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2017 Eranga De Zoysa Architecture Portfolio

Page 1

Eranga De Zoysa

DESIGN PORTFOLIO


Eranga De Zoysa Nationality: Canada Age: 30, DOB: 14/09/1986

e: eranga@outlook.com p: 917-622 6309

Profile

Education

As a recent Master of Architecture Graduate from Ryerson University, I am passionate in producing unconventional, meaningful and thought provoking architecture while contributing high quality work in every aspect of my career. I am committed to building a long term working relationship in the architectural discipline where I can continue to develop my design and technical skills by entering the OAA internship in Architecture Program.

Selected Awards Nov 2015

2013 - 2015

Ryerson University, Toronto, Canada M. Arch

2005 - 2009

Ryerson University, Toronto Canada B. Arch Sci

Exhibitions and Publications Feb 2016

Graduate Thesis Work Exhibition Ryerson DAS, Toronto

Sep 2015

Sukkahville Competition, Lula Forest, Nathan Philip Square, Toronto

Oct 2015

Nuit Blanche: Ripple Exhibition Queen’s Quay Terminal, Toronto

Oct 2014

Inundation: Jakarta Exhibition Paul H. Cocker Gallery, Toronto

Feb 2014

AR.CHI.TECT [Redefined] Symposium Design Exchange, Toronto

Oct 2013

Nuit Blanche: Light_Scape Exhibition Bata Shoe Museum, Toronto

Alpha Rho Chi Bronze Medal

National Professional Fraternity for Architecture and Allied Arts

Industry Employment

Software Proficiency Revit Architecture Auto CAD Rhino + Grasshopper 3D Studio Max SketchUp GIS Mapping Adobe Creative Suites V-Carve / Aspire < Venice 2014 Architecture Biennale - UK Pavillion

06 2016 - 01 2017 2010 - 2013 2008 - 2009

RSVP Architecture Studio, NYC. Junior Architect Alex Temporale & Associates (ATA) Architects Inc. Project Lead Byron Carter Architect Inc. Architectural Technologist


Table of Contents

Conflict Spaces

Sarajevo, Bosnia and Herzegovina Page 1 - 10

Housing a Community in Need Cali, Colombia Page 11 - 20

Student Innovation and Co-Lab Toronto, Canada Page 21 - 38

Palace Pier Canopy Etobicoke, Canada Page 29 - 34

*Published: 325 Ryerson University ‘08-’09 Magazine *Presented to the Mayor of Niagara - Ted Salci

Ektόs Landing

Niagara Falls, Canada Page 35 - 36

Light_Scape

Toronto, Canada Page 37 - 38

Augmented Reality Publication: Wall Assemblies and Reality Page 39 - 40

Experimentation in Design Page 41 - 48

Pavillion Projects Project Overviews < Toronto Nathan Philips Square - 2015 Sukkahville Compeitition Winner

Page 49 - 52

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CONFLICT SPACES Master of Architecture Thesis | 2015-2016

Building a Spatial Container of Memory to reveal the inverted relationships between the people and spaces within conflict zones, with the building and site situated in Sarajevo, Bosnia & Herzogovina that responds to the Siege of Sarajevo through 1992 - 1995.


Conflict Spaces Fall 2014 - Spring 2015 This thesis investigates the transformations architecture undergoes within spaces of conflict and how it is intrinsically targeted throughout conflicts as built form represents the memory and history of the oppressed. To this end, architecture becomes an object those with power seek to deconstruct and reconstruct according to their own needs, thereby producing a new set of memories and guiding a new history. This thesis produces a spatial container of distributed memories within the cultural center of Sarajevo, Bosnia and Herzogovina, which acts as an observation of the changes that places and artifacts of memory go through during a conflict.

Thesis Committee Arthur Wrigglesworth - OAA, MArch, BTech, Supervisor Scott Sørli - BASc, BArch, Secondary Reader Vincent Hui - MBA, MArch, Program Representative John Cirka - PhD, MScArch, BArch, Program Director

Entrance Tunnel to the Spatial Container

Conflict

1

Conflict Spaces

Memory

Identity

Inversion

Legitimizing Violence

Liminal Entities

Panopticon

Architecture as Container

Slow Violence

Rhizome Tunneling

Urbicide

Reconstruction

Deconstruction


Sarajevo Key Map

Overall Scheme

Site Context Map

Bosniak Institute

Project Location - Derelict Building

Project Location

Srebrenica Genocide Museum

Business / Residential Hotel / Hostel Museum / Library / Cultural

Jesus Heart Cathedral

Conflict Spaces

2


Sarajevo Tunnel Conditions

Tunnel Under Airport

Corresponding Tunnel Diagrams

1600mm 5’-3”

3

Conflict Spaces

Sniper Alley

Olympic Village Track

Cable Car System


Exploded Axonometric of Spatial Container

Program Elements

Spatial Title

Memory Matrix

Vision Shard

Inverted Architecture

Tunnel 2: Light Rays

Tunnel 1: Enter the Conflict

Conflict Spaces

4


Spatial Container - Tunnel 1 & 2

Tunnel 1

Building Section 1

5

Conflict Spaces

Tunnel 2

Key Plan locating Tunnel 1 + 2


Tunnel 2: Light Rays

Concept of reconfiguring conflicted space for light rays

Light Rays in tunnel rendering

Tunnel 1: Entering the Conflict

Light Rays in tunnel schematic diagram

Tunnel 2 Entrance below street level

Photograph of artificial tunnel created during the Sarajevo Conflict Conflict Spaces

6


Spatial Container - Inverted Architecture + Vision Shard

Vision Shard

Inverted Architecture

Building Section 2

7

Conflict Spaces

Key Plan locating Inverse section and the Vision Shard


Vision Shard Condition

Sarajevo Panorama locating view port guided locations of importance

> Vision Shard Interior Rendering

Inverted Architecture

> Viewport Diagram

Inverted Architecture tunnel rendering Conflict Spaces

8


Memory Matrix Reaching the base, the visitor is faced with journeying into a shallow reflective pool with a lattice of girders supporting boulders above. The boulders are representative of the burden of memory, and questions how a people move forward with the memory of the conflict. Throughout the various conflicts that have been looked at, they have had very different outcomes of moving forward; some of them have chosen to forget the memory entirely, some have rebuilt with the intention of focusing on the future, and others have

> Site Model - East Perspective

9

Conflict Spaces

allowed the memory to remain in their desecrated forms untouched. The point of this thesis is not to judge, nor to condone an option that states which method is most suitable, however leaves that open to the visitor as they determine whether the memory of conflict should be retained, whether the collective memory that forms the identity requires the gradual eradication of the violent past or to consolidate it within the future re-identification of a people and their communal space.


> Memory Matrix - Rendering

Conflict Spaces

10


Centro Comunitario Esperanza Housing a Community in Need | Fall 2013

Having travelled to Colombia and witnessing firsthand the informal settlements and illegal activities that include controversial youth involvement, it is necessary to provide a rehabilitation facility to allow for the youth to re-enter society leaving behind their baggage and building a better future for themselves.


Housing a Community in Need Centro Comunitario Esperanza Community Center for Troubled Youth Fall 2013 - Cali, Colombia The Centre for Internally Displaced People of Siloé acts as a point of social reintegration for the people of Silo and Cali, Colombia. Located at the center of Siloé, the facility acts as a nodal point for the community and is within close proximity to public transportation and the employment areas of Cali proper. Intended to become part of the defining characteristic of Siloé, the Centre provides a visual identity as well as a much needed gathering place for a community that is slowly improving its socioeconomic condition. Conceived as a juxtaposition of materiality, with the two structures comprising the building being distinguished by their construction in either concrete or bamboo, the stereotomic and tectonic elements become the driving characteristic of the programmatic function and formal aesthetic of the building. At the core of these two distinct entities lies a common space uniting both programmatic elements. This intentional void functions as an interior circulation space as well as a series of platforms from which the building becomes alive when the daily activities of its users animate the central space.

Exterior Rendering Homicide Rate

Gang Intensity

By Communa in Cali

Active Gang Members By Communa in Cali

100 +

200 +

51 - 100

100 - 200

0 - 50

0 - 100

6

Drug Trade and Criminal Activity AS A WAY OF LIFE IN COLOMBIA

2

6

2

5

4

7

1

7

1

3

3

8 9

11

19

18

11

19

10

16

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22

22

1% OF TOTAL POPULATION (GANGS) CAUSES 13% OF TOTAL HOMICIDES

Community Center for Troubled Youth

21 13

14 20

10

16

12

21 13

20

8 9

12

13

5

4

15

14


80

Site Selection

40

TYPICAL INFORMAL CONDITION

200

m

CRIMINAL RELATED CONDITION Community Center for Troubled Youth

14


Adaptive Facade

CONTROLLED VENTILATION SYSTEM VIA GRASS MAT SCREENS

Adaptive Interiors

STOWED AWAY

Interiors Renders - Ground Floor Foyer

15

Community Center for Troubled Youth

TABLE

Interiors Renders - Flex Spaces

BENCH

BED


Sun Angle 18 17 16

8

15 14

5

13

Evening Winds

12

7

11

5

10 9 8

4

7

6

6 5

3

4 3 2

Morning Winds

A

Environmental Systems

1

2

1

B

C

D

E

F

G

H

I

J

K

4

Ground Floor Plan 1 Primary Entrance 2 Staff Office 3 Reception 4 Computer Area + Library

2

10

m

5 Multi-Function Spaces 6 Communal Kitchen / Dining 7 Laundry 8 Secondary Entrance

Sectional Perspective

Community Center for Troubled Youth

16


Community Center for Troubled Youth Designing to bring the lost children back to the society requires an understanding of their needs for community, security, trust and flexibility. This is achieved through the following: 1. Provide Security to ensure successful growth 2. Provide Flexibility in the spaces to give the youth responsibility and a sense of control 3. Renew their trust in their community and the communityâ&#x20AC;&#x2122;s trust in them

Deconstructing Bamboo allows the construction of various different architectural objects such as: Louvers, Guard Rails, Partition Walls, Cladding, Roof Shingles, Water Collectors and Planters. Deconstruction of Bamboo for multiple uses

Interiors Renders displaying the use of deconstructed bamboo

East Elevation

Movement of water determines program elements

4 2

10

m

+ +

17

Community Center for Troubled Youth


18

18

17

17

16

16

8

15

8

15

14

14

1

13

1

13

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11

5

1

10 9

9

4

8

4

8

2

1

7

5

1

10

5

5

1 2

1

B

C

A D

Second Floor Plan

E

F

B

C

2

A

G

H

I

J

K

4 2

10

m

Third Floor Plan

D

E

F

2

4

1

4

1

6

2

8

3

6

3

1

1

4

8

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10

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10

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2

1

7

G

H

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J

K

1 Primary Entrance 2 Family Sleeping Rooms 3 Communal Shower + WR 4 Vertical Vegetation

5 Garden Storage + Cistern 6 Individual Storage

Flex space in action according to activity

Community Center for Troubled Youth

18


Night Exterior Render


Student Innovation and Co-Lab Bio-Logic Driven Architecture | Winter 2014

Architecture can benefit from being thought of as living organisms whose functions and behaviors are determined by the relationship between the parts within a whole. The process of adding a bio-logic to both the makeup of the internal layout of the program and the specific collaborative environment resonates with resilience and knowledge exchange that is abundantly evident in natural systems.


Student Innovation & Collaboration Lab Winter 2015 - Toronto, Canada Ryerson University contains various MakerSpaces, Fabrication labs and TechShops. The essence for these spaces is to be as collaborative as possible and bring together various departments within the school to produce new technology. The issue is that these spaces are typically hidden away within multiple buildings within the campus thus the essence of collaboration is non-existent. Much like the requirement for a central library for the campus, the proposal brings together all the innovation spaces and produces a single collaborative environment. The architecture will be an example of how biological procedures can be applied to a building to support the collaborative spirit of the building.

Site Plan and Context Map The site is located on the intersection of Gould st. and Yonge st. This will play an important role as it becomes part of the gateway into the main campus.

FABLAB

MAKERSPACE

HACKERSPACE

COLLABORATION

23

Student Innovation & Collaboration Lab

TECHSHOP


Hackerspace

WORK KNOWLEDGE

Library

Makerspace

Exhibiting Continuity and Architectural Weaving to create a sensuousness of continuity

Strategies involved in producing a gateway condition to the campus Admin Area & Research Zone Collaboration Zones

Yonge & Dundas street visibility

Graduate Area (Research and Lab)

Fabrication Lab

Auditorium

Ryerson gateway condition Tech Shop

Gallery

Metal and Wood Shop

Services

Accessibility to students from campus

Exploded Axonometric providing program make up of building Student Innovation & Collaboration Lab

24


Dispersal within the resilient model

HACKERSPACE

CORE

Using buffer zones to add and exchange “intellectual creative capital.” Using the circulation zone as pathways that distributes the core zones between buffer zones that allow intellectual collisions to occur, the primary model to be used is the Ecological resilience model as it is commonly found in nature due to the complexity in natural systems.

CORE SECONDARY SECONDARY

CORE SECONDARY

CORE

SECONDARY

SECONDARY

SECONDARY

LIBRARY

SOLITARY LEARNING ENVIRONMENT

Unrolled Experiential Section

Ecological resilience - distributed networks

Sensuousness of Continuum - Skip stop circulation strategy to eneable exchange of intellectual creative capital

MAKERSPACE

CORE

SECONDARY

SECONDARY

CORE CORE

CORE CORE

SECONDARY

COLLABORATIVE ZONE 2

SECONDARY

CORE CORE

SECONDARY

CORE

ADMINISTRATION

SECONDARY

SECONDARY

RESEARCH

WASHROOM

SECONDARY

SECONDARY

Engineered resilience - concentration of large scale components commonly found in human built systems CORE

SECONDARY

GRADUATE RESEARCH

Copper Frits on Glass Panels COLLABORATIVE ZONE 1/2

Creating architectural weaving through the use of cladding materials to provide transitions between opaque and transparent areas

WASHROOM

SECONDARY

AUDITORIUM

CORE

ENTRANCE

FABLAB

CORE

SECONDARY

TECHSHOP

GALLERY

CORE

25

Student Innovation & Collaboration Lab

METAL SHOP WOOD SHOP

Exploded Axonometric of Copper Frits on Glass Panel

Example of Panel fully Realized


North-South Building Section

4

East-West Building Section

1A

1B

2

2

10

2B

m

3

Student Innovation & Collaboration Lab

3B

26


Night Exterior Render


Palace Pier Canopy 2012-2014 - Toronto, Canada Client: Brookfield Properties

θ

sin

sin

θ

Production Team Architect: ATA Architects Inc. Project Manager/Designer: Eranga De Zoysa Contract Admin: Eranga De Zoysa + Silviu Anton Structural: Blackwell Structural Engineers Ltd. Mechanical & Electrical: PT Engineering Ltd. Landscape Architect: Baker Turner Inc. Design a canopy for a luxury condominium building in Etobicoke. The requirements were for a dynamic and organic design. The submission that was approved was parabolic in nature.

-cos

θ

-cos

canopy for Design luxury a canopy condominium for a luxury building condominium building Close to the siteDesign is theaHumber Baya bridge which forms in Etobicoke. The requirements in Etobicoke. were The requirements for a dynamic were for a dynamic the identity for and the area. Deconstructing thedesign. bridgethat to was organic design. and organic The submission The submission that was its basic forms lead to the idea of a sine wave. Further approved was parabolic approved in nature. was parabolic in nature. exploration lead to complex trigonometry formulas. The Close to the site the Close Humber to theBay sitebridge is the Humber which forms Bay bridge which forms final result was the formula forisHyperbolic functions.

θ

sin

θ

the identity for the area. the identity Deconstructing for the area. theDeconstructing bridge to the bridge to its basic forms leadits tobasic the idea forms oflead a sine towave. the idea Further of a sine wave. Further exploration lead to exploration complex trigonometry lead to complex formulas. trigonometry formulas.

functions otherwisefunctions stated mathematically: otherwise stated mathematically: sinh(θ) = b cosh(θ) = c tanh(θ) = b/c

ICRO-scale

sinh(θ) = b cosh(θ) = c tanh(θ) = b/c

θ-x2

ysin= Design a canopy for a luxury condominium building in Etobicoke. The requirements were for a dynamic and organic design. The submission that was approved was parabolic in nature.

θθ

sin

-cos

y=

-x2

Close to the site is the Humber Bay bridge which forms the identity for the area. Deconstructing the bridge to its basic forms lead to the idea of a sine wave. Further exploration lead to complex trigonometry formulas.

MICRO-scale

functions otherwise stated mathematically: sinh(θ) = b cosh(θ) = c tanh(θ) = b/c

ACRO-scale

MACRO-scale

-cos

θ

Design a canopy for a luxury condominium building a canopy forfora aluxury condominium building MICRO-scale in Etobicoke.Design The requirements were dynamic Etobicoke. requirements and organicin design. The The submission that waswere for a dynamic approved was parabolic in nature. and organic design. The submission that was

approved was parabolic in nature.

nθ

Close to the site is the Humber Bay bridge which forms the identity for the area. Deconstructing the bridge to the site Bay bridge which forms MACRO-scale its basic formsClose lead toto the idea ofisa the sine Humber wave. Further exploration lead to complex formulas. the identity fortrigonometry the area. Deconstructing the bridge to

sin θ

tanh

y=

-x2

-cos

θ

θ = θθ = θθ sinh tanh

its basic forms lead to the idea of a sine wave. Further exploration lead to complex trigonometry formulas.

/ cosh sinh

/ cosh

functions otherwise stated mathematically: sinh(θ) = b cosh(θ) = c functions sin θ tanh(θ) = b/c

Humber Bay Bridge as Inspiration Break down of bridge

29

MICRO-scale

Palace Pier Canopy MICRO-scale

MACRO-scale

otherwise stated mathematically:

sinh(θ) = b cosh(θ) = c tanh(θ) = b/c

y=

-x

2

tanh

θ= θ sinh

-x2

Early Design Options for Brookfield y= Properties, the client

/ cosh

θ

θ


Approved Design of Canopy

Palace Pier Canopy

30


  

 

      

82 .6 2°

°

 



.6 6



79





  



 

    

        

   

  

400mm 200mm

 

1

  Longitudinal Section 

m







1-A8.0



    





    Front Canopy Detail 





1

177 .26°







 







 

 

  







 

       









178 .14°



 



  





0°

  





 











     

176.8

 

  

4°

   



 



176.5

   

 100.29°

 

 

176.88°







177.08°



° 89.92

 

177.67°





279.13°



177.51°

177.9

177.80°

178.39°

 

    3°





  

A7.1





      

 

    









    





31

  



   





Palace Pier Canopy  



    



  

   

     

  

  

  

     

 

2 1

0m

0.2m

0.4m

VISUAL SCALE 1:10 @ A1 

5 0.6m

m

0.8m








    

 



279.13°

° 89.92

 

 

 



   

100.29°

   

 

 

    



  

  

     

 



    

  

 

 

 

     

200mm

1

m



 



   

 









   





400mm



Site Visit during construction of canopy to inspect legs on garage roof slab to confirm quality and location of bolts.

      

Detail of typical Canopy Leg to Garage Roof Top Slab



  

  

  

Palace Pier Canopy  

 

32








 

    

 

 

279.13°

° 89.92

    

 





   

100.29°

   

 

 

 

    



  

     

         



Side Canopy Skirt Detail

400mm 200mm

33

Palace Pier Canopy

 m  1 



6



4° 7 .3











   







     

 

  

0m

0.2m

0.4m

0.6m

0.8m

1m





 



     

  





  

  

            

  

Rear Gutter Detail of Canopy



        





    





   







 

 Axonometric of Canopy Gutter Box at Rear



62 °



    

     



  



 



    



    



  







 

    



 

 

  

        







 

       

      


Palace Pier Canopy

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Ektόs Landing

SSEF Steel Structural Competition To reach out and touch the falls was the basis of the structural platform. The concept was derived from a species of snakes in Madagascar that elongates to reach branches or prey at a challenging distance. The skeleton of the snake inspired the system of trusses that support the platform. The snake is a type of ectotherm (Ektós is from Latin which means “outside”, therm meaning “hot”, i.e. blood regulated by an external heat source).

ektós landing

Section 1

Section 2 Section 1

Section 2

Section 2

in Madagascar that elongate to reach branches or prey at a The canopy is The structurally using a combination challenging distance. skeletonsupported of the snake inspired the system of tapering steel HHSplatform. sectionsThe above, being supported below by of trusses thatcircular support the snakewhile is a type of ectotherm. There are which two types trusses supporting the canopy, a (Ektós istrusses. from Latin (εκτός) meansof“outside”, therm meaning “hot”, i.e. blood“W” regulated by anthe external simple truss under main heat bodysource) of the platform and a Space

Frame truss under the “head”.

The canopy is structurally supported using a combination of tapering steel circular HHS sections above, while beingwas supported belowfor, by leading to Consideration of structural stability accounted trusses. pylons There are of trusses supporting a thattwo are types anchored into the vertical the cliff canopy, face. simple “W” truss under the main body of the platform and a Space Frame truss under the “head”. Consideration of structural stability was accounted for, leading to pylons that are anchored into the vertical cliff face.

To reach out and touch the falls was the basis of the structural

Breaking downThe the snake’ s internal structural system platform. concept was derived from a species of snakes

in Madagascar that elongate to reach branches or prey at a challenging distance. The skeleton of the snake inspired the system of trusses that support the platform. The snake is a type of ectotherm. (Ektós is from Latin (εκτός) which means “outside”, therm meaning “hot”, i.e. blood regulated by an external heat source) The canopy is structurally supported using a combination of tapering steel circular HHS sections above, while being supported below by trusses. There are two types of trusses supporting the canopy, a simple “W” truss under the main body of the platform and a Space Frame truss under theSection “head”. 1: Space Frame Truss

Section 2: Simple “W” Truss with Eccentric Columns

Consideration of structural stability was accounted for, leading to pylons that are anchored intoFrame the vertical cliff face. Section Space Truss Section 2: 2: Simple Section 1:1:Space Frame Truss Section Simple“W” “W”Truss Truss with

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2

Ektos Landing

2

with Eccentric Columns

Eccentric Columns

ektós landing

Niagatra Falls, Canada SSEF Steel Competition

ektós landing

Section 1

To reach out and touch the falls was the basis of the structural platform. The concept was derived from a species of snakes in Madagascar that elongate to reach branches or prey at a challenging distance. The skeleton of the snake inspired the system of trusses that support the platform. The snake is a type of ectotherm. (Ektós from Latinthe (εκτός) which “outside”, therm meaning To reach out is and touch falls was themeans basis of the structural “hot”, blood regulated by an external heat of source) platform. The i.e. concept was derived from a species snakes

Niagara Falls, Niagatra Falls, Canada Canada SSEF Steel Steel Competition Competition SSEF

Niagatra Falls, Canada SSEF Steel Competition


*Published: 325 Ryerson University â&#x20AC;&#x2DC;08-â&#x20AC;&#x2122;09 Magazine *Presented to the Mayor of Niagara - Ted Salci

3

Ektos Landing

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Light_Scape: Nuit Blanche Installation October 2013 - Toronto, Canada Located in the BATA Shoe Museum, Light_Scape was an interactive installation that was designed to become a Lego like experience, allowing the visitors to generate their own landscapes using LED cubes that contained a Velcro exterior. These cubes could be placed in multiple configurations including being stacked on top of each other and being bridged across multiple sculptural forms. This provided the users of Nuit Blanche a hands on experience to build without any limitation and within the confines of their own creativity. The result was a magnificent immersive experience, with limitless configurations that filled the dark room with an array of continuously changing multi-coloured light.

VELCRO Loop Layer

VIVAK

EXIT

Vacuum Formed Cube

LED

Cycling tri-coloured Light

BATTERY Single AA

BATTERY HOLDER

ENTRANCE

ACRYLIC

Artists Irina Solop Matthew Koniuszewski Nick Schumacher

Base Plate

VELCRO

Hook Layer x

Collaborators Sarah Obtinalla Eranga De Zoysa Jeffery Mitchell Dustin Sauder Talyor Slade Channing Julien

Site Plan and Light Cube Construction Rendering of Gallery Space

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Light_Scape: Nuit Blanche

GALLERY SPACE FLOOR PLAN CIRCULATION

1000

LIGHT CUBE

ASSEMBLY & MATERIALS


Light_Scape: Nuit Blanche

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Nuit Blanche Night

Construction of Gallery Space


Augmented Reality

Methods of Presenting Architectural Ideas Interested in Augmented Reality and its possible applications in presenting ideas in a new way to clients. One of the tests conducted on a project in the design phase. Created in 3D Studio Max using Flash compliant methods, the model was converted into Papervision 3D. A script was created to understand when a Camera detects a Tag to display the 3D Model in space relative to the tag. The proposal was to allow clients to hold a virtual model in his hands using a tag printed on paper or on a smart phone.

ncer Smith Park Pavillion (ATA)

3D Studio Max Environment

The Tag is a marker for which initiates a program or a flash script to display information

Project: Spencer Smith Park (ATA) (ATA) Project Example: Spencer SmithPavillion Park Pavillion

3D Studio Max Environment

3D Studio Max Environment

Computer Rendering of Tag

or

Tags can be used on a business card or a display on a phone

The Tag is read by the camera, transferring the live feed to the program

=

The computer equates the tag to represent a 3D Model

The computer places the 3D Model over the tag. The user can rotate and move the tag which moves the 3d Model accordingly

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Augmented Reality


Publication: SAB Magazine Wall Assemblies and Reality February 2012

[Industrial Research Assistance Program], Participating in in aa program programwith withthe theNRC NRCcalled calledIRAP IRAP to make informed decisions quicklyATA on Architects the effectsInc. of conducted research into producing a database within BIM software [Revit] that addressed the performance issues [Industrial Research Assistance Program], ATA Architects their detailing designs. The effort was published in SAB of materials. the architect make informed decisions quicklyshowcasing on the effects ofoftheir detailing Inc.different conducted researchThis intoallows producing a databasetowithin Magazine with images some the research designs. The effort was published in SAB Magazine with images showcasing some of the research using THERM BIM software [Revit] that addressed the performance using THERM to demonstrate the research activities. to demonstrate the research activities. issues of different materials. This allows the architect Writers Mark Driedger Melissa Smith Eranga De Zoysa

Published Document

Publication: SAB Magazine

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Graduate Symposium Centerpiece

To create a holostic image of the emerging architectural typology of parametricism; the task was to create a centerpiece to showcase how parametric design can be inbued in common objects around the symposium. The idea of the centerpiece came up as a method to bring light into a dark space [The Toronto Design Exchange] while invited speakers and audience members mingled and discussed the ideas that were brought up during the talks. The final design involved using Rhino and Grasshopper to develop two seperate schemes of center pieces. The overall center piece is a triangulated object with cut outs in two options: -Randomized boxes using Grasshoppper -Randomized Triangles that were then selected for deletion.

Sketch Design 1 Involved producing a triangular pyramid form which would allow light to leak through CNC Routed gaps in either acrylic or corian. The sketch can be seen below in 3D as created within rhino and the associated grasshopper definition.

A cool Blue LED was used to contrast the warm candles surrounding the fixture. Corian 1/2â&#x20AC;? slabs were specially glued together to produce a thick base.

Prototype Light Fixture

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Parametric Centerpiece

The rhino file and associated grasshopper definition for Sketch Design 1

Sketch Design 2 involved triangulated forms that formed a box. The black painted material would contrast well with the light that shone through and involved producing random triangular and box forms which were then laser cut. The Corian base would create a distinct reveal that allowed light to leak through the bottom of the base.


The contrast between the cool wite light and the warm candles prroduces a inviting atmosphere to discuss the symposium points that were brought up.

Final Sketch Design Model in site at the Design Exchange. As is visible, the light leaks through the bottom base via white acrylic reveal and through the randomized holes laser cut through the black cardboard material.

Parametric Centerpiece

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2D-3D Art Experimentation Corian as Canvas

A personal exploration into creating art work through the use of a CNC router on Corian to produce half-tone art. By producing lines that vary in depth and thickness, the material becomes a canvas for art through the use of grooves that are curved to illustrate the biologic nature of the original image - the fossil image of a microscopic radiolaria. Using a a 3/4â&#x20AC;? V-bit endmill on the CNC mill so that the circle diameter had a linear relationship to the depth of the plunge Once routed, the corian was spraypainted gray and sanded on the surface to allow the spray paint to only exist within the grooves to act as a highlight.

Option 1 for Sketch containing levels that include the entire drawing for milling.

Option 2 for Sketch containing levels that allow for the most white to come through without being milled.

Radiolaria image used as the base for the halftone image.

Selected Portion of Radiolaria for Processing into a Halftone Image

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Corian Halftone Experiment

Prototyping on MDF to make sure the cuts are appropriate at the right depth. Depending on how close or how far away you are from the object, do you get a different view and perspective of the image. If up close, the image is blurred and it wonâ&#x20AC;&#x2122;t be until you stand at a distance that you realize the image you are looking at.


Final milling of the corian slab to produce the half tone radiolaria image. the images on the right depict the prototype against the final corian piece once completed.

Depending on the angle and the distance you stand from the final piece, are you able to fully realize the image. This type of art typically cannot be photographed to appreciate the sense of depth and feeling you get from approaching it from different angles and/or perspectives.

Corian Halftone Experiment

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Virtual Flow Lines - Toronto Mapping Erosion

A city is a living organism as much as a forest and contains various open and closed systems as well as energy that flows throughout the urban material. This experiment uses an exaggerated topographical slope of the lake to produce erosion flow lines to demonstrate the interaction of friction between the city and flow.

World Machine is a terrain creation tool that uses a left-to-right node based workflow. Using the vector data from GIS, we are able to produce a bump map of the streets and neighbourhoods to produce the friction required to produce interesting erosion maps which is the required hieght map output.

Initial data was extracted from GIS software QGis and used within illustrator to produce vector information. This information was further inserted into World Machine to produce the erosion flow map which finally gets processed in Photoshop to produce the unconventional image of Toronto.

Basic Bump Map

OpenStreetMaps (OSM) & City of Toronto Open GIS Data processed within QGis for export as Vector data.

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Vector Data from QGis extrapolated into Illustrator to provide a bump / height map as an input into World Machine. Erosion Flow Map

Erosion Flow Map

Slope Map


Photoshop Processing Layer 00 - Rear Grunge Texture

Layer 01- Rear Warm Gradient w/ Land Mask

Layer 02 - Errosion Flow Map (World Machine)

Layer 03 - Vector Line Data (GIS)

Layer 04 - Warm Gradient Fill

Layer 05 - Soft Light Overlay

Layer 06 - Vignette

Layer 07 - Curves Adjustment

Layer 08 - Brightness/Contrast

Layer 09 - Levels

Layer 10 - Hue/Saturation

Final Processed Image

Erosion Flow Map

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Pavillion Construction Work 2013 - 2015

Producing temporary pavillions throughout Toronto for various competitions and/or exhibitions. Throughout each of these, I was involved in atleast the construction and fabrication of the pavillions with design work for the Nuit Blanche Light_Scape project. Typical fabrication work involved laser cutting and CNCâ&#x20AC;&#x2122;ing using Ryerson DAS (Department of Architecture) Shopâ&#x20AC;&#x2122;s 3-axis CNC router. I was heavily involved with setting up each pavillion on site and shop tools to aid quick construction fixes on site.

Nuit Blanche: Light_Scape

Design, Fabrication, Setting up the exhibition on site.

Bata Shoe Museum, Toronto Oct 3, 2013

Construction images of the Pavillion

SukkahVille: Lulav Forest Nathan Philip Square Sept, 2015

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Pavillion Construction Work

Involved in construction of the pavillion on site.


Construction images of the Pavillion

Nuit Blanche: Ripple Sponsored by Subaru

Involved with electrical wiring and construction of the pavillion on site.

207 Queens Quey Toronto Oct 3, 2015

Construction images of the Pavillion

Winter Stations 2016: LithoForm

Involved in fabrication of sub structure elements and construction of the pavillion on site.

Woodbine Beach, Toronto February, 2016

Pavillion Construction Work

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Project Overview These selected projects illustrate my capabilities and past experiences with design, technical work, and collaboration within the industry. The work shows a wide range of interests, including public and civic engagement, exhibition and installations, community enhancement and re-envisioning existing structures. Moving forward in my career, I hope to be able to develop my knowledge in these areas and bring my own skillset to the professional practice.

Conflict Spaces

Community Center for Troubled Youth

Student Innovation and Co-Lab Center


*Published: 325 Ryerson University ‘08-’09 Magazine *Presented to the Mayor of Niagara - Ted Salci

Project Example: Spencer Smith Park Pavillion (ATA)

Ektos Landing

3D Studio Max Environment

3

Light_Scape: Nuit Blanche Installation

Augmented Reality

Publication: Wall Assemblies and Reality

Palace Pier Canopy: Actual Photography

Palace Pier Canopy: Rendering


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2017 Eranga De Zoysa Architecture Portfolio by Eranga De Zoysa - Issuu