3.5m Top Plan
2.0m Section Plan
0
3
5
10 1.2m Section Plan
38
Structure line Core region Accessible region
Children crossing route Adults crossing route Core region
Children crossing route Adults crossing route Core region
BAMBOO STRUCTURE ANALYSIS
Weaving Strips (2x2000mm)
Weaving Skeleton (2x2000mm)
Connecting Bamboo (1200mm,R=25mm)
Bearing Bamboo (4000mm,R=25mm)
Light Strip (6000mm,R=20mm)
Forming Bamboo (4000mm,R=25mm)
39
CONSTRUCTING PROCESS
Bamboo is transported to the construction site after carbonization and anti-corrosion treatment. At the site, after positioning, laying out, frame structure, main structure and secondary structure, the frame of the overall design is basically formed, and then bamboo strips are woven to complete the skin production.
Positioning
Main Structure
Sub-structure
Form Determining
Weaving 40
Aerial View of the Installation
Constructing Process
Day and Night View
Photography by Liu Songkai
41
CONTINUOUS SECTIONS D—D E—E
B—B
A—A
C—C
42
A—A
B—B
Photography by Liu Songkai
C—C
D—D
E—E
43
05 Above the City Imagination of future housing for post-Covid 19
Catagory: Academic Project Individual Work Instructor: Wenzhao Hsu Type: Architectural Design Location: Wuhan, China Year: 2020 Design Description The Covid-19, which has swept the world, has given us a new perspective on the design of houses. From a residential environment to condominium design, people's requirements for housing are becoming increasingly complex. As the basic cell of the city, housing, together with other buildings, combines public resources to form an organic urbanity. Concerned about the spread rate of Covid-19 and the distribution of public services, this project designs separately from the central public facilities and the individual living unit to meet the requirements of residential functions in face of pandemic issues.
44
FUTURE HOUSING
“The mobile metropolitan network has brought a lot to people, but now it is more important that the city should act as a safe place, a home, and a place with continuity. ” -----Wouter Vanstiphout
45
DISTRIBUTION OF COVID-19 CASES IN THE FIRST WEEK IN WUHAN
60 km
55 km
50 km
45km
40 km
35 km
30 km
25 km
20 km
15 km
10 km
Number of case Railroad Metro Road Residential Watercourse Landscape
Incidence
Traffic
Residential
School Public Transfers CBD
Epidemic
0 km
Public Facility Green Space
197 132 83 74 39 14 The above data is the number of cases in different regions since January 1
46
Housing
5 km
Railroad Metro Road
Residential Landscape
Railroad Metro Road
Landscape Residential Incidence
SIGNIFICANT SOCIAL EVENTS DURING COVID-19
STRATEGY
The upper part is the current situation of decentralized public facilities and dense residential areas. The following strategy is to centralize the functions: The central core including industry, commerce, and public facilities can improve the efficiency of urban operations; Separated living units and shared public spaces can improve the safety and convenience of isolation
Current Social-spacial Organization +I S
ID
L O RG A N
Individual Living unit
Public Facility
Commercial
Industry
IZ
CE
SP NG A
RI
E
IA NT
N
R ES
E
S RE PA
CE
CO
RV
ON ATI
U B LI C SE
Dense Settlement
IO AT
B
P AN
COVID-19 IC
UR
Y Decentralize Facility
+EF
I
C EN
Accelerated spread of infectious diseases
OL
FI C
Low efficiency of medical resources
Shared Public Space
47
MASSING GENERATION
Based on the epidemic map, we have determined the initial gathering place of the epidemic. With these areas as the center, we build future residential areas that can grow
1. Locate core area
2. Locate residential area
3. Build central community
4. Deform communication area
5. Expand outward
6. Generate affiliate communities
AXON-SYNTHETIC DIAGRAM Core Type 1 Theater Stadium Restaurant Landscape Medical treatment Housing unit manufacturing Power generation Energy processing
Core Type 2 Stadium Restaurant Landscape Water treatment Power generation Energy processing
Residential Area 1 Residencial Shopping Landscape
Residential Area 2 Residencial Landscape
Residential Area 3 Residencial
Core Type 3 Water treatment Food handling Medical treatment Housing unit manufacturing Power generation Energy processing
48
EXPLODED AXONOMETRIC DIAGRAM
People can meet basic residential and social needs in the residential area, and the core area is responsible for energy supply, food manufacturing, water treatment, medical care, sports, and other activities
Transportation Transportation of daily necessities, packages and rapid traffic
Assembly Transport, place, and assemble room modules
Residential Area Residents’ residential areas, including outdoor courtyards and balconies
Public Space Including libraries, theaters, restaurants and parks,etc.
Structual Frame Transportation of daily necessities, packages and rapid traffic
49
PLAN|RESIDENTIAL SECTOR
Rooms in the residential sector can grow downwards, and the house type can be changed according to the needs of residents.
Residencial-unit | 1 Floor
Residencial-unit | 2 Floors
Residencial-unit | 3 Floors
50
PLAN|LOGISTICS MACHINISM SECTOR
The mechanical sector can provide residents with logistics distribution, light rail transit, and house assembly.
Package
Traffic
Housing Resettlement
51
SECTION
The residential unit can grow downwards, and the spatial organization can be changed according to the needs of residents. The central the residential and other industrial areas' daily energy demands.
52
power plant in the core carries
CORE & LIVING AREA
The residential unit can be changed according to the needs of residents, and the central power plant in the core carries the residential and other industrial areas' daily energy demands.
The sustainable energy engine provides energy to the house printing equipment to ensure that the automatic printing process can progress successfully to meet housing needs for various residents.
53
54
55
06 Other Work Establish a dialogue between architectures Catagory: Academic Project Role: Group Leader Instructor: Shiyuan Chen Type: Garden Reuse Contribution: Design(70%)/Digital Modeling(70%)/Drawings(70%) Location: Hong Kong, China Year: 2018
DESIGN DESCRIPTION Hong Kong has been defined as an “IntenCity”, a word that expresses a combination of different urban qualities. However, in this complex urban structure, most of the public spaces, especially those in old urban areas, are poorly managed and designed. In this project, we try to establish a dialogue between architecture and cities on an urban scale and explore the possibility of urban development based on a full understanding of the process of urban formation.
Public rest Tai Chi on the roof
Casual chess
Public rest
Exercise on the roof
Walk on the roof
MASTER PLAN
Food location for working meals Commodity car
Public rest
FORM GENERATION
SITE1| Kau-U Fong Children's Playground
Site boundary Update part Green Corridor Green roof Buildings
Inefficient public space
Pulling up
Inserting bounding boxes
Reorganizing programs
SITE2| Wa-On Lane Sitting-out Area
Inefficient public space
Demolishing ubderused spaces
Establishing connection
Inserting functional spaces
Establishing connection
Implanting programs
Demolishing ubderused spaces
Inserting functional spaces
Implanting programs
SITE3| Cochrane Street Sitting-out Area
Inefficient public space
Reorganizing programs
SITE4| Lok Hing Lane Garden
0
50
100
250m
Inefficient public space
56
We noticed only a few children using the swing or slide , whereas senior citizens would spend time chatting and playing chess
The site is located in a mixedu s e area surrounded b y commercial and residential buildings in Sheung Wan.
LOOK OUTSIDE THE CAFE Contrary to the collision and staggering between the functions below, the cafe space on the third floor is like an island, so people can maintain relative privacy
The Street and the escalator is the main juncture between the Mid-Levels residential area and the Central commercial area."
Surrounded by the back façades of different mixed-use high rise buildings, the park is the connection between the Pottinger Street and the Wo On lane.
ENTRANCE PARK THROUGH THE NEIGHBORHOOD The garden is a combination of multiple functions. You can reach the bookshop on the second floor from the outdoor stairs, and then upwards into the restaurant, cafe, and theater.
AXONOMETRIC PLAN AND PROGRAM ANALYSIS OF SITE 4 BUILDING Book cafe
Outdoor cafe & Restaurant
Bookshop
Overhead terrace
Restaurant
Small theater & Cafe
Restaurant
Theater
Cafe
Cafe
SECTION
57
Acknowledgement I would like to express my deep gratitude to all the people who have helped me during my school time, including supervisors, friends, team members, especially Ms. Hsu and my parents. It would be a challenging time for me without your sincere support. It is not perfect work, however, I want to share that pride and honor with all the people who have been instrumental in the pursuit of my goal.
Tel: +86 17853245889 E-mail: Jialinjiang98@gmail.com