Caroline-Portfolio 2018

Page 1

2015-2018

PORTFOLIO CAROLINE

SINGAPORE UNIVERSITY OF TECHNOLOGY AND DESIGN

ARCHITECTURE & DESIGN


A passionate architecture graduate who enjoys to work and exchange knowledge in a group of inter-disciplinary professionals. In the pursuit of creating a more sensible work in today’s society

CAROLINE ARCHITECTURE GRADUATE A 704 Upper Changi Road East #03-07, Singapore, 486834 T +65 87818107 E caroline@mymail.sutd.edu.sg

EDUCATION

2017 - September 2018

Singapore University of Technology and Design

2014 - 2017

Singapore University of Technology and Design

May - September 2015

Massachusetts Institute of Technology

2014

Anglo-Chinese Junior College

Master of Architecture

Bachelor of Science (Architecture Sustainable Design) Magna cum Laude (GPA 4.44/5.00)

Represented SUTD in Global Leadership Programme in Boston

GCSE A Level

SKILLS Rhinoceros Grasshopper AutoCAD, Revit Karamba Python, C# Kangaroo

Adobe Suites (Photoshop, Illustrator, Indesign) Vray SketchUp DIVA+ArchiSim DesignBuilder


RESUME

ACHIEVEMENTS AND AWARDS May 2017 - January 2018

SUTD Graduation Show 3

December 2017

RTF Sustainability Awards 2017

December 2017

Asia Young Designer Award 2017

March 2017

Keppel Awards of Excelence 2017

March 2017

ASD Core Design Award 2017

2016-2017

SUTD Honours List

September - December 2015

SUTD Undergraduate Research Programm

2009-2017

ASEAN Scholarship

PROFESSIONAL EXPERIENCE

Design Team Co-Head Led a team of six from concept ideation, fabrication, and installation of 3D-printed joints and tables in National Design Centre, Singapore for a twoweek public exhibition

First Winner (Housing Concept) Combined students’ studio projects on Micro-Towers Option Studio

Architectural Gold Winner Represented Singapore in AYDA Summit with 14 other countries

Awarded Top Student in Architecture and Sustainable Design Pillar, Junior Year 2017

Awarded by recommendation of the Committee in Architecture and Sustainable Design Pillar, Junior Year 2017

Awarded to top 10% of cohort in Sophomore and Junior Terms

Student Assistant Assisted Prof. J.A. Jakubiec in researching and cataloguing lighting materials in architectural research

Awarded by Ministry of Education, Singapore (2009-2017)

September - December 2017

Red Bean Architects

February - April 2017

Student Researcher

September - December 2016

Teaching Assistant for Architecture Core Studio Term 4

September 2016

Czarl Architects

Architectural Intern Managed concept ideation and drawing during tender process for multiple projects, including Delta Sports Complex and a landed property in Singapore

Supported professors in planning, designing, and fabrication of an installation for iLight in Marina Bay 2017

Supported professors in leading a studio in terms of guiding students, giving feedback, and imparting technical skills

Architectural Part-Timer Worked in a team of four for an international competition project

May - August 2016

CPG Consultants Pte Ltd

Architectural Intern (Studio A) Contributed in concept ideation and research during tender process of multiple school projects locally and internationally

03



05

CO N T E N T

ACADEMICS

01

FLEX TOWER

02

MADI RIVER: HYDRO-TERRITORIES

03

WINDING HILL

04

LENS

05

RE-FIBER

Option Studio 2

Option Studio 3

Core Studio 3

Core Studio 2

Advanced Material Computation

COMPETITION ENSO CEMETERIAL MONUMENT

Tokyo Vertical Cemetery Competition 2016

06 EXHIBITION

OTHER WORK OTHER WORK 2015-2018

09

07

KALEIDOSCOPE MONOLITH

08

GS3: METADATA

i Light 2017

SUTD Graduation Show 2018



FLEX TOWER

07

01 FLEX TOWER Micro-Towers: Big Ideas on Tiny Footprint Individual Project Instructor: Michael Budig Course: Option Studio/ Term 7

The studio focused on wood as a material and for the design of micro-towers. It investigated in alternative construction methods, inspired by the idea of re-inventing wood construction and revitalising a dormant industry sector that has disappeared from urban construction. Wood, composite materials and hybrid construction systems will be explored to envision new concepts of vertical construction. This studio aimed to unlock the enormous potential of wood for future applications by recording a material and craft with a long history, re-conceptualising it and projecting recordings into entirely new concepts.

Awarded First Winner (Housing Concept) in RTF Sustainability Awards 2017 as part of combined students’ studio project s


Extreme angle of bending

2 kerfs

4 kerfs

6 kerfs

8 kerfs

10 kerfs

12 kerfs

Different angle of bending based on layers

The first part of the project seeks to investigate the bending property of the wood through kerfing. It is found that through kerfing and then lamination of layers of wood sheet, a sturdy structure can be created and has the potential to become structural system that makes up a tower. One interesting property found in this experimentation is the ability of the structure to bend in dual direction. THIS PAGE Material exploration OPPOSITE PAGE Catalogue of structural elements


FLEX TOWER

Network of circuit as principal of structural DNA of tower

2 layers

1 point

4 layers

16 layers

2 layers

2 points

4 layers

16 layers

4 layers

multiple points

16 layers

099


Vertical load transfer

Counter-balance of forces

Counter-balance of forces

THIS PAGE - BOTTOM Axonometrics of tower elements OPPOSITE PAGE Render of tower


FLEX TOWER

11


MADI RIVER: HYDR


MADI RIVER

13

New Built Bridge

02 Madi River: Hydro-Territories Landscape Urbanism Project Partner: Chew Cheng York, Daniel Tay, Tan Wei Lin Instructors: Eva Castro, Federico Ruberto Course: Option Studio / Term 9

The unit has “landscape urbanism” at its core methodology and focuses on mapping/indexing Nepal’s rural areas, their risks, trends, political and geopolitical actors that de ne their material logics and structures. With this methodology we aim at defining synthetic design strategies — cutting through data— to develop “autonomous” communities, locally grounded but unconditionally committed to see nature as a “second (technological) nature”— committed to invent the possibility of a different, and common, “future”. Specifically, the unit’s aim is to investigate “sustainable” logics of development of a community from 20000 to 500000 people detached from main centers of urbanization that must utilize the site as its financial opportunity to determine its own, relative, independence, therefore to be able to decide its own rules of development: the synthesis of local material opportunities and socio-cultural demands.


Socialist Structure (Local Governance & Shared Resources)

TERTIARY VORTEX (SEMI-PUBLIC)

Land Acquisition for Agricultural Production

LAND FRAGMENTATION NGO DONATIONS Investment of Money

PRIMARY VORTEX (PUBLIC GOOD)

ENERGY

COLLECTIVE LAND OWNERSHIP

Investment of Labour for Public Infrastructure

Food Security

External Trade as a Means of Obtaining Resource

AUTONOMOUS SELF-SUFFICIENCY

RUPEES

LOCAL ECONOMIES

SECONDARY VORTEX

Exchange of Money

EXPANSION OF INFRASTRUCTURE AND URBANISATION

DEVELOPMENT OF INDUSTRIES

Towards self-autonomy Riding on the technology development to harness sustainable hydro-energy in Madi river, our scheme aims to create an autonomous community in Nepal. With the help of electricity generated from the hydro-power technology, we foresee the use of sustainable power as capital and source of empowerment in the community.


MADI RIVER

SETTLEMENT TYPES

NATURAL RESOURCES AND GROUND CONDITIONS

LOCAL ECONOMIES (PRIMARY PRODUCTION)

INDUSTRIALISATION (SECONDARY PRODUCTION)

17,400 people

50,000 people

Wet Agriculture

INFRASTRUCTURE (SECONDARY PRODUCTION)

200,000 people

HYBRID ECONOMIES

500,000 people

ROAD NETWORKS ELECTRICAL NETWORK

VORTEX

WATER NETWORK

RIVER AND TRIBUTARIES STRAW RICE PLAINS

GRAINS

FUNICULAR TRANSPORTATION

TOURISM

OIL MULCH

BIODIESEL

ARABLE SOIL Dry Agriculture

EGGS CHICKENS

MARKETPLACE PROCESSING FACTORIES

MEAT MANUFACTURING INDUSTRIES

DOWN SURFACE RUNOFF

JATROPHA

MOUNTAIN

MANURE

POWER GENERATION PLANTS

FODDER POTATO CLIMATE

SEEDS HUSKS

STARCH

FLOUR

FORWARD CONNECTION BACKWARD CONNECTION

System of production Our intervention works in tandem with time over a series of phases. Instead of developing the local community at the expense of the natural environment, the proposal seeks to harness the hydropower that the site has an abundance of, to provide the electricity for infrastructural development and in that process, filtering and cleansing the river as it passes through the vortex dams. The initial phase will be to utilise the indexical studies to identify potential sites within the plains for microdam-power generation. These power nodes will then be the basis of which the infrastructural grid will be placed upon. The electrical capital that these small interventions contribute will then be the cornerstone to sustain productive economies, which will then provide the investment for the subsequent development of infrastructure and the economy - an autonomous and sustainable economy generated by the landscape.

The secondary phase will be to develop the infrastructure for vertical expansion - upwards from the river. By converging at the midpoint alongside the slope of the mountainous terrain, this continuous scaffolding provides a network for the transportation of resources (Archigram’s Plug-in City) along the challenging terrain and installs the structural framework for the construction of buildings and productive infrastructure (the harvesting solar and wind energy). Rather than an erection of a monolithic linear megastructure, the proposal culminates in the coexistence between the local communities and the natural landscape. Alongside the Metabolist ideologies of the symbiotic relationship between the city and the user, the intervention preserves the existing association between the locals and the landscape in a co-existence of mutual benefit, whereby the orchestration of the strategies for the unique site conditions impose an ecological system to craft the scenario of a possible utopia in the long term.

15


vv

Topography condition Sectional studies of different types of land conditions and relatioships are done to understand the site better. It affects the treatment of land in meshing phase


KALEDOISCOPE MADI MONOLITH RIVER WINDING HILL

17

Indexical studies Analysis of different geographical and social conditions of the site are done through the use of different parameters affecting specific characteristics of the site. The studies shape the design strategies proposed on the site.

Settlement clusters at risk of flooding Settlement cluster

Proximity

Scaling Factor 400 Scaling Factor 300 Scaling Factor 200

100m 200m 300m

0

Settlement clusters

125

Elevation 0-15m 15-100m 100-500m >500m

625

1250

Potential locations for vortex

Surface runoff

Potential area for urban development


vv Vortex The Madi River is indexed for sites that have the potential to accommodate the Vortex Water Power Plant, firstly based on river location that has sufficient water flow. The catalogue shows different variations of arrangement of vortexes in clusters, mainly taking into consideration the inlet and outlet of the water, to ensure sufficient flow of water for electricity production. 50m

50m 50m 50m

50m

Vortex catalogue 50m

50m

50m

Width Widthofof divergent divergent channel (X)

50m

50m 25m

50m 25m

channel (X)

Height Heightofof divergent divergent channel (Y) channel (X)

50m

Width of divergent 100m channel (X)

100m

Lengthofof divergent divergent Lenght channel (X) channel (X)

50m 25m

50m

50m Height of divergent 25m channel (Y)

Spacingofof divergent divergent Spacing channel (X) channel (X)

Lenght of divergent channel (X) Spacing of divergent channel (X) 100m

100m

50m 50m

Combination of Combination of width width and height and height

50m

Combination of width and height

100m

100m

50m 25m

Combination of width, height and spacing

50m 25m

Combination of width, height and spacing

100m

100m

50m 50m

50m 50m

Combination of width, height, spacing and length

100m

50m 25m

Combination Combinationof of width, width,height, height, spacing and spacing, and length length

100m

50m 25m

100m

100m

50m 25m

50m 25m

y x

Main riverRiver 120° River 120° Main Main Inlet InletInlet 130° 130° Outlet Outlet 140° Outlet 140° VortexVortex Vortex 150° 150°

y x

120° 130° 140° 150°

Section

Main River Inlet Outlet Vortex

Secondary layer infrastructural spine that Main river

Biodiversity pond

Existing houses

permeates the existing layer of settlements

within the cluster

above ground lightl

Primary vortex

Primary vortex

cluster

cluster

Secondary vortex

Water

New building

network

typology

Existing agriculture Tertiary vortex as area within the cluster

a DIY initiative


MADI RIVER

Tertiary vortex

Secondary vortex

Primary vortex

Primary vortex cluster

Water runoff

0

125

625

1250

19


vv

house bridg e paddy field

rain wate r collection rainwater collection roof/pa rk

irrigatio n

house

vortex house

25-20 10-15

irrigatio n

Agriculture infrastructure and land treatment Sectional studies of different types of land conditions and relatioships are done to understand the site better. It affects the treatment of land in meshing phase

10-15 rainwater collection roof/pa rk

paddy field

potato

house

house

meeting point/ shortcut

potato

meeting point/ shortcut

potato

irrigatio n

potato

PUBLIC SPACE/AMENITIES IRRIGATION PUBLIC SPACE/AMENITIES POWER IRRIGATION ROAD POWER PUBLIC SPACE/AMENITIES ATTACHMENT ROAD IRRIGATION ATTACHMENT POWER ROAD ATTACHMENT

line as infrastructure line as infrastructure

A segment of main spine

0-15 0-15 0-15

line as infrastructure

S1 S2

meeting point/ shortcut

potato

potato

she lter

potato

she lter

potato

15-0

rainwater collection

potato

rainwater collection

potato

rain wate r collection

bridg e

S3

10-15 15-0

bridg e

rain wate r collection

S4

S5

vortex

bridg e

S6

rain wate r collection

vortex

25-20 25-20 25-20

S7

vortex

paddy field

paddy field

potato

rainwater collection roof/pa rk

house

rainwater collection roof/pa rk

house

S8

potato field

she lter

20-25 15-0 20-25 rainwater collection

cooperative

potato

market

paddy

market

paddy

house rainwater collection roof/pa rk house

paddy field

house

irrigatio n

potato field

cooperative

S9

irrigatio n house

20-25

irrigatio n

potato

10-15 10-15 10-15

potato

line as infrastructure line as infrastructure

Sections

0-15 0-15 0-15

line as infrastructure

S1 Vortex 0o-15o bridg e

bridg e

vortex

bridg e

potato

she lter

potato f ield

potato

she lter

15-0 15-0 15-0

she lter

25-20 25-20 25-20

potato f ield

jatropha/bamboo

rainwater collection

potato

rainwater collection

potato

S7 Production plant 30o-20o

rainwater collection

potato

rainwater collection roof/pa rk

house

rainwater collection roof/pa rk

house

coope rative

S5 Market 20o-25o

house

house

potato field

cooperative

market

paddy

potato field

cooperative

market

paddy

jatropha/bamboo

S8 Water treatment 25o-20o

potato field

cooperative

market

livestock

open space

house

30-20 15-15 30-20

coope rative

open space

house livestock

product ion plant

M&C

tra nsformer product ion plant

M&C

25-25 product ion plant

25-25 potato

meeting point/ shortcut

potato

potato

meeting point/ shortcut

potato

potato

meeting point/ shortcut

potato

S6 Industrial area 15o-15o potato f ield

potato f ield

potato

irrig ation

potato

10-15 10-15 10-15

M&C

tra nsformer

paddy

irrigatio n

potato

house

tra nsformer

house rainwater collection roof/pa rk house

S3 Meeting point 10o-15o

paddy

open space

30-20

20-25 20-25 20-25

irrigatio n

irrigatio n

market

livestock

jatropha/bamboo potato

15-15

coope rative

potato

rain wate r collection

S2 Rainwater collection roofpark 25o-20o paddy field

potato

rain wate r collection

vortex

paddy field

potato

meeting point/ shortcut

cooperative

rain wate r collection

vortex

paddy field

meeting point/ shortcut

meeting point/ shortcut

potato

PUBLIC SPACE/AMENITIES IRRIGATION PUBLIC SPACE/AMENITIES POWER IRRIGATION ROAD PUBLIC POWER SPACE/AMENITIES ATTACHMENT IRRIGATION ROAD POWER ATTACHMENT ROAD ATTACHMENT S4 Sheltered sidewalk 15o-0o

15-15 potato field potato f ield

15-15 15-15 15-15

water trea tment

25-25 10-20

water trea tment

S9 Waste management 10o-20o

coope rative

open space

house

coope rative

open space

house

10-20 potato

livestock

livestock

potato

waste manageme nt

potato f ield

coope rative

potato

irrig ation

open space

house livestock

market irrig ation

water trea tment

waste manageme nt water collection

potato

she lter

potato

she lter

potato

she lter

15-0 15-0 15-0

rainwater collection

potato

rainwater collection

potato

rainwater collection

potato

jatropha/bamboo

jatropha/bamboo

jatropha/bamboo

30-20 30-20 30-20 product ion plant

product ion plant

product ion plant

market

10-20 water collection

M&C waste manageme nt

M&C

market

tra nsformer M&C tra nsformer water collection

20-25 20-25 20-25

15o 20o

5o

potato field

cooperative

market

paddy

potato field

cooperative

market

paddy

potato field

cooperative

market

15o

tra nsformer

Public area

25-25 25-25 25-25 potato

paddy

0o

15o

potato

Public area

potato

potato irrig ation

potato

25o

10o potato f ield

potato f ield

potato f ield

15-15 15-15 15-15

Agricultural area Agricultural infrastructure Main vehicular road Agricultural infrastructure Agricultural area

coope rative

open space

house

coope rative

open space

house

coope rative

livestock

livestock

open space

house livestock

Type A - Main agricultural area

jatropha/bamboo

product ion plant

jatropha/bamboo

product ion plant

jatropha/bamboo

product ion plant

tra nsformer

10-20 10-20 10-20 Type B 1- Public area waste manageme nt

market

waste manageme nt

market

water collection

water collection

M&C

tra nsformer

irrig ation

M&C

Main vehicular road

Main vehicular road

water trea tment

water collection

M&C

tra nsformer

water trea tment

waste manageme nt

30-20 30-20 30-20

potato irrig ation water trea tment

market

Industrial/houses

Type B2 - Settlement/industrial area


KALEDOISCOPEMADI MONOLITH RIVER

Primary vortex Secondary vortex Tertiary vortex

Processing Storage Nursery

Main river Secondary road Replaced road

New road Agricultural infrastructure in new road Agricultural infrastructure in replaced road

Potato Rice Jatropha

0

125

625

1250

21


Densification of existing cluster A circular void test is done on the site for the availability of land area to construct new buildings. These buildings will house mixed programs such us residential, commercial, along with civic service and infrastructure.

50m

50m

50m

50m

50m

50m

50m

100

50m

50m

50m

50

100

100

180 60 180

100

60

50

100

195

100

50 100

50

100 185

100 115

100 40

100

80

155

80 80

40

80 100

1. Existing settlement

2. Identify voids

3. Cull circles that intersect with

4. Identify number of circles for

existing runoff

projected population size

5. Infrastructural spine

40 30 30

30 30

40

30

30 30 40 30

R1

30 40

R2

40

30

30

30 40

40

30 30

50

50

30

30

50

50 40

40 30

40

50

40

40

30 30

40

50 40

50

50

40

40 30

30

R3

50

40 50

30

40

50 50

40

40

50

50

40

40

R4

40

30

50

50 40

40

30

40

50

50

50

50

50 50

30

40

R5

30

30

40

40 50

50

50

40

50 30

50

30

30

R6 50

50

30

40

30

50 50

50

50 30

R7

50 50

30 50

R27

50

30 40

50

R8

R26

50

30

50

40 50 40

40

R9

50

40 50

30

40

30

30

40

30

50

30

R10

30

30 30

R25

50

30 50

40

30 30 30

30

50

R11

30

40

40

30

50

30 30

50

30 30

R24

30

50 40

40

30 40

40

50

30

50

R12

40

R23

40

30 30

30

50

50

40

50 40

50

40

50

30 40 30

30

R21

R13

40

50

30

40

50

40

40

30

R22

30 40

40

30

R20 30

50

Main road

40

40 40 30

50

R19

40

Main river

50

30 50

30 50

40

Primary vortex

50

R14

30 30

30

50

Bridge

30 30 40

R16

30

R15

R18

30

30

Primary roads Infrastructural spine Surface runoff

R17

40

30 30 30 40 40 30

Residential

1. Existing settlement

Industry

Commercial

3 Identifying voids, surface runoff Circles are overlayed with the surface runoff incident on the settlement cluster, identifying the unbuilt areas which contribute to the surface runoff of the terrain within the cluster. Within these void spaces, the circles that have current runoff are culled from the list of circles, preserving the contribution of natural runoff to the vortexes.

R1 R2

R3 R4 R5 R6 R7 R27 R26

R8 R9 R25

R10 R11

R24

R12

R23

R21

R13 R20

R22 Main road

R19

Main river Primary vortex

R14

Bridge R16 R15

R18 R17

Primary roads Infrastructural spine Surface runoff Residential

2. Primary vortexes and roads

4. Residential growth

Primary roads originate from the bridges, whihch connect both sides of the river through the primary vortexes, passing through settlement clusters and towards others, connecting adjacent clusters.

Residential and infrastructural programmes will be allocated to the remaining circles, a strategy to contain growth.

Industry

Commercial


15

23

MADI RIVER

R1 R2

R3 R4 R5 R6 R7

R27

R27

R26

R26

R8 R9 R25

R10

R24

R11 R12

R25 R24

R23

R23

R21 R20

R21

R22 R13 R20

R19

R22

Main road Main river

R19

Primary vortex R14 Main

R16 river

Primary vortex Bridge

Bridge

R18

Main road

R16

R17 R15

R18 R17

Primary roads Infrastructural spine Surface runoff Residential

Industry

Commercial

5. Infrastructural spine Additionally, circulation is established from the infrastructural spine, linking the buildings to a network of adjacency above the ground plane. This provides more opportunities for communal interaction across the entire settlement. This spine is also responsible for the channelling of water (from the main river) and electrical power from the primary road to the buildings.

Primary roads Infrastructural spine Surface runoff

Residential

0 100

250

Industry

Commercial

1000m



WINDING HILL

25

03 WINDING HILL

Urban Living in Bukit Batok Individual Project Instructor: Oliver Heckmann Course: Core Studio/ Term 6

The project brief calls for a design of a social housing units that form a reaction to the urban condition in the Bukit Batok area. Located in the uneven topography, this project aims to seek relation to its surounding environment. The hill condition of the site allows a type of massing that can respond organically to the terrain; hence, the shape of the massing resembles a band of ribbon that weaves around the topography. This ribbon is then being molded more by the intention to create multiple connections to the surroundings. This gesture creates a series of open courtyards and private backyards that can also shape the daily activities of the inhabitants. Zooming in, the unit also has the concept of inner wall that tries to emulate the continuity of the massing. Every unit has two inner walls that not only act as the spine of the entire building, they also create zoning inside each units. Furthermore, since the distance of these walls vary as they span the building, they create different types and functions inside the building. Awarded Architectural Gold Winner in Asia Young Designer Award 2017


Low - r i s e Hig h D en sit y Hab it at io n Co n cep t In t he U rb an Hill

CIR CULATIO N O UTD O O R IN D O O R

Circulation network

PRO GRA MMES

OUTDOOR INDOOR

EDU CAT ION F&B TRAN S P ORT O FFI CE S RETAI LS H EALTHCA R E

P R O GR AM M ES ED UCATIO N F &B TR AN S P O RT O F F ICES R ETAILS HEALTHCAR E

CIRCULATION OUTD OOR IND OOR

Low-rise typology

SOL A R R A DI AT I ON STUDY

SHAD OW ANALYSIS

LO W- R IS E TY P O LO GY

PROGRA M M E S ED UCATION F&B TRA NSPORT OF F ICES RETA ILS HEA LTHCA RE

BUKIT BATOK UR B A N H O USI NG U RBA N A NA LY SIS 1: 2000

N

N

Low - ri s e H i g h D en s i t y H ab i t at i o n Co n c e p t SOLAR RAD IATION STU DY I n t he U r b an H i l l

LO W-RI S E T YPOLOGY

LOW-RISE TY PO LO GY

U RBA N A NA LYS IS 1 :2000

N

W I ND FLOW ST UDY

W IND FLOW STU DY CIRCU LATION SY STEMS

C I RC U L AT I O N O U T DO O R I N DO O R

S H A DO W A N A LY S I S CON C EPT

STA RT BY ENTW I N I N G T H E TOPOGR A PH Y

Program network

P RO G RAM M E S

C IRCU LATION ACCESS

M ASSING

E DU CAT I O N F&B T RAN S P O RT OFFICES RE TAI L S H E ALT H CARE

S O L A R R A DI AT I O N ST UDY

Green areas


WINDING HILL

0

27

10

20

SITE SECTION 1:500

The shape of the massing resembles a band of ribbon that weaves around the topography.

This ribbon is then being molded more to create multiple connections to the surroundings.

Varying the skyline of the massing for different programs and views

The result is the creation of inner and outer courtyard connected to the entrance of the landscape 0

10

20

50

SITE SECTION 1:500

0

10

20

50

SITE SECTION 1:500

N N N

0

10 0

10

SITE PLAN 0 PLAN10 1:500SITE 1:500

0

SITE PLAN 1:500

20 20

20

10

20

50 50

50


N

0

10

SITE PLAN 1:500 SINGLE BEDROOM UNIT

0

1

2

5

UNIT FLOOR PLANS 1:50

ENTWINING THE TOPOGRAPHY

RE TAIL S HE ALTH CA R E E DUCATION F &B T RANSPORT Residential Commercial Communal

ADJUSTING THE HEIGHT BASED ON TOPOGRAPHICAL UNDULATION

BREAKING UP THE MASS TO REACT TO THE SITE

MODU IN RE

RESIDENTIAL UNITS TWO - BEDROOM UNIT

COMMERCIAL UNITS COMMUNAL SPACES

CIRCULATION SYSTEMS

N

0

10

20

SITE PLAN 1:500

RESIDENTIAL UNITS COMMERCIAL UNITS COMMUNAL SPACES

RETAI L S H EALTH CARE EDUCATI ON F& B TRANS PO RT

CIRCULATION SYSTEMS

PROGRAMMATIC RELATIONS

Programmatic relations

ENTWINING THE TOPOGRAPHY

Agglomeration of units,

BREAKING UP THE MASS TO REACT TO THE SITE

ADJUSTING THE HEIGHT BASED ON TOPOGRAPHICAL UNDULATION

MODULATING THE TOPOGRAPHY IN RELATION TO THE URBAN MASSING

TWO INNER WALLS AS THE SPINE OF THE BUILDING LOAD BEARING COLUMNS ON THE PERIMETER

RESIDENTIAL UNITS COMMERCIAL UNITS COMMUNAL SPACES

RETAILS H EALTH CAR EDUCATIO NE F&B TRANSPORT LOAD-BEARING SYSTEM

CIRCULATION SYSTEMS

NS

Load-bearing system

Private units Communal units

Circulation system

50


WINDING HILL

29

Ground level N

0

4

10

20

AGGLOMERATION OF UNITS GROUND FLOOR PLAN 1:200

0

4

10

20

UNROLLED SECTION 1:200

Unrolled section


WALL CATALOGUE

wall

opening

cabinet

kitchenette

table

desk

piano

laundry

sofa

toilet

stairs

bathroom

stairs

ONE-BEDROOM UNIT

TWO-BEDROOM UNIT

THREE-BEDROOM UNIT

Level 2 N

0

SITE PLAN 1:500 0

FUNCTIONS EMBEDDED IN THE CORE WALLS

10

4

20

50

10

20

AGGLOMERATION OF UNITS

ENTWINING THE TOPOGRAPHY

BREAKING UP THE MASS TO REACT TO THE SITE

ADJUSTING THE HEIGHT BASED ON TOPOGRAPHICAL UNDULATION

MODULATING THE TOPOGRAPHY IN RELATION TO THE URBAN MASSING


WINDING HILL

Three-bedroom unit

31

THIS PAGE Floor plans of typical units OPPOSITE PAGE Catalogue of inner walls

One-bedroom unit

0

1

2

5

Two-bedroom unit


THIS PAGE Photographs of 1:200 model OPPOSITE PAGE Photograph of 1:500 massing model


WINDING HILL

33



LENS

35

04 LENS SUTDx Campus Extension Individual Project Instructor: Christine Yogiaman Course: Core Studio/ Term 5

This project asks for the design of a satellite SUTD campus building in the intersection of Bras Basah, Prinsep, Orchard and Handy Road; housing flexible space for public events, recruitment efforts, providing basic classrooms/learning spaces, lecture theatres, exhibition spaces, cafe and administrative offices. The building is a response to the linearity of the pedestrian walk along the site. It intends to create a space that progresses together with the pedestrians. It involves the play of lenses throughout the building, to create the changing illusion of the interior of the building, and even beyond the building; outwards and inwards. The building acts like a lens that may amplify programs inside (by making objects look closer) or reduce its significance (by making objects seem further). As pedestrians walk along the edge of the building, they are exposed to the changing spectacle of the activities.


Convex lens matrix

Concave lens matrix

Studies done on different lenses to show how they affect the immediate surrounding from inside and outside the building.

Lines of view across site


LENS

37

E

D 0

10

20

50

C

SITE SECTION 1:500

B

ION IBIT N EXH TIO A DUC PRO MBLY E B ASS E C RAG N1 STO SIO D CUS N2 DIS SIO CUS A CE DIS SP RK WO E

G

F

N 0

10

5

15

20

25

N

1

3

2

5

4

OPPOSITE PAGE Lens study and site analysis THIS PAGE Site plan and plan

Level 3 N

0

SITE PLAN 0 1:500

10

20

2

4

50

6

8


0

10

20

50

SITE SECTION 1:500

Level 2

Ground level N

0

SITE PLAN 0 1:500

10

20

2

4

50

6

8


LENS

39

THIS PAGE Views from outside and inide building


0

2

4

6

8

10

THIS PAGE Short sections OPPOSITE PAGE Photographs of final 1:100 model


LENS

41



RE-FIBER

43

05 RE-FIBER Beam Reinforcement Optimisation Group Project Instructor: Sawako Kaijima Course: Advanced Material Computation/ Term 7

Based on the studies on rebar and carbon reinforcement in concrete, there is a potential to redesign rebar geometry in a beam to optimise its tensional performance down to the path and direction where tensional force travels. 2D typology optimisation is used as a main method to analyse the stress lines. This study also seeks to explore the new way of fabrication in the use of particles in the reinforcement method. The way suggested is to use magnetic field to redirect and redistribute the magnetic particles to achieve the intended stress lines generated and analysed on the first part of the study.


PROBLEM STATEMENT WASTAGE ISSUE There is an extensive amount of rebars utilised in the construction industry today. There is therefore a need to mitigate this wastage by optimising the rebar reinforcements.

PRECEDENT STUDIES CONCRETE REINFORCEMENTS Reinforcements counter the relatively low tensile strength in concrete. Tthe reinforcements generally are layered at the bottom of the beam where tension forces are high. This will reduce the crack lines formed.

Compression (concrete) Neutral axis

Reinforced concrete are composite material composing of high tensile steel rebar embedded in concrete to counteract concrete low tensile strength. Steel rebars are placed in regions of concrete with high tension to resist tension and prevent structure failure or cracking.

Crack pattern in concrete under load, with no reinforcement

Tension (concrete) Reinforcing steel

Crack pattern in concrete under load, with steel reinforcement

CARBON FIBER REINFORCEMENT CONCRETE Carbon fibers are typically 10 Âľm in diameter when added into concrete. It is uniformly distributed and randomly oriented. Carbon fibers also have low coefficient of thermal expansion, hence would be suitable as a fiber composite used as reinforcements for concrete.

3D TOPOLOGY OPTIMISATION FOR COMPRESSION AND TENSION Topology optimization has as a means of automating the development of minimum strain energy strut-and-tie reinforced concrete model, which can lead to improved structural behavior. (a) Design domain

(b) Optimized model using linear elastic continuum elements only

(d) Optimized model using hybrid topology optimization

(e) Cutaway view of hybrid solution

(c) Optimized model using linear elastic truss elements only

(f) Details of reinforcement at the top of (e)

Figure 16: Topology optimizaed solutions: (a) concrete block design example; (b) and (c) traditional; solutions indicate only compressive load paths; (d)-(f) the hybrid model correctly indicates the presence of tensile stresses as a result of load spreading as indicated by the placement of the steel

References: http://www.concrete.org.uk/fingertips-nuggets.asp?cmd=display&id=648 Yang Yang, S.M.ASCE1; Cristopher D. Moen, M.ASCE2; and James K. Guest, A.M.ASCE3


RE-FIBER

CONCEPT GENERATION Based on the studies that have been studied, there is a poterntial to redesign rebar geometry in a beam to optimise its tensional performance down to the path and direction where tensional force travels.

Original rebar grid layout

Iron fillings and magnetic field lines

IRON FILINGS ORIENTATING ITSELF IN THE DIRECTION OF THE MAGNETIC FIELD LINES Carbon fiber is a resistant-magnetic material but can be coated with Fe coating via the solgel process. This would introduce magnetic properties in the fibers. By using the magnetic properties of these fibers, the fibers would be able to orient themselves in the direction of the magnetic field. This would greatly optimise the carbon fibers in the direction of the stress lines of the beam.

Optimized layout

Stress lines experienced by a concrete beam

45


DESIGN APPROACH Running topology optimisation with various support conditions will give us stress lines that is experienced by the beam. As reinforcement needs to cater for only tensional lines, simple FEM analysis is run to get an idea about the regions where it undergoes tension and compression. After the tensional region is identified, lines undergoes compression are then removed, and the tensional stress lines are optimised with a treshold of only those that are undergoing more stress.

CLASSIFICATION OF EXPLORATION After exploration of the effect of location of supports on the beam, we classify them into libraries. The way of classification is according to the number of set of magnets. All stress line with similar gradient will be considered the same and requires one set of magnets. One set of magnets will require two magnets, two set will require three, three set will require four. For efficient fabrication, results from the least set of lines is selected so that less magnets are used during fabrication.


RE-FIBER

FABRICATION PROCESS

01. Setting template for iron filings

05. Pouring in a 4mm layer of resin

02. Filling in the iron filings into the template

06. Let it cure for approximately 30 minutes

03. Arranging magnets on two sides of mold based on the

07. Continue the same steps for subsequent layers

04. Directing iron filings with a point magnet to give a

08. Cast beam

general pattern of the tensile stress line

general direction

47


PROTOTYPE

THIS PAGE - TOP 1:10 Prototype of simply-supported beam THIS PAGE - BOTTOM 1:10 Prototype of cantilever beam


RE-FIBER

PROTOTYPE

THIS PAGE - TOP 1:5 Prototype of simply-supported beam THIS PAGE - BOTTOM 1:5 Prototype of cantilever beam

49



ENSO CEMETERIAL MONUMENT

51

ROOF TOP GARDEN Includes commercial attractions intended to siphon off patrons (non columbarium visitors) from ground level

GLASS PODS An externalized staircase that leads up or down. It is through this act of traversing that the visitor is caught by a moment of liminal experience as he stood at the threshold of the glass landing, comtemplating his very own mortality.

CRYING ROOM A catharsis that is necessary for the healing of the individual . The room is lit minimally and surrounded by sounds of water trickling down the periphery of the space so as to drown out the crying of the solitary mourner.

TRANSITIONAL FLOOR Affords patrons a serendipitous encounter of cemeterial space while a mandatory descent between the 2 terraced parks to contemplate

COLUMBARIUM SPACE The columbariums are spaced out into smaller enso volumes to create a semi-private experience of mourning for visitors and still retain its efficiency.

06 Enso Cemeterial Monument Tokyo Vertical Cemetery Competition 2016 Competition Project Partner: Czarl Architects, Bryan Lim Wei Guo, Ryan Chee Wei Shen

A Monument for the Living, the  Dead and In Between In this project, we attempt to negotiate the liminality of cemeterial spaces and the transcendence of monumentality in architecture. Cemetery and Monuments are different architectural typologies which are intrinsically similar, built for remembrance of the past. The imperfect circle of life and death is often punctuated by liminal experiences. The Japanese incomplete enso describes these liminal moments of perfecting life imperfections. This forms the basis of the project's spatial/volumetric generator and create a platform to explore potential meaningful experiences of the liminality of cemeterial spatial units which can collectively grow into a monument.


Permutations of Incomplete Enso Modular Volumes The basic circular volumes are distributed to form 3 different zones which are connected to a central lift core foyer which stops at 3 floor intervals. The Enso volumes may house columbarium of various sizes, crying rooms, memorial room, administrative functions while the absence of a circular volume gives rise to a quiet garden space for contemplation. The primary composition of the Enso volumes are kept intentionally identical for every floor except for the incidental omissions or redistribution of volumes that allows for potentially infinite variations and permutations of spaces between from floor to floor. Legend Columbarium Garden Deck Miscellaneous

Example A

Example B

THIS PAGE Section of transitional floors


ENSO CEMETERIAL MONUMENT

Programmatic Intervention Considering the economics & social context of the site by way of introducing entertainment and touristic program at the roof levels. The revenue generated power from the commercial quantum will systematically feed the growth of more Enso columbarium.

Essemble of Modular Enso Capsules The design is made up of many modular Enso volumes which opens inwards. It is only broken at points which allows for pockets green spaces or liminal space of glass landings of stairs

Site Relations The structure is monolithic yet porous. The intended Monument will draw in the dizzying lights and endless cacophony of the streets of Shinjuku and drowning out all sensory bombardments with its gravely silent monumental presence.

53


Roof top garden

Transitional floot (Level 30)


ENSO CEMETERIAL MONUMENT

Transitional floot (Level 29 and 28)

Standard Columbarium Plan)

55



KALEDOISCOPE MONOLITH

57

07 Kaleidoscope Monolith i Light Marina Bay 2017 Design Lead: Kenneth Tracy, Christine Yogiaman, Suranga Nanayakkara

Kaleidoscopic Monolith incites curiosity from spectators through light, reflection and form. Contradictory strategies are used to enhance the complex presence of the object. At a distance it is perceived as a single convex form which subtly changes profile from different angles of approach. On closer inspection its rippling surface contains a pattern of concavities. Filled with kaleidoscopic reflections these voids distort, repeat and reorient the context. Light projected from the centre of each dimple surrounds the piece in an ambient, glowing pool and illuminates onlookers whose own reflections become part of the spectacle. Spiralling, radial geometry and faceted, reflective surfaces evoke the cylindrical kaleidoscope toys the piece is inspired from. Like the colourful patterns created by the toy, the installation resists a singular meaning and instead provokes participants to discover their own allusions through interactive play.


time 01 light ON

time 02 light OFF

time 03 light ON

PLAN VIEW___SCALE 1:20

When noone within zone of interaction, object pulsates at a base intensity

PLAN VIEW___SCALE 1:20

time 01 light ON

time 02 light OFF

time 03 light ON

When approached within zone of interaction, object’s pulsation increase in intensity SIDE VIEW___SCALE 1:20 SIDE VIEW___SCALE 1:20

Within the zone, object pulsation continues to increase in intensity

THIS PAGE - TOP Plan 1:50 THIS PAGE - BOTTOM Elevation 1:50

Within the closest zone around the object, the object retains its maximum intensity


KALEIDOSCOPE MONOLITH

59

The toy kaleidoscope inspired the physical and experiential parts of the installation, how it made various complex optical illusion through reflection and refraction of simple elements.


Made of an ultrathin, 0.1mm piece of aluminium-coated polyester film supported on a recycled and recyclable aluminium frame, with sensors that control the array of LED lights.

ASSEMBLY


KALEIDOSCOPE MONOLITH

61



GS3: METADATA

63

08 GS3: METADATA SUTD Graduation Show 2018 National Design Centre Design Vice-Head

METADATA is defined as the data of the data. Inspired by this, the layout of the show has been designed as a scatter plot, evaluating the various projects on different variables. This in turn, helps in understanding the character of the architecture, both as it was intended, and also through each individual who visits the exhibition. The floor plan of the exhibition changes every week, based on the updated votes from the visitors. As such, the exhibition is dynamic. In terms of fabrication, it is sustainable and highly-customised with the use of bamboo legs and 3D-printed joints.


ID: 01

ID: 02

ID: 03

ID: 04

ID: 05

ID: 06

ID: 07

ID: 08

ID: 09

ID: 10

ID: 11

ID: 12

ID: 13

ID: 14

ID: 15

ID: 16

ID: 17

ID: 18

ID: 19

ID: 20

ID: 21

ID: 22

ID: 23

ID: 24

ID: 25

ID: 27

ID: 28

ID: 26

scale user intensity

model size

digitalisation

digitalisation

from current to future

height

density

user intensity

density

sleepless hours

environmental sustainability

title

environmental sustainability

scale

digitalisation

Physical Space | Floorplans

title

THIS PAGE - TOP Table catalogue

height

The floor plan of the tables will be arranged according to one of the many permutations of various parameters. The layout is intended to be varied over the course of gradshow.

Final Design Proposal ASD Graduation Show 3

THIS PAGE - BOTTOM Possible floor plans


GS3: METADATA

65

There is a multitude of metadata that can be extracted from a project. The exhibition seeks to selectively pair metadata to question further the exhibited projects. “Should a sustainable project have a high green plot ratio?” “Should a progressive project be costly to built?” TABLE TOP The form of each table is derived from the shape and dimension of the model, along with a space to place an A5 project booklet. Each table is customised and fabricated according to the data of the project.

Curve profile

Bamboo profile

3D-PRINTED JOINTS Through a computational process that uses the curvature of the table, the joints are generated with considerations of the table and bamboo sizes. The bottom side of the joints and the leg caps are also designed to fit every unique piece of bamboo.

Top side

Bottom side

BAMBOO LEGS A sustainable design looks into more than reusability of the tables but also the material considerations. Bamboo is a renewable resource, allowing the design to have lesser environmental damage.

FLOOR STICKERS Each sticker represents a data point which is determined by the metadata of the project. These data points are plotted on the floor, with each colour representing the relationship between two variables.

The design aims to capture each project as a single data point within a point cloud. A table is designed for each project. Its shape provides a visual depiction of every project’s metadata.



GS3: METADATA

The tables were constructed with plywood or corian for the surface and bamboo for the legs, connected by a 3D printed joint. For larger tables, additional sets of legs were used to support the surface

67



GS3: METADATA

Inspired by the theme of the show, the layout has been designed as a scatter plot, evaluating the various projects on different variables. This in turn, helps in understanding the character of the architecture, both as it was intended, and also through each individual

69


01

03 02

04

05

07

08


WINDING OTHER WORK HILL

71

09 OTHER WORK 2015-2018

06

09

01. Baan House Competition. Home for the Homeless. 02. Waterjet Joint. Digital Fabrication. 03. TKGS Library. CPG Internship 2016. 04. Inversion. Spring particle project. 05. TKGS Classroom Corridor. CPG Internship 2016. 06. Delta Sports Complex Rejuvenation. RBA Internship 2017. 07. Maze. Core Studio 1. 08. Delta Sports Complex Rejuvenation. RBA Internship 2017. 09. CAG Lightning Mast. Capstone Project


+65 87818107 caroline@mymail.sutd.edu.sg


Turn static files into dynamic content formats.

Create a flipbook
Issuu converts static files into: digital portfolios, online yearbooks, online catalogs, digital photo albums and more. Sign up and create your flipbook.