MELBOURNE SCHOOL OF DESIGN ARCHITECTURE PORTFOLIO
DANIEL CHOW THE UNIVERSITY OF MELBOURNE MASTER OF ARCHITECTURE
TABLE OF CONTENTS I
ABOUT ME
II
THE WAVE 2019 MASTER STUDIO C (THE UNIVERSITY OF MELBOURNE)
III
YOUNG,WILD & GREEN 2018 STUDIO: FIRE (THE UNIVERSITY OF MELBOURNE)
IV
ABANDONED GLAM 2017 STUDIO: AIR (THE UNIVERSITY OF MELBOURNE)
V
PAVILION: (X)PLORATION 2017 STUDIO: EARTH (THE UNIVERSITY OF MELBOURNE)
VI
THE BOATHOUSE: A REM KOOLHAAS STUDY 2016 STUDIO: WATER (THE UNIVERSITY OF MELBOURNE)
VII
ELIZABETH BLACKBURN SCHOOL OF SCIENCES 2018 CONSTRUCTION DESIGN (THE UNIVERSITY OF MELBOURNE)
VIII
CARLTON SKY 2019 APPLIED ARCHITECTURAL TECHNOLOGY (THE UNIVERSITY OF MELBOURNE)
IX
CONCEPT T 2015 DESIGNING ENVIRONMENTS (THE UNIVERSITY OF MELBOURNE)
IV IX VII
III
VI
VIII
II
V
ABOUT ME
PERSONAL My name is Daniel Chow and I am an aspiring architect. I was born in Singapore but was raised in both Singapore and Shanghai. Having completed the Bachelor of Environments (Major in Architecture) in The University of Melbourne in 2018, I am now in the masters program in The University of Melbourne. I realize that architecture is more than just design but a way to express individuality and ideas through a realm of forms, technology, flow and materiality.
EDUCATION 2019 – Present (Melbourne, Australia) The Univesity of Melbourne Master of Architecture 2015 – 2018 (Melbourne, Australia) The University of Melbourne Bachelor of Environments Major in Architecture Graduated with Honours 2012 – 2013 (Melbourne, Australia) Trinity College (The University of Melbourne) Foundation Studies Average: High Distinction 2008 – 2011 (Singapore, Singapore) ACS (Barker Road) Secondary Education GCE 'O' Level 2001 – 2007 (Shanghai, China) Shanghai American School Elementary and Middle School
MODELLING SKILLS Lasercutting 3D Printing Hand-built modelling
EMPLOYMENT September 2018 - January 2019 (Singapore) ACID Avalon Collective Interior Design Internship - Assist in major projects - Helped in the selection of final materials - Attended site visits and meetings November 2017 – Februrary 2018 (Singapore) AC Consortium Pte Ltd (Subsidiary of RSP Architects) Internship - Assist in major projects - Creating final renders for major projects - Editing and calculating final construction numbers
SOFTWARE SKILLS Rhinoceros 3D AutoCAD Adobe Photoshop Adobe InDesign Adobe Illustrator Autodesk Revit SketchUp Grasshopper 3D Microsoft Office WordPress
THE WAVE COMMERCIAL PROPERTY JOHN SMYTH’S SCHOOL OF MUSIC DATE OF COMPLETION 2019 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION This new Sound School located in the new student precinct and it is called it The Wave. Music is a universal language that has the power to connect people at a level of complexity that few other things can. In enrolling in a Bachelor of Sound at the Melbourne School of Sound, the faculty housed within the Wave, an individual isn’t just to committing to learning the difference between a beep and a bop but rather committing to understanding the mechanics behind sound generation, it’s physiological and psychological effects, the creative ways it can be manipulated and becoming adept with various instruments and technologies. As part of their studies, students are also required to engage with the world around them and put what they learn into practice through activities such as composition, sound engineering, acoustic engineering or even exploring the effects of sound therapy.
Two
LEGEND One Two Three Four Five
Perspective section Perspective plan Elevation Interior perspective Axonometic campus plan
Three
One EXPLODED DIAGRAM PE
RF
OR
MA
NC
ES
PA CE
RE
CO R
DI
NG
ST
UD
RE
E AC SP
AR
HE
IO
L SA
CE PA
BR
OA D
CA
ST
ME
RI
IN
E XP
G
S AL NT
E
FA B
LA B
PE AR RCY CH GR IV AI E N
GE
R
MS
OO
R SS
A CL
Four Five PRIVATE
PUBLIC
ENTRY/EXIT POINTS
SEPARATION OF SPACES
SITE PLAN
CONCEPT DIAGRAMS FOR POTENTIAL SPACES
ORIGINAL CIRCULATION
AREA OF FOCUS
POTENTIAL SPACES
DECONSTRUCTED INSTRUMENT DIAGRAM
CONCEPT DIAGRAM
YOUNG, WILD & GREEN
SITE ANALYSIS Park Drive
Flemington Road
COMMERCIAL PROPERTY EXTENSION TO UNIVERSITY HIGH SCHOOL DATE OF COMPLETION 2018 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION As urban development increases in today’s world, it is important to ensure that spaces are being used efficiently and well. University high is located just at the border of the CBD and is surrounded by many other man made buildings. With little greenery in the area, it is important to note that us humans (especially high schoolers) still like to connect with nature and be outside. This school tries to accomplish that by incorporating open and green spaces, large expansive vertical volumes as well as the landscape around to blur the line between the outdoors and indoors.
SITE PLAN
Story Street
Royal Parade
COURTYARD
DESIGN ONE
PRIVATE GARDEN
DESIGN TWO
DESIGN THREE
CONCEPT I
CONCEPT II
CONCEPT III
GREEN WALL
ROOF TERRACE
ROOF TERRACE
ROOF TERRACE
CIRCULATION
GREEN FACADE CONTINUOUS CIRCULATION CONTINUOUS CIRCULATION
WATER FEATURE
UNDERGROUND SPACE
GREEN WALL
GREEN FACADE
SHAPE ANALYSIS
Large geometric space that employs an open plan and greenery
INTERIM ONE
Split into 2 separate programs (Public + Private spaces)
Introduction of floor to ceiling Courtyard + Green Roofs
INTERIM TWO
Introduction of Sky Bridges to create one homogenous design
Final Design that incorporates values explored earlier
Laminated and tempered flat glass floor
Second Floor
Third Floor
Third Floor
140mm thick Glass and steel balustrade
Second Floor First Floor
First Floor Mezzanine First Floor Mezzanine
400 x 400mm Steel Columns (Coated with a copper finish)
Reinforced concrete Retaining Wall (Core in both Complexes)
Ground Floor Ground Floor Mezzanine
First Floor Double glazed Curtain Wall with rectangular mullions Ground Floor Mezzanine
Reinforced Concrete Slab
PLAN
Ground Floor
EXPLODED DIAGRAM (left) As for the structure of the building, it features a reinforced concrete slab on both complexes and double glazed curtain walls. The columns are made of steel at are spread at 6m apart. The internal walls are timber studs while the core that is on both sides are a 300mm reinforced concrete retaining wall. There is a green roof on the second floor as mentioned earlier and it’s a 200mm extensive green roof so basically for small plants and herbs. Lastly, the top floor feature a portion whereby plan of the floor is glass to have natural light flow into the building. VERTICAL GARDENS (right) The main feature of my building are actually the 2 courtyards that run from ground floor all the way to the Top for both complexes. Known as vertical gardens, the one on the education side actually has a void on each floor creating a balcony like opening to this green courtyard. The sports complex features on top but does not have the void space. Both are covered with a glass roof. These gardens bring nature into the building and also provides natural light and acts as the heart of what the whole green theme revolves around. I have decided to use tropical rainforest plants are they do not require much sunlight or maintenance.
FACADE SYSTEM
Vertical Garden (Education)
Vertical Garden (Sports)
Open concept double volume Atrium
Corridor to classrooms featuring the Vertical Garden
Common area for solo/group study
Green Roof Learning Center (Outdoor Education)
ABANDONED GLAM
RHINO MODEL
APPAREL HIGH END DESIGNER DRESS DATE OF COMPLETION 2017 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION Taking inspiration from Croatian born fashion designer Matija Cop, we would use grasshopper to determine a basic connection detail that can be mutplied across an entire garment. Our form varied dramatically from prototyping to the final stage. Initially we had started of with a high collared, long sleeved garment but as we explored Grasshopper more, we had changed it to a full length dress as this gave us a wider design scope to play with multiple variations using Grasshopper tools like Weaverbird and Lunch Box on a garment with a larger surface area. For the final dress, we broke it down into four major components, a neck piece, a shoulder piece, waistband and skirt. Each of the four pieces are bespoke with each row containing a different sized tab and slit. The Grasshopper definition would have allowed for this as it would be adjusted to the length of each piece. As for the diamond pattern, it would increase with the size of the surface meaning that the neck piece would have smaller components while the skirt has the largest.
VARIATIONS
The tessellation of the dress allowed for ease of fabrication. The diamond pattern became on individual component that could be laser cut as a separate piece and assembled through a means of weaving the elements together. The garment is made up of some 192 individual pieces. In the nature of the post-apocalypse and post style we believe that our only form of identification would become through our clothes. We incorporated this in the garment by etching a unique identifier into the skirt and neck piece, that would become individualised as it is reproduced for others.
FINAL RENDERS
GRASSHOPPER SCRIPT
PROCESS
FINAL SHOTS
POINT LINE PLANE
MASS
FRAME & INFILL
The point line and plane technique alters as one changes his/her view. Viewed from different angles on elevation, each individual ‘structure’ seems as though it is connected by one point in the middle of it all to form almost like a cross like structure via the lines. When viewed in perspective, the model gets narrower as it ascends, embracing the concept of plane to line to point. When viewed from the top it is a consistent flow of alternating lines and planes as you move from left to right.
As the roots of our earth provide the foundation for us to stand on, this drawing represents strong fixtures that are intertwined within one another to create a sense of strength and heaviness to support the solid state above in an almost intimidating manner. Highly inspired by deep caves and tectonic plates, both the dark and light spaces correlate to each other.
This frame and infill model is based on abstraction. It shows that both frame and infill need one another to support this structure.
PAVILION: X(PLORATION) COMMERCIAL PROPERTY SECRET PAVILION DATE OF COMPLETION 2017 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION In today’s society, we tend to make assumptions by judging something/someone before fully understanding it. My idea embarks around the concept of illusionism, where the top seems light but gets deeper as one goes beneath the ground. This concept goes back to my notion of a secret where one will need to take a journey through exploration before uncovering something he/she may not have known before.
CONCEPTACLE This represents my notion of secret in an abstract manner. The top consists of a light and minimalistic frame that is open on all ends. The ground floor houses a piece of glass that looks toward the deep bottom to entice users to go beneath the surface. The glass portion is surrounded by point line and plane elements that are metaphorically protecting the secret beneath. This conceptacle serves as the foundation for the Pavilion.
SITE ANALYSIS Located toward the bottom of the island, the site chosen is easily accessible from both access points. At ten meters high, it is also the highest point of the island. Whilst open on one end, the other end is surrounded by trees creating a stark contrast between exposure and privacy.
Sun Path
Noise Source
Noise Source
Topography Greenery Walking Paths Access Points Travel Route Site Chosen
Noise Source
Prevailing Winds
ABOVE GROUND
ON GROUND
BELOW GROUND
1:500
PLAN Compromising of three levels, the footprint of the area gets larger as one proceeds downward.
FUNCTION DIAGRAM Function Diagram Vertical revolving door
‘Open’ stairs
The above ground portion is seamlessly incorporated into the hill of Herring Island. Covered in grass, it features a glass portion that looks to the secret room in the lowest level of the pavilion. Designed as a viewing platform, users may use this open space to enjoy panoramic views of the island.
Circulation Dark Space Light Space Secret Room Social Spaces Children hiding spots
As one enters the pavilion through the ground floor, he/she is only given one path, downward. The glass portion is once again looking toward the level below to entice the users to go beneath the surface via the ‘open’ stairs. Upon reaching the lowest level of the pavilion, one will find various spatial qualities here which drew inspiration from Bernard Tschumi’ plan. As the theme revolves around exploration, I wanted to create spaces of stark contrasts with a play on light and dark spaces. Each of the four domes feature a unique attribute that allows the user to interact with the space in order to proceed with his/her journey. (full details on the Function Diagram) While this pavilion is designed around secrecy, it is also catered to small families. The domes have large openings and are relatively short as it caters to a demographic of all ages. One may choose to leave the dome at any one point via the openings on either end that lead back to the main area.
Floor tactile paving Rope handle
Horizontal revolving door Secret room
FORM Three tectonics are merged together in this design. As the general shape features heavy elements of point line plane with hints of frame and infill, the experience as one wanders through the pavilion shows strong signs of mass.
ABOVE GROUND
ON GROUND
BELOW GROUND
Section AA
Sections 1:100
Section BB
THE BOATHOUSE: A REM KOOLHAAS STUDY COMMERCIAL PROPERTY BOATHOUSE DATE OF COMPLETION 2016 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION The concept of how a boathouse is connected to open waters emphasizes the idea of freedom and exploration which are the main themes for the design of this building. Inspired by a parallelogram, this asymmetrical building features sharp and clean lines with exaggerated angles all around. Compromising of 2.5 levels, each level boasts 6m high ceilings with floor to ceiling windows to allow an abundance of natural light through. The exterior surface is made of glass and a quilted patterned concrete that emphasizes the idea of multiple paths and choices. With every external panel of the building tilted at an angle, it gives the illusion of a wider, larger space both internally and externally.
SITE PLAN 8 3m
First Floor (Mezzanine)
10m
33m
7 - Bar (Outdoor)
8 - Bar (Outdoor)
8 13m
7 - Food Preperation
7 - Dining (open)
6
17m
SHAPE ANALYSIS
8
8
8 - Kitchen
7 - Food Storage
4m
First Floor
10.5
22.5m
27m
1st Floor 1 (Open)
3
2
Restaurant
2
4
Office
Cafe
16m
Circulation
5
20m
Hire Counter
Toilets + Showers
Boathouse Workshop
Boat Storage
Kiosk 4.5m
Ground Floor
Ground Floor
5m
22m
Plan 1:50 33m 27m
7 - Bar (Outdoor)
8 - Bar (Outdoor)
33m
33m
1 (Open)
27m
7 - Bar (Outdoor)
27m
3
8 - Bar (Outdoor)
1 (Open)
2
2
7 - Bar (Outdoor)
8 - Bar (Outdoor)
1 (Open)
4 8
3
3 13m
7 - Dining (open) 2
2
8
2
4 8
16m
13m
7 - Dining (open)
Plan 1:50
8
6
17m
8
13m
5
8
7 - Dining (open)
8
6
17m
8
4
2
7 - Food storage
3m
8 - Kitchen
8
6
17m
20m
16m
8
16m
5
5
8 7 - Food storage
3m
8
8 - Kitchen
10m
20m
Plan 1:50
7 - Food storage
4m
3m
10m
4m
4.5m
10.5m
10.5m
22.5m
22.5m
4.5m
5m
5m
20m
10m 4m
4.5m
8 - Kitchen
10.5m
22.5m
22m
22m
5m
SECTION A-A
SECTION B-B
22m
SECTION C-C
SECTION A-A 7 7
7
8
8
1
5
4
4
REM KOOLHAAS INSPIRATION Rem Koolhaas’ principle of mixing public and private space was very much incorporated into this design (Lynch, 2015). The North side of the boathouse features a full glass curtain wall that takes advantage of the unobstructed view of the city, park and of course, Yarra River. With elements like a glass elevator and stairs placed edge to edge to the glass curtain wall, it gives a sense of openness and airiness in an enclosed space. This method of connecting the building to its surrounding context is applied in many of Koolhaas’ designs, especially in Pierre Lassonde Pavillion (“Pierre Lassonde Pavillion,” 2016). As Koolhaas embarks on the idea of adventure, one has to constantly move around and just like Casa Da Musica, there is no lobby but instead, long corridors and stairs to connect each room (“Casa Da Musica,” 2014). As Koolhaas embarks on daring approaches, the boathouse storage does not face the front, instead, it is placed on the East side. The main reason being light. Should the storage be placed at the front end, the use of natural light would be compromised leaving the ground floor dull and stagnant which goes against what the principles of this building is all about.
SECTION B-B
SECTION C-C
8 8 8
8
7
6
7
8
8
3
3
2
2
1
ELEVATION VIEW
ELIZABETH BLACKBURN SCHOOL OF SCIENCES COMMERCIAL PROPERTY HIGH SCHOOL BUILDING DATE OF COMPLETION 2018 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION A scaled axonometric drawing and model of a certain section of the EBBS building. The section cut shows the structural systems present in the building. It covers all levels of the building including the soil profile, footings, reinforcement, steel, windows/door and type of roof used. With the drawing and model made, one can get a better understanding of what actually happens beneath the surface in a highly interactive way.
SCHEDULE DETAILS SOIL PROFILE 1. 0MM - 107MM CRUSHED ROCK CAPPED BY 30MM ASPHALT, BROWN GREY, MOIST, SILT, CLAY, MEDIUM DENSE 2. 107MM - 380MM CRUSHED ROCK AND CEMENT STABILISED, GREY BROWN, MOIST, TRACES OF SILT, MEDIUM DENSE 3. 380MM - 646MM CLAY, GREY BROWN, MOIST, SILTY, STIFF 4. 646MM - 2615MM EXTREMELY WEATHERED, YELLOW/ORANGE/GREY, SILTY AND GRAVELS, VERY LOW ROCK STRENGTH
5
14
RL
41
.3
FOOTINGS – SLAB 5. F1 – 1500MM X 1500MM X 750MM – N12-200 CRS BOTTOM BOTH DIRECTIONS 6. EB1 – 300MM WIDE AT 600MM DEEP WITH 3-L12-TM TOP AND BOTTOM REINFORCEMENT
23
CONCRETE REINFORCEMENT 7. RL818 MESH EF-MAIN BARS VERT. – STEEL TROWEL
18
CONCRETE BEAM – COLUMN 8. 1BB2 – 2400MM WIDE X 550MM DEEP
19 20
STEEL (ALL STEELWORK TO BE ONE STEEL GRADE 300 PLUS U.N.O) 9. C1 – 89 X 89 X 6.0 SHS – GRADE 350 MPa MIN. 10. GB1 – 200 X 75 PFC – HOT DIP GALVANISED 11. GC1 – 200 X 75 PFC – GROUND FLOOR COLUMN 12. OR2 – 89 X 89 X 6.0 SHS – OUTRIGGER 13. BC1 – 75 X 75 X 3.0 SHS – BALUSTRADE COLUMN GRADE 350 MPa MIN. 14. LR1 – 150 X 75 PFC 15. LRA1 – 150 X 90 X 10 UA
15
RL
36
.0
0
22
21
17
WINDOWS AND DOORS 16. 100MM WIDE POWDER COATED ALUMNIUM CENTRE GLAZED WINDOW FRAME, PROVIDE BACKING ROD AND SILICONE SEAL TO FINISH AGAINST WINDOW FRAME 17. ALUMINUM FRAMED DOOR FRAME
8
16
ROOF 18. P2 – C20024 – 1200 MAX CRS, 1 ROW OF BRIDGING PER BAY 19. CJ1 – C15019 NO LAP REQUIRED, 1 ROW OF BRIDGING PER BAY 20. B9 – 150 X 75 PFC 21. WH7 – 150 X 75 PFC 22. RB3 – 50 X 3 FLAT M.S. PLATE FIX TO TOP OF EACH PURLIN 23. B7 – 180 PFC
0
.8
1 L3
13
R
1
7
12
10
2 5 3
9
11
4
6
AXONOMETRIC DRAWING
CARLTON SKY COMMERCIAL PROPERTY HIGH-RISE OFFICE TOWER DATE OF COMPLETION 2019 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION From the ideas of adding to the city’s skyline, Carlton Sky adopts a diagrid structure exposed on its exterior, challenging the conventional linear grid facades of its neighbouring buildings. This gives Carlton Sky its distinctive feature of a dynamic façade in contrast to the gentleness of its curved form. The structure of the tower was designed to allow for users to enjoy panoramic views of its surrounding context by allowing maximum window views. As a result, we decided that circular columns were the most appropriate for the tower, matching the curved language of the tower’s form. This also addresses the vertical and lateral loads, minimising sway from what represents an exoskeleton supporting the building. All structure ties back to the core in the middle of the building.
1
2 9000
4
3 9000
9000
5 4500
7
6 9000
9000
8 9000
PODIUM GROUND FLOOR PLAN 1:1500 @ A2
A
CAFE
12000
ATRIUM
A
B 4 - Chamfered edge to accomodate wind
RETAIL
A
A
9000
1 - Maximum building height - 350m
B
C 9000
PODIUM FIRST FLOOR PLAN 1:1500 @ A2
D 12000
D
2 - Podium + Tower + Crown
CAFE
C RETAIL
5 - Chamfered edge for an inviting waiting area
RETAIL
E TYPICAL FLOOR PLAN 1:250 @ A2 PRIMARY STEEL BEAM Spacing - 3000mm Width - 600mm Depth - 750mm
SECONDARY STEEL BEAM Spacing - 3000mm Width - 450mm Depth - 400mm
1
2 9000
No. of 3x lift core
Non GFA (lift core)
Total Floor Area
Efficient Floor Area
Efficiency
GFA
Floors
Total GFA
423
12
195.4
7621
0
0
7425.6
4
29702.4
0
Stack 1
423
12
195.4
1892
1469
77.64270613
1696.6
8
13572.8
11752
M1
423
12
195.4
1892
0
0
1696.6
1
1696.6
0
Stack 2
375
9
149.5
1892
1517
80.17970402
1742.5
18
31365
27306
M2
375
9
149.5
1892
0
0
1742.5
1
1742.5
0
Stack 3
261
6
103.6
1892
1631
86.205074
1788.4
18
32191.2
29358
Total NLA
261
6
103.6
1892
0
0
1788.4
1
1788.4
0
214
3
57.7
1892
1678
88.68921776
1834.3
18
33017.4
30204
Non GFA (Lift Core)
Total Floor Area
Office Floor Height
3.8
GFA
Floors
Total GFA
69
145076.3
Office Height
235.6 20
M Height
22.8
Tower + Podium
278.4
Crown Height
69.6
Total
348
Target Difference
9000
9000
8 9000
PODIUM SECOND FLOOR PLAN 1:1500 @ A2
CAFE
B
RETAIL
A
A
C
PODIUM THIRD FLOOR PLAN 1:1500 @ A2 RESTAURANTS
D
Total Floors
Podium Height
4500
7
6
Total NLA
12000
5 7.6
9000
9000
M3 Stack 4
M Height
9000
5
12000
Core Area (incl. toilet) Podium
Podium Floor Height
4
3
A
6 - Crown tilted for the best views
9000
3 - Views toward Carlton Gardens and the city
EDGE STEEL BEAM Width - 600mm Depth - 400mm
RETAIL RESTAURANTS
E 145271.7
98620
350
159192
100000
2
13920.3
1380
BUILDING INFORMATION
ROOF PLAN 1:250 @ A2 PRIMARY STEEL BEAM Spacing - 9000mm Web Truss Spacing - 2230mm Width - 600mm Depth - 750mm
SECONDARY STEEL BEAM Spacing - 4500mm Width - 450mm Depth - 450mm
EDGE STEEL BEAM Spacing - 9000mm Width - 600mm Depth - 600mm
Section 1:750 @ A2
A
Low Rise
A
A
Medium Rise
A
A
High Rise
A
A
Sky Rise
A
Plans 1:500 @ A2
ELEVATION
400
300
2500 400
600mm Ø STEEL COLUMN ENCASED IN CONCRETE
250mm THICK PRECAST CONCRETE SLAB
400mm AIR PLENUM
400
250
2 X 8mm THK DOUBLE GLAZED GLASS
STEEL DIAGONAL GRID TUBE STRUCTURE
110
MODULAR STEEL BRACKET FLOOR FINISH STRUCTURE
120
15mm THK CARPET FLOOR FINISH
PEDESTAL
300mm THK STEEL DIAGONAL GRID FRAME PRIMARY TUBE STRUCTURE ALUMINIUM TRANSOM
100mm THK IN-SITU CONCRETE SCREED
250mm Ø FOR SERVICES TO RUN THROUGH
SMOKE FLASHING STEEL RECTANGULAR HOLLOW SECTION
50% PERFORATED PANEL TO CONCEAL MECHANICAL LOUVRES
GALV. STEEL L-BRACKET
2400
150mm THK CONCRETE HALF SLAB
DETAIL "A"
WEATHER PROOF MECHANICAL LOUVRES
FIRESTOP 90mm THK THERMAL INSULATION HANGER & ROD SUPPORT FOR FALSE CEILING
CIRCULAR STEEL COLUMN ENCASED IN CONCRETE
300 x 600mm THK STEEL EDGE BEAM 20mm THK VERMICULITE FIREPROOF COATING
300 x 600mm THK CASTELLATED STEEL PRIMARY BEAM STEEL L-PLATE SECURING BEAM CONNECTION
890
400mm AIR PLENUM
NUT & BOLT
640
250mm Ø FOR SERVICES TO RUN THROUGH
8mm THK SINGLE GLAZED GLASS SPANDREL STEEL BRACKET SUPPORTING PERFORATED PANEL
7600
STEEL FRAME FOR GLASS AND PERFORATED PANELS
ALUMINIUM TRANSOM STEEL L-BRACKET
50% PERFORATED ALUMINIUM PANEL TO CONCEAL MECHANICAL LOUVRES STEEL RECTANGULAR HOLLOW SECTION
85
DETAIL "B" 30mm THK THERMAL INSULATION 15mm THK GYPSUM BOARD FALSE CEILING
2.1
180
A5.2
2.1
MECHANICAL FLOOR
A5.2
POLISHED CONCRETE FLOOR FINISH
DIAGONAL GRID STRUCTURE FACADE WITH INTEGRATED SINGLE GLAZED GLASS & PERFORATED METAL SHEET 1:50
DETAIL 'A' - FACADE TO FLOOR DETAIL (TYPICAL FLOOR) 1:10
SPANDREL GLASS PANEL INSULATION 150
ALUMINIUM LOUVRES SINGLE GLAZED GLASS FACADE PANEL (TINTED)
DETAIL "C"
50% PERFORATED ALUMINIUM PANEL TO CONCEAL MECHANICAL LOUVRES STEEL L-BRACKET
3800
DOUBLE GLAZED GLASS FACADE PANEL (CLEAR)
700MM STEEL MULLION SUPPORTING CONNECTING STRUCTURAL FRAMING TO TOWER PRIMARY STRUCTURE
150 x 50mm THK ALUMINIUM TRANSOM
2700
100x5mm THICK GALV. STEEL PLATE FIXED TO PRECAST PARAPET
400mm AIR PLENUM
FLASHING
150mm THK STEEL DIAGONAL FRAME TUBE SECONDARY STRUCTURE
30X50mm THICK BATTEN FIXED TO PARAPET
100mm THK STEEL RECTANGULAR HOLLOW SECTION
PLASTER CLADDING FIXED TO BATTEN 150mm SCUPPER DRAIN TO ENGR'S DETAIL 1:50 FALL CONCRETE SCREEDING TO ENGR'S DETAIL
TYPICAL OFFICE FLOOR
50mm THICK POLYSTYRENE INSULATION FOAM WATERPROOFING MEMBRANE
100 x 50mm THK ALUMINIUM TRANSOM ATTACHED TO STEEL L-BRACKET
1400mm x 200mm THICK R.C. PARAPET WALL FILLET
50% OPEN FIXED MECHANICAL LOUVRES
20mm CARPET FLOOR FINISH STAIRCASE CORE 01
GOODS LIFT 01
GOODS LIFT 02
STAIRCASE CORE 02
100MM THICK IN-SITU CONCRETE SCREED 150mm THICK PRECAST CONCRETE HALF SLAB TO ENGR'S DETAIL
300 x 600mm STEEL EDGE I-BEAM WITH VERMICULITE SPRAY COATING PRIMARY STEEL I-BEAM
200MM X 650MM GALV. STEEL SPANDREL TO ENGR'S DETAIL 300MM X 500MM STEEL I-BEAM TO ENGR'S DETAIL
300MM X 400MM STEEL I-BEAM TO ENGR'S DETAIL
100MM X 300MM GALV. STEEL L-PLATE TO ENGR'S DETAIL
HANGER ROD/ SUSPENDER
NUT & BOLT
CEILING SECTION CHANNEL TO MFTR'S DETAIL
DETAIL 'C'
30MM X 50MM GALV. STEEL L-PLATE
10mm THICK GYPSUM BOARD TO ENGR'S DETAIL
FALSE CEILING
300MM X 300MM THK STRUCTURAL STEEL FRAME BRACING
50mm x 10MM THK ALUM. LOUVRE
RECESSED LIGHTING TO SPECIALIST DETAIL MINERAL WOOL INSULATION
2.1 A4.2
OWN FACADE 50
DETAIL "C"
PART SECTION 1:50
2.2 A4.2
C 1:50 PART ELEVATION 1:50
R
2.1
D
A5.2
DETAIL 'B' - MECHANICAL LOUVRE TO FACADE DETAIL 600
1:10
STEEL EDGE BEAM
50% PERFORATED ALUMINIUM PANEL TO CONCEAL MECHANICAL LOUVRES STEEL COLUMN
STEEL L-BRACKET 300MM X 300MM THK STRUCTURAL STEEL FRAME BRACING ALUMINIUM GASKET 20MM THK CARPET FLOOR FINISH TO MFTR'S DETAIL 100MM HIGH STEEL PEDESTALS
100 x 50mm THK ALUMINIUM TRANSOM
200MM X 650MM GALV. STEEL SPANDREL TO ENGR'S DETAIL 300MM X 500MM STEEL I-BEAM TO ENGR'S DETAIL
300MM X 400MM STEEL I-BEAM TO ENGR'S DETAIL
STEEL PRIMARY BEAM
ALUMINIUM FLASHING WITH DRIP TIP UPSTAND CONCRETE
100mm THK IN-SITU CONCRETE SCREED
100MM X 300MM GALV. STEEL L-PLATE TO ENGR'S DETAIL
HANGER ROD/ SUSPENDER
SPLIT MULLION JOINT SMOKE FLASHING
NUT & BOLT
10MM THK ALUM. LOUVRE
CARPET FLOOR FINISH
8MM THK DOUBLE-GLAZED REFLECTIVE COLOURED GLASS TO MFTR'S DETAIL
200
30MM X 50MM GALV. STEEL L-PLATE
10mm THICK GYPSUM BOARD TO ENGR'S DETAIL
150mm THK STEEL DIAGONAL FRAME TUBE SECONDARY STRUCTURE
150mm THK CONCRETE HALF SLAB
2 X 8mm THK DOUBLE GLAZED GLASS
FIRE STOP
PRIMARY BEAM 600mm Ø STEEL COLUMN ENCASED IN CONCRETE
ALUMINIUM LOUVRE FOR SUNSHADING
90mm THK THERMAL INSULATION HANGER & ROD SUPPORT FOR SUSPENDED CEILING
EDGE BEAM
300 x 600mm THK STEEL EDGE BEAM STEEL ROD FOR LOUVRE SPAN SUPPORT
20mm THK VERMICULITE FIREPROOF COATING 400
300 x 600mm THK CASTELLATED STEEL PRIMARY BEAM
ALUMINIUM WINDOW FRAME
STEEL L-PLATE SECURING BEAM CONNECTION
DOUBLE GLAZED GLASS PANEL (CLEAR)
TYPICAL OFFICE FLOOR
CAST-IN CONCRETE FILLING CARPET FLOOR FINISH
50
100
300MM X 150MM GALV. STEEL RHS TO ENGR'S DETAIL
CEILING SECTION CHANNEL TO MFTR'S DETAIL
MINERAL WOOL INSULATION
150 x 50mm THK ALUMINIUM TRANSOM
200MM X 115MM GALV. STEEL TO ENGR'S DETAIL
100MM THICK IN-SITU CONCRETE SCREED 150mm THICK PRECAST CONCRETE HALF SLAB TO ENGR'S DETAIL
RECESSED LIGHTING TO SPECIALIST DETAIL
8MM THK DOUBLE-GLAZED CLEAR GLASS TO MFTR'S DETAIL 150MM X 50MM ALUM. WINDOW FRAME TO MFTR'S DETAIL
NUT & BOLT 250mm Ø FOR SERVICES TO RUN THROUGH
8mm THK SINGLE GLAZED GLASS SPANDREL
ALUMINIUM LOUVRES FOR SUNSHADING
300mm THK STEEL DIAGONAL GRID TUBE STRUCTURE FACADE
STEEL ROD SUPPORT FOR ALUMINIUM LOUVRES
150 x 50mm THK ALUMINIUM FRAME 8mm THK SINGLE GLAZED GLASS
SINGLE GLAZED GLASS PANEL (TINTED)
DETAIL "D"
STEEL DIAGONAL GRID TUBE STRUCTURE 30mm THK THERMAL INSULATION 15mm THK GYPSUM BOARD FALSE CEILING
STEEL RODS SUPPORTING LOUVRES 90 x 15mm THK ALUMINIUM LOUVRES FOR SUN SHADING 2 X 8mm THK DOUBLE GLAZED GLASS
2.3 A4.2
PART PLAN 1:50
CONCEALED BLIND PELMET
B
DETAIL "B" 1:50
Floor-to-floor Diagram
Exploded Floor to Floor Diagram 2.4 A4.2
ISOMETRIC 2.1 A5.2
DETAIL 'C' - MECHANICAL SLAB TO LOUVRE DETAIL & TYPICAL CEILING TO FACADE DETAIL 1:10
2.1 A5.2
DETAIL 'D' - PART PLAN DETAIL ON TYPICAL FLOOR DOUBLE GLAZED CURTAIN WALL TO EXTERNAL DIAGRID STRUCTURE 1:10
1
2 9000
3 9000
4 9000
5 6000
6 9000
7 9000
8 9000
ALUMINUM FLASHING TO MANUFACTURER'S DETAIL SLOPED AT 3 DEGREES
A 12000
A 145
135 9000
B
B 12000
1a A.5
C 9000
D 9000
E 12000
9000
C
ALUMINUM HOLLOW SECTION TO MANUFACTURER'S DETAIL SILICON SEALANT INFILL
D 12000
150MM X 200MM GALVANIZED STEEL HOLLOW SECTION TO MANUFACTURER'S DETAIL 150x50mm ANODIZED ALUMINUM FRAME TO MANUFACTURER'S DETAIL
E
ROOF PLAN
1 A.4
6MM THK TINTED GLASS TO ARCH SELECTION
MANUFACTURER'S SPECIFICATIONS
1b A.5
45600
1c A.5
ROOF LEVEL FFL 293.60
SCALE 1:500
1
2 9000
3 9000
4 9000
5 6000
6 9000
7 9000
1a
TOP OF CROWN SECTION
A.5
SCALE 1:5
1 A.5
OVERALL PART SECTION SCALE 1:500
8 9000
1a A.4
ALUMINUM HOLLOW SECTION TO ENG'R DETAIL
6MM THK GLASS TO ARCH SELECTION
6MM THK TINTED GLASS TO ARCH SELECTION
150x50mm ANODIZED ALUMINUM FRAME TO MANUFACTURER'S DETAIL
150x50mm ANODIZED ALUMINUM FRAME TO MANUFACTURER'S DETAIL
150MM X 200MM GALVANIZED STEEL HOLLOW SECTION TO MANUFACTURER'S DETAIL
150MM X 200MM GALVANIZED STEEL HOLLOW SECTION TO MANUFACTURER'S DETAIL
TINTED GLASS TO ARCH SELECTION
20MM THK PLASTER
ALUMINUM FLASHING TO MANUFACTURER'S DETAIL
110 MM THK PRECAST CONCRETE PARAPET
1b A.4
ROOF LEVEL
TELESCOPIC BMU IN USE
2 A.4
PRECAST GRILLE GUTTER COVER TO MANUFACTURER'S DETAIL
1a
TOP OF CROWN DETAIL
A.4
SCALE 1:50
SILICON SEALANT INFILL ELECTRICAL TO RUN DOWN ACCESS PANEL THROUGH HOLLOW STEEL FRAME
SCALE 1:500
50MM SCREED TO FALL TO VALLEY GUTTER @1:5O GRADIENT
JUNCTION BOX (POSITIVE END) TEDLAR FOIL
CUSTOM PROJECTED CLEAT
300MM X 300MM SOLAR PANEL
1
2 9000
3 9000
4 9000
5 6000
6 9000
7 9000
TINTED GLASS WITH ANTI REFLECTING COATING
GALVANISED STEEL ROUND HOLLOW SECTION WITH TO HDG600P7 COATING SYSTEM AS/NZS 2312:2004 FINISH
8 9000
200MM THK POLYSTYRENE INSULATION FOAM 2MM THK WATERPROOF MEMBRANE 250MM THK IN SITU CONCRETE SLAB
CONCRETE PLINTH
50 MM GALVANIZED STEEL DECK TO MANUFACTURER'S DETAIL
PRECAST PARAPET WITH PLASTER FINISH
JUNCTION BOX (NEGATIVE END)
ALUMINUM HOLLOW SECTION TO MANUFACTURER'S DETAIL
ELECTRICAL TO RUN DOWN ACCESS PANEL THROUGH HOLLOW STEEL FRAME
SCREED TO FALL TO VALLEY GUTTER @ 1:50 GRADIENT CASTELLATED BEAM TO ENGINEER'S DETAIL
3 A.4
FIN PLATE 300MM X 500MM CASTELLATED STEEL BEAM TO MANUFACTURER'S DETAIL
150MM X 200MM GALVANIZED STEEL HOLLOW SECTION TO MANUFACTURER'S DETAIL
POLYSTYRENE INSULATION FOAM TO MANUFACTURER'S DETAIL IN SITU CONCRETE SLAB GALVANISED STEEL DECK TO MANUFACTURER'S DETAIL
ROOF LEVEL
300MM X 500MM CASTELLATED STEEL BEAM TO MANUFACTURER'S DETAIL
TELESCOPIC BMU WHEN KEPT
1b
CROWN PARAPET AND BRACING
1b
PHOTOVOLATIC PANEL SECTION
1c
SECTION THROUGH PARAPET
SCALE 1:500
A.4
SCALE 1:50
A.5
SCALE 1:5
A.5
SCALE 1:10
CONCEPT I
CONCEPT II
CONCEPT III
CONCEPT T COMMERCIAL PROPERTY TIMBER PAVILION DATE OF COMPLETION 2015 COUNTRY MELBOURNE, AUSTRALIA DESCRIPTION Compromising of three timber-like tree towers, Concept T is a multi-use pavilion that is situated between the MSD building and Union House. The sky bridge that connects all three towers together is a great vantage point to take in the best views of the campus. Designed as a hub for students and teachers to socialize, gather or just to chill, Concept T is a modern interpretation of how pavilions should be.
END