Bilkay Begüm Peker | Architectural Portfolio 2019

Page 1

Selected Works 2014-2019


CURRICULUM VITAE BILKAY BEGÜM PEKER

Date of Birth: 13/01/1994 Hometown: Ankara, Turkey EDUCATION 2017-2019

Phone: (+90) 533 238 5828 / (+44) 753 942 9375 E-mail: bbegumpeker@gmail.com Website: linkedin.com/in/begumpeker

Architectural Association School of Architecture, London, UK MArch Sustainable Environmental Design

2012-2016 Bilkent University, Ankara, Turkey Bachelor of Architecture GPA: 3.13/4 2015 Politecnico di Milano, Italy Erasmus Programme / 6 months 2006-2012 Bilkent Laboratory & International School, High School, Ankara, Turkey LANGUAGE PROFICIENCY Turkish English Italian

2010 July

- Digital 3D modeling, conceptual designs, architectural drawings, presentations showing process of projects

MTM Architecture, Ankara, Turkey Worked on: Hadeka Housing

- Making architectural drawings

Construction Site Intern 2014 July Yıldızlar Group, Ankara, Turkey Buiding of the Ministry of Industry and Trade, Ankara

Achieving an Honor’s Degree from Bilkent University in: 2015-2016 Spring Semester 2015-2016 Fall Semester 2014-2015 Spring Semester 2014-2015 Fall Semester 2013-2014 Fall Semester Certificate of International Baccalaureate (IB) from Bilkent Laboratory and International School, Ankara, Turkey Certificate of Middle East Technical University (METU) women’s basketball team after playing for six years. Certification of participation to the Duke of Edinburgh, Silver Award Certificate of winning first prize in the drawing competition for “Stepping Stones” magazine Certification of participation to the Duke of Edinburgh, Bronze Award

Thesis Project Exhibition for SOS Students & Mario Cucinella Architects at Bologna

2016 October

TSMD Architecture Students’ Project Exhibition

2016 May

Final Jury Exhibited at TSMD Architectural Center

2015 October Architects’ Association 1927 Exhibition of Selected Works of Architecture Students - Bilkent University Representative 2012 June

International Baccalaureate, High Level Art Students’ Workpieces Exhibited

WORKSHOPS & VOLUNTEER WORK Workshop w/ DesignMorphine: Informative Archetypes V3.0 Revit, Rhino, Grasshopper, Enscape 2019 July Sofia, Bulgaria

SKILLS Revit AutoCAD Sketch Up Rhino Dynamo Grasshopper Lady Bug Honey Bee Energy Plus Open Studio Flow Design CFD

Workshop w/ Mario Cucinella Architects & School of Sustainability (SOS) 2018 June Bologna and Venice, Italy

PERSONAL INTERESTS Digital and analog photography with Zenit 18 Camera Sculpting in wood, metal and aerated concrete Drawing and sketching in charcoal

Conceptual Drawing for Architects and Designers 2013 July Central Saint Martins College of Arts and Design, London, UK Architecture Career Discovery Camp 2010 August Rensselaer Polytechnic Institute, New York, US

AWARDS AND HONORS 2017-2019 Student Bursary from AA School of Architecture

2012 July 2011 June 2010 June 2009 July 2009 June

EXPERIENCE Architectural Intern 2015 August A Architectural Design, Ankara, Turkey Worked on: Koza Kanyon I & II, Edessa, Aytas Incek, Park Mozaik, Kuzu Yıldız, Mesa Koza

EXHIBITIONS 2018 June

Enscape Lumion Adobe Photoshop Adobe InDesign Adobe Illustrator Microsoft Office Laser Cutting Sketching Physical Modeling Wood & Metal Skills Hand Drafting

Workshop w/ AA Design+Make & AA Landscape Urbanism Students REFERENCES 2018 May AA Hooke Park Campus, Dorset, UK Associate Professor, Simos Yannas Director of Sustainable Environmental Design Programme, Member and Student Representative Board Architectural Association School of Architecture, London, UK 2014-2016 Architects’ Association 1927, Ankara, Turkey e-mail: simos@aaschool.ac.uk Design / Build Lab 2014-2015 Bilkent University, Ankara, Turkey Study Abroad Programme with Bilkent University to Verona, Rome, 2014 June Florence, Milan and Venice, Italy Construction Builder 2011 April Attending the Habitat for Humanity in Beius,

Associate Professor, Mark Paul Frederickson Department of Architecture, Bilkent University, Ankara, TURKEY e-mail: mpf@u.arizona.edu / frederickson@bilkent.edu.tr Associate Professor, Founding Chair, Meltem O. Gürel Department of Architecture, Bilkent University, Ankara, TURKEY e-mail: mogurel@bilkent.edu.tr


TABLE OF CONTENTS Resonate Pavilion 2019 Sun Canyon 2018 Biomass Powerplant and Algae Farming Along Ankara Stream: A Sustainable Urban Prototype 2016 Space, Science and Technology Centre 2015

Passive Design for a Vineyard House in Atlas Village 2019

The Swirl 2018

Dormitory for Students 2014 Various Art and Photography


PAVILION RESONATE Design Morphine: Informative Archetypes V3.0 Project Type: Group Work - Pavilion Design Location: Sofia, Bulgaria Year: 2019 Summer Tutors: Arek Keshishian, Andrei PAdure Team: Benjamin Norris, Nur KayalÄą Role: Design concept, 3D renders, modelling the adaptive components and landscape. Pavilion Resonate seeks to merge within and embody the intangible forces acting on the urban dweller within the city garden adjacent to the National Bank of Sofia, through its physical form and its resonance into the landscape. In viewing the park as a transitional space and considering pedestrian desire lines to key nodes within the city, vectors were mapped on the site that represented the forces influencing the movement of people through the park space. At the centre of that field of vectors a vortex occurs where 5 new petal-like structures form to provide a point of rest and sanctuary as people move from node to node. Pavilion Resonate is designed by an algorithmic exploration and a computational form-finding system through the BIM environment of Revit and Dynamo. Climate-responsive adaptive components were designed for the petal-like structures, where they provide daylight and shade by adapting to the orientation of the sun. At night, the pavilion becomes a beaken for the city.


National Bank of Sofia

National Art Gallery Bulgarian Dev. Bank

Bulgarian Hall

City Garden

THE AREA 01 ACTIVATING The starting point was mapping the nodes.

USAGE TIMES 02 PEAK The peak usage times of the surrounding

TO A FOCUS 03 BRINGING The nodes on the site and the peak

The existing pedestrian routes were targetted, along with the new possible pathways, in order to revitalize the site. Circulation is influenced by connecting the key nodes through transitional spaces that pass through the park.

buildings were determined in order to form a schedule for the usage of the pavilion.

usage times of the surrounding buildings brought together a connection point, providing a reference for the possible position of the pavilion.

THE BOUNDS 05 CREATING The pavilion is mapped on these vortex

FORM 06 FINAL The radiation incident on the structure

lines and sits to activate the northern edge of the park where each petal faces to one of the key buildings that look over the site. The use of each petal and its corresponding building was recorded through peak hours.

at peak hours was mapped to act as a driver for the panelisation of the surface, to provide shade and thermal comfort at a point of rest for people moving through and transitioning within the city.

SUMMER SOLSTICE

EQUINOX

WINTER SOLSTICE

21 June 9am - 7pm

21 September 9am - 7pm

21 December 9am - 7pm

FIELDS 04 VECTOR The direction of the

vector fields were determined according to a simulation, which tests and creates possible pathways between nodes and obstacles.

Solar Radiation Analysis - Summer - 01.05 - 31.08 / 09:00 -18:00

(Source: Meteonorm and Lady Bug)


CLIMATE RESPONSIVE SURFACE - PARAMETRIC ADAPTIVE COMPONENT Working with the BIM environment of Revit, a parametric adaptive component is formed and guided by a selected dataset to generate transformation of the components, leading to the design of each petal element that makes up the pavilion. Revit and Dynamo frameworks are used for analysis, providing contextual-datasets for algorithmic exploration and computational form-finding of the pavilion.

ADAPTIVE COMPONENTS PLACED ON THE PETAL-LIKE STRUCTURE

N SITE PLAN

I. GEOMETRY

II. COMPONENTS

III. PARAMETERS

The geometric development of the petal-like structures, having the surfaces divided into triangular shapes.

Custom XYZ cell nodes of each adaptive components mapped from their center gives the contextual-datasets for the algorithmic exploration.

Simple point attractors are mapped on each surface, which are used to change a specific parameter for its opening size.



SUN CANYON MArch Architectural Association School of Architecture Sustainable Environmental Design Project Type: Group Work - Mixed-Use & Retail Location: London, UK Year: 2018 Spring Instructors: Simos Yannas, Paula Cadima Team: Nur Kayalı, Maria Andree Osoy, Ka Po Yung Role: Design concept, 3D modelling and wind analysis The urban regeneration of London’s King’s Cross has generated significant opportunities at local, regional and national level. The vibrant development has reinforced the area as an easily accessible, high-quality mixed-use community. Its statement on art, culture, and heritage has created a concrete vision where people can live and work. Due to the increasing population of King’s Cross, in this design project, a mixed-use development at a site owned by Ted Baker and the British Airways Pension Fund (BAPF) is proposed. The redevelopment scheme consists offices, residential complexes, and outdoor open spaces for public use. Besides, this imaginative architectural design exploration not only is applicable to the present - i.e. climate, density, lifestyle trend, occupancy uses, it will also consider the future climate change scenario. The design proposal integrates passive strategies for heating and cooling, using low energy appliances and providing green open spaces to prevent heat island effect. The main goal is to create a pleasant, adaptive living environment for both current and future users of the scheme.


01 SITE Respecting existing natural topography - opening central spine to allow daylight into courtyard and respecting wind flow.

VOLUME 04 CREATING Volume adapting to current lifestyle.

07 ORIENTING TO THE SOUTH

To allow useful daylight into offices located on the lower floors.

02 OFF-SETTING For general public access and creating pedestrian circulation flow.

VIEW 05 OPTIMIZING Providing views into the canal and upcoming developments of Kings Cross regeneration schemes.

08 GREEN ROOFS To provide heat sink.

03 ALLOWING SUNLIGHT

To maximize daylight into the courtyard and inner faรงade.

Annual sunlight hours analysis of Sun Canyon

06 ATRIUM FOR

SUN-CANYON

Providing daylight and cross ventilation for lower floors with deep plans.

Shadow analysis - Spring Equinox South-West perspective

09 FINAL FORM Shadow Mask of Sun Canyon - Summer Solstice

(Source: Meteonorm and Lady Bug)


SOLAR RADIATION ANALYSIS SUMMER

WINTER

SUMMER

Perspective A

Perspective B

WINTER

Perspective C

CFD ANALYSIS

Perspective D

m/s

Blow-up wind analysis of 5th floor residential (Source: Autodesk CFD)

Analysis of 5th floor -Section A-A

Analysis of 2nd floor -Section B-B Site Plan

Analysis of 5th floor plan

The wind analysis of Sun Canyon has been studied at two different scales - (i) the overall massing, to analyze how the built form interacts with south-west prevailing wind; (ii) blow up of the indoor plan of 5th floor residential and 2nd floor office, to test results of natural cross ventilation. With south-west prevailing wind, it could be seen that the Sun Canyon built form (i.e. layout and orientation) has taken the prevailing wind conditions into consideration. Moreover, the orientation of the open space along with the cascading built form having deeper plans on lower floors and narrow plans on high floors, have in fact helped reduce the possibility of wind trapping within the site. Thus, with the centre large open space as the feature of Sun Canyon, the built form has helped to avoid the clustering of strong wind streamlines or wind turbulences. With operable windows installed on the exterior facade and cross windows on walls of individual units adjacent to the central courtyard area, it is seen that the prevailing southwest wind can flow into the central courtyard via. south-west units. Likewise, wind from courtyard will also flow into individual north-east units and back into the external areas.


0 6.

WINDOW-FLOOR RATIO

m .0 12 0 6.

m

m

NW

N

%15

NE

0 5. m

W C:\Users\User\Downloads\plan sun canyon (1).dwg, Model, 13/03/2018 13:34:57, DWG To PDF.pc3, ISO A3 (297.00 x 420.00 MM), 1:1000

E

C:\Users\User\Downloads\plan sun canyon (1).dwg, Model, 13/03/2018 13:34:57, DWG To PDF.pc3, ISO A3 (297.00 x 420.00 MM), 1:1000

%25

SW

SE

S

%30

THE STUDIO

THE 2-BEDROOM FLAT

THERMAL ANALYSIS Internal Gains

Internal Gains 50%

50%

40%

30%

equipment

5 W/m²

people

X4

40%

30%

equipment

3 W/m²

people

X1

20%

20%

3 W/m²

10%

lights windows

0%

1.5 W/m²K

-20%

-30%

-40%

lights windows

0%

-10%

infiltration

0.2 ac/h

envelope

0.2 W/m²K

1 W/m²

10%

2.0 W/m²K

-10%

-20%

infiltration

0.2 ac/h

envelope

0.2 W/m²K

-30%

-40%

-50%

-50%

Heat Losses

Heat Losses

Wh/m²

Wh/m²

PASSIVE DESIGN STRATEGIES APPLIED global horizontal rad. diffuse horizontal rad. comfort band outdoor temperature

SOLAR PROTECTION

unconditional with shading

NW

with natural ventilation 30.07

31.07

06.12

07.12

THE 2-BEDROOM FLAT

2 kWh/m²a THE STUDIO

night shutters NE

W

ANNUAL HEATING DEMAND 6 kWh/m²a

N

vertical shadings

E SW

SE

S

horizontal shadings


BIOMASS POWERPLANT & ALGAE FARMING

ALONG ANKARA STREAM: A SUSTAINABLE URBAN PROTOTYPE

Project Type: Individual Academic Work Location: Bilkent University, Ankara, TURKEY Year: 2016 Spring Instructor: Mark Paul Frederickson

The following project focuses on the emblamatic of the forementioned developmental issues in that it offers an alternative vision for the Ankara river basin and urban riverfront. The overarching intent is to suggest a sustainable urban living prototype for Ankara. A prototype that approaches sustainability across an array of dimensions: Economic, Environmental, Cultural, Aesthetic and Functional. The project is a collective work where primarily, the masterplan is synthesized. The individually chosen programme is designing a sustainable Biomass Powerplant, consisting of a landscape of algae farming located along the riverfront. The redevelopment of the Ankara river basin connects the Biomass Powerplant to the proposed Eco-Village through the landscape of algae farming, where microalgae is cultivated as an energy source.


SITE ANALYSIS

LAND USE Agricultural Residential Government Industry Military Mixed-Use Brownfield Open Areas

HOUSE PRICES IN DIFFERENT DISTRICTS 100,000TL - 150,000TL Etimesgut, Sincan, Ulus 150,000TL - 300,000TL Elvankent, Eryaman 200,000TL - 450,000TL Batıkent, Gazi Mah., Varlık Mah. 450,000TL - 1,000,000TL Beştepe

BUILDING CONDITION Removable Salvageable Good Condition

SYNTHESIZED MASTERPLAN

1. Eco-Village 2. Water Treatment 3. Mixed-Use 4. Park with Sport Facilities 5. Preserved Area 6. Vocational School 7. Residential Area 8. Research Center 9. Eco-Village 10. Green Houses 11. Affordable Housing 12. Wild-Life Observation Park 13. Green Houses and Botanical Garden 14. Wholesale Food Market 15. Affordable Housing 16. Mixed-Use To view the book aboıt this project, please click the link below: http://www.blurb.com/books/7210954-along-ankara-stream-a-sustainable-urban-prototype


WATER INDUSTRIAL WASTE AGRICULTURAL WASTE ANIMAL + PLANT RESIDUE CROPS

ELECTRICITY FUELS WASTE-FIRED COMBINED HEAT AND POWERPLANT HEATING SOIL

BASEMENT FLOOR PLAN THE WATER TREATMENT CENTER COLLECTS AND CLEANS THE ANKARA STREAM AND ALSO CLEANS THE WATER USED THROUGHOUT THE POWERPLANT AND RE-USES IT

RAMPS SURROUND THE SMOKE STACK FOR VIEWING AND END UP AT THE WALKABLE ROOF

HANGING TUBES OF ALGAE FOR PEOPLE TO EXPERIENCE AT EYE-LEVEL

SUN FEEDS ALGAE CO2

GROUND FLOOR PLAN

SECTION B-B

CO2

CO2

ALGAE TUBES CROSSING THE MAIN ROAD, COLLECTING C02 FROM THE CARS

TERRACES ALONG THE STREAM

CO2

EXPERIMENTAL ALGAE HANGING GARDEN

UNDERGROUND PARKING

BRIDGE TO THE ECO-VILLAGE


CO2

CO2

CO2

CO2

CO2

BIOMASS PRODUCTION

CO2

ALGAE TERRACES Delivering industrial waste and residue to the Biomass Powerplant

Logs / Waste

Chipped wood / Waste

Steam Producer

Microalgae is cultivated as an energy source in bioreactive tubes with photobioreactors. The bioreactive tubes aborbs CO2 and stores solar heat in the form of biomass. Cultivating microalgae could be a significant complementary system to PV’s for future zero-energy and zero-carbon buildings. Waste Wood / Waste Chipper

Condensor

Whare

Turbine

Generator Produces Electricity

MORE AMOUNT OF SUN IS COLLECTED FOR THE ALGAE BY THE SEMI-SPHERICAL GLASSES

Combustion Used for Agriculture and Greenhouses Residue

VIEWS OF ALGAE SUN FEEDS FROM ROOF ALGAE

SECTION A-A

RAMP SURROUNDS THE BIOMASS POWERPLANT FOR MORE VIEWS


SPACE, SCIENCE & TECHNOLOGY CENTRE Project Type: Individual Academic Work Location: Bilkent University, Ankara, TURKEY Year: 2015 Fall Instructors: Glenn Kukkola, Yasmin Kaygusuz

The Space, Science and Technology Centre is located on the Bilkent University Campus, designed to educate and inform the public on technology existence and advances made in the areas of astronomy, space exploration, science, and technology. The Centre has many exhibition spaces, public education areas, a demonstration lab, multimedia presentation spaces, conference rooms, offices, a fully functional observatory with a telescope, as well as a hydroponic garden, an Imax theatre and a planetarium. The main objection of the project concentrates on designing a structural system for the Centre that intends to improve the performance by creating greater spaces. The system inspired by the complex molecular structure is actually a single element. But once the simple structure connects to one another, they make up a model. By linking many models, a huge sytem results in an organization that is at once identified as a systematic and complexlooking structure.


The structural system is unique in itself as the connection between each chain-linked element gives the resemblance of a complex molecular structure. Thus, the design is inspired by the purpose of the centre itself. The arrangement of the glass system, while isolating the interior, creates three dimensional spaces within the connected structural system, showing semblance to crystalline structures.

Stainless steel plate 10cm

STRUCTURAL ELEMENT DIMENSIONS Holes cut in plates for lightness Stainless steel hollow section 10cm Stainless steel plate panel 5cm EXPLODED ASSEMBLY OF STRUCTURAL ELEMENT

STRUCTURAL ELEMENT SECTION


There are two entrances to the centre, one is the main entrance across the Bilkent University Campus. The other entrance is from nature. It brings inside a green belt which surrounds the centre, having the exhibition spaces surrounding it. The interior spaces are mainly connected with ramps, becoming a handicapped-friendly centre. They surround the planetarium and the Imax theatre along with the other functioned spaces. Having a circulation system consisting of ramps makes the spaces seem endless and also allows the users to explore the structural system on different levels.

Hot Dipped Galvanized Steel Plate Almuminium Stop Frame 120 degree Aluminium Tubular Structural Glass slope 20 degrees

B

A Extruded Aluminium Seat

SECTION A-A A B

TOP VIEW OF THE STRUCTURAL MODEL Structural Glass slope 20 degrees

SITE PLAN

Hot Dipped Galvanized Steel Clip Insulation 0.5cm C-Channel 5cm

Aluminium Tubular Frame System 50x150cm

SECTION B-B

SECTION B-B


FIRST FLOOR PLAN

SECTION S-S

SECTION A-A

GROUND FLOOR PLAN

FIRST BASEMENT FLOOR PLAN




PASSIVE DESIGN FOR A VINEYARD HOUSE IN ATLAS VILLAGE, TURKEY MArch Architectural Association School of Architecture Sustainable Environmental Design Project Type: Individual Work - MArch Dissertation & Client Project - Housing Location: Atlas Village, TURKEY Year: 2019 Instructors: Simos Yannas, Paula Cadima This dissertation project provides guidelines for elements related with passive design, specifically for detached houses in Eskişehir or climates similar to it. The passive design principles deprived from the literature review and analytic work are analysed, where the application is pursued by designing a residential detached house located in one of the vineyards of Atlas Village, in the city of Eskişehir, Turkey. Focusing on a sustainable and contextually manner, the final design sustains the environmental difficulties by achieving adequate levels of daylight, thermal comfort and ventilation requirements with the use of passive strategies and a minimum requirement to use mechanical heating during the year. To compare, the amount of heating needed for the vineyard house to achieve comfort is calculated as 29.96 kWh/year/m², which is double the amount of energy needed for a Passivhaus and 10 times less than the amount needed for a middle income family of four in Turkey, according to TEIAŞ. Ultimately, the vineyard house will be a sustainable prototype for Turkey, proving that by incorporating passive design princples, a building could adapt to the environment, as well as to climate change.


03

02

SITE ADAPTATION / SLOPING & STEPPING DOWN

ELONGATED FORM / SPACES FACING SOUTH FOR PASSIVE SOLAR HEATING & VIEWS

06

01 DIMENSION REQUIREMENTS GIVEN BY THE CLIENT

CONSERVATORY / 05 ADAPTABLE ENHANCING DAYLIGHT & THERMAL COMFORT

04

CLIMATE ANALYSIS & PASSIVE DESIGN STRATEGIES

FINAL FORM


IMPROVING INSULATION

U=0.4W/m2K U=0.5W/m2K U=2.3W/m2K

infiltration=0.4 ac/h

IMPROVING GLAZING

ADDING NIGHTSHUTTERS

U=0.4 W/m2 K

5 W/m2

SOLAR CONTROL

3.33 W/m2

USING AN ADAPTABLE CONSERVATORY

4 occupants

As the sun angles are the lowest during winter solstice during the year, simulations testing glare in spaces are performed. The dining room and bedrooms are tested at times where glare could be at its peak, however, the results illustrate that glare does not affect these spaces. The daylight analysis is conducted in summer and winter solstice at 12.00pm. The sky condition is set as sunny and the tested grid surface is set 1 meter above floor level. Based on the handbook of CIBSE, the minimum lux levels for a space is recommended as: 150 lux for bathrooms, 100 lux for bedrooms, 150-300 lux for the kitchen and 50-300 lux for the living room. The simulation results testifying visual conditions prove comfort for all working areas of the design.

GLARE ANALYSIS

DAYLIGHT AUTONOMY

USEFUL DAYLIGHT ILLUMINANCE

Ground Level

Ground Level

Level 1

Level 1 DA / UDI

INFILTRATION HEAT LOSS

20000

SOLAR GAIN

15000

EQUIPMENT

10000

LIGHTS PEOPLE

5000

COOLING

0

HEATING

-5000 -10000

BASE CASE

BASE CASE

FINAL

FINAL CASE

The illustration displays the energy consumption comparing the base case to the final case. The amount of heating needed for the vineyard house to achieve comfort is calculated as 29.96 kWh/year/m².

cd / m2 3000 2700 2400 2100 1800 1500 1200 900 600 300 0

25000

21 DEC / 12:00

WALLS CONDUCTION

ILLUMINANCE 21 DECEMBER 12:00

ILLUMINANCE 21 JUNE 12:00

Ground Level

Ground Level

Level 1

Level 1

21 DEC / 09:00

30000

SOUTH ORIENTED SPACE / DINING ROOM

ENERGY CONSUMPTION (kWH)

% 100 90 80 70 60 50 40 30 20 10 >0

8m

WINDOW TO WALL RATIO

GLARE

LUX

1000 900 800 700 600 500 400 300 200 100 0

18.5m

Daylight Autonomy (DA) and Useful Daylight Illuminance (UDI) simulations are performed to determine the visual quality of spaces. DA specifies the percentage of occupied hours per year when minimum illuminance levels can be maintained autonomously. The simulations display a 70% of DA where daylight is needed in the kitchen, living/dining room and bedrooms. The UDI simulations indicate the annual percentage of occupied hours when illuminance is within 100-2000 lux band. According to this criteria, the UDI shows an average of 80% in all floors. Glare simulations are further performed in the workspace to measure illuminance levels.

21 DEC / 15:00

ORIENTATING SPACES TO THE SOUTH

DAYLIGHT ANALYSIS

21 DEC / 12:00

PASSIVE DESIGN STRATEGIES

SOUTH-WEST ORIENTED SPACE / BEDROOM

SIMULATION INPUTS two-storey detached house north-south orientation floor-to-floor height: 2.7m total floor area: 260m2


SECTION DETAIL A

GROUND LEVEL

SECTION DETAIL B LEVEL 1 EXPLODED AXONOMETRIC VIEW


COLD SEASON STRATEGIES

OUTDOOR COMFORT

During the cold period, direct solar penetration inside the conservatory and spaces could be controlled by the night shutters. The adaptable conservatory is used during the cold season. As the conservatory is retracted, it acts as a sun space allowing the adjacent interior spaces to benefit from the effect of solar radiation. Wind protection is offered by sloping the roof towards the southern orientation, shielding the strong prevailing winds away from the north façade. The thick stone walls act as a good source for thermal mass.

The outdoor comfort analyses an annual or specific time of the day that simulates the outdoor microclimate of a specific urban grid. The evaluation encompasses the hourly effects of solar radiation, wind speed, relative humidity and physiological aspects, such as clothing insulation and metabolic rate. WARM & CLOUDY

COLD & SUNNY

9 AM

9 AM

16 PM

16 PM

0

Solar Raditation (Wh/m2)

30 25 20 15 10 5 0 -5 -10 -15

CO

20 15

900 800 700

-10

200

1000 900 800

100 COMFORT BAND 0

23/02 GLOBAL HORIZONTAL 23/02 COLD AND SUNNY DAY RADIATION [WH/M2]

COMFORT BAND

700

GLOBAL HORIZONTAL RADIATION [WH/M2]

600

Solar Raditation (Wh/m2)

300

0

Solar Raditation (Wh/m2) -5

23

23

21

19

17

15

13

9

11

30 26/08 26/08

WARM AND CLOUDY DAY 25 1000

35

25

7

5

3

35

Temperature (C◦)

30

100

400

5

21

-5 -10

200

Temperature (C◦)

600

19

0

700

17

300

800

500

15

5

900

10

13

400

9

10

15

11

500

20

7

600

15

25

5

700

20

1000

GLOBAL HORIZONTAL RADIATION [WH/M2] DIFFUSE HORIZONTAL RADIATION [WH/M2] DBT [C]

30

3

800

25

COMFORT BAND

35

1

900

Temperature (Co)

1000

30

Solar Raditation (Wh/m2)

35

1

Results proved that instead of using fixed solar shading devices, an adaptable operable system is more efficient, as it is only necessary during the warm periods. The operable solar control systems avoid direct solar penetration inside the spaces. Air flow is provided by cross ventilation through the openings of the south, east and west sides, as well as the openings of the skylights. In the hot season, as the conservatory is not used, the whole layout is more permeable around its perimeter, as the glazed surfaces open up to the courtyard, connecting to the outdoor spaces.

Temperature (Co)

HOT SEASON STRATEGIES

DIFFUSE HORIZONTAL RADIATION [WH/M2] 500

DIFFUSE HORIZONTAL RADIATION [WH/M2] DBT [C]



THE SWIRL EVOLO Skyscraper Competition Project Type: Group Work - Skyscraper Design Location: Mumbai, INDIA Year: 2018 Team: Mert KilcioÄ&#x;lu, Ayça Sapaz Role: Design concept and sustainability analysis. The Swirl proposes to transform the large footprint of the informal structures into dense green areas while keeping the density and already established sense of neighbourhood and to collect the housing in a compact point block typology; a skyscraper. It builds a connection between different communities through the cultural references it takes and social activity spaces it offers, thus creates a social and morphological swirl in Mumbai, India. The Swirl has a mixed-use sustainable design that aims to produce the lowest amount of carbon dioxide emissions from gas and electricity usage than an average development in India of the same size with the equivalent amount of users. In present day, India comes the fourth in the production of bamboo materials over the world. In the main structural frame of The Swirl, recycled steel and space-frame systems are used as a supportive structure and division elements, bamboo is used as a secondary structural material, therefore the local producing and regional materials are highlighted within the building as well as the affordability of the overall structure. Moreover, bamboo is prefered in the sense that it is a fast growing plant with durable and elastic surface.


01 THE CURRENT URBAN PATTERN

02

Mumbai’s current urban pattern is mainly the juxtaposition of high-rise buildings and informal settlements that grow in unbuilt areas.

TRANSFORMATION OF THE LAND

The interstices of the existing buildings could be transformed into vibrant urban spaces, having activity spaces and dense greenery.

MAIN STRUCTURAL FRAMEWORK

VERTICAL STEEL GRID ELEMENTS

03

REVITALIZING THE WATERFRONT

04

The informal settlements occupy a lot of ground coverage.The initial idea is to transform the large footprint of the existing informal structures into dense green areas.

05

APPLYING PASSIVE DESIGN STRATEGIES

To benefit from useful daylight and to avoid unnecessary sunlight, the design is based on a climate analysis, shaping the built-form.

THE NODE

By collecting the housing in a compact point block typology; a skyscraper is connected to the dense green areas.

SURFACE CONFIGURATION

06

FINAL FORM

The skyscraper builds a connection between different communities through the cultural references it takes and social activity spaces it offers; thus creates a social and morphological swirl.

CURTAIN WALLS AND BAMBOO STRUCTURE

FINAL STRUCTURAL SYSTEM


m/s CFD ANALYSIS 10 The impact of wind on the skyscraper and urban scale has been tested, investigating different wind speeds and directions. With strong south-west prevailing wind flowing from the urban area, the Swirl minimizes the velocity 5 of the wind, as it reaches the built form.

0 N

The large open space in the center, as a feature of the Swirl has also optimized the design and performance based on accurate CFD simulations and ensured pedestrian wind comfort and safety, by avoiding the clustering strong wind streamlines or wind turbulences.

STACK EFFFECT

15< The Swirl is designed to reduce greenhouse gas emissions and to provide water management. Its ambitions are to create a greener, lower impact lifestyle for the occupants by relying less on cars and producing less waste thus, reducing the carbon footprint fundamentally.

SUMMER SUN PV PANELS

The slits on the exterior skin surface allow stack effect throughout the building and improves natural ventilation, especially during warm days.

The extensive photovoltaic (PV) panels on the roof and surfaces that are incorporated

SOLAR RADIATION HOURS

10

5

0

on the south facing façades are designed to supply a part of the skyscraper’s electricity. The analysis of the solar access represents the sunlight hours on the building mass during the day. The building is oriented so that it receives the maximum amount of solar radiation on a cold season, minimizing the heat loss produced by the prevailing winds.

WIND ANALYSIS m/s 10

WINTER SUN

5

RAINWATER COLLECTION & REUSE STACK EFFFECT

0


LEARNING CENTRE VIEWING POINT

RESIDENTIAL UNITS WORKING AREAS COMMUNAL KITCHENS

RESIDENTIAL UNITS GREENHOUSES COMMON ROOMS

The ground level of The Swirl serves as a community hub at the intersection of the green corridor and the existing urban axis. The local commercial units and food markets are centralized around the conservatories that provide agricultural and economical activities for the users. The entrance creates a frame for the visitors as they walk through the swirling path and the square serves as a public space with cafes and a vista point. The upper floor plates contain housing units for families and community activity areas having common rooms, shared kitchens and amenities. The top floors have a learning centre and working areas for the residents.

COMMERCIAL UNITS GREENHOUSES RECREATIONAL FACILITIES


CO-HOUSING PROJECT: DORMITORY FOR STUDENTS Project Type: Individual Academic Work Location: Bilkent University, Ankara, TURKEY Year: 2014 Fall Instructor: Mark Paul Frederickson, Giorgio Gasco The co-housing project initiated by developing a master plan for the whole site, then focused on a functional building that was appropriate for the site. The function of the co-houses were planned mainly for academic instructors, students and admins of Bilkent University. The site is located around a small lake which is located in the east campus of Bilkent University. A dormitory for the students was proposed, consisting single and double bedrooms, as well as studio rooms, where certain roomtypes have top levels. The facility rooms are placed accordingly to the functions. Common areas for relaxing, working and gathering are presented in the central part of the dormitory, which have a two-storey high cafe. The common spaces have openings for daylight and viewing, where students can enjoy the nature. The proposed design encloses nature in between the bedrooms, as the trees create privacy.


01 PROGRAM

REQUIREMENTS

The program requires both private and public spaces for student rooms and other common areas overlooking a lake in a university campus.

02

WHERE HORIZONTAL MEETS DIAGONAL

The intersection of the horizontal and diagonal lines create emphasized spaces that could be transformed into vibrant spaces, which ease the circulation.

& SEPARATION 03 SETBACKS The Mondrian grid with its empty and full shapes inspires the layout for the student rooms, having spaces that are separated and setbacked from eachother. The setbacked spaces create courtyards for privacy.

04

ACCENTUATING THE ENTRANCE & PUBLIC SPACES

05 THE EXRTUDED PRISM MASSES

The public areas are raised on the north side, blocking away the northern winds and creating views towards the lakeside.

The common spaces are divided into areas and levels by the extruded prism-like masses located on the roof, which create views and transparency between the large spaces and the scenic landscapes.

N FIRST BASEMENT FLOOR CONTRAST OF DIAGONAL LINE AND CURVILINEAR LINES

INFLUENCED BY MONDRIAN GRID FOR THE PLAN AND SECTION

N GROUND FLOOR

LIVING MACHINE

SECTION B-B


VARIOUS ART & PHOTOGRAPHY

Charcoal pencil drawings from 2010 to 2016


Marble Table, motifs carved by acid etching method, 2012

Life in a Hourglass, glass sculpture, 2011

Tiki Sculpture, carved from wood, 2011 Watercolor of a garden, 2012

Tiki Sculpture, carved from aerated concrete, 2016

Collage of seff portrait, using leaves and colored paper, 2012

Design of a bicyle, using welded steel tubes and bicycle tires, 2010

Perception of Travel, using analogous and complementary colors, watercolor, 2012

Sun printing studies using potassium dichromate, photos of Istanbul, 2011


All photos taken with Zenit 18 Camera

MAXXI Museum, Rome, ITALY

MAXXI Museum, Rome, ITALY

MAXXI Museum, Rome, ITALY

Reichstag Building, Berlin, GERMANY

Shell House, Berlin, GERMANY

The Jewish Memorial, Berlin, GERMANY

The Jewish Museum, Berlin, GERMANY

The Brion Cemetery, Treviso, ITALY

The Brion Cemetery, Treviso, ITALY


All photos taken with Zenit 18 Camera

Rome, ITALY

Rome, ITALY

Ankara Castle, Ankara, TURKEY

The Jewish Museum, Berlin, GERMANY

Metropol Parasol, Sevilla, SPAIN

The Sony Center, Berlin, GERMANY

Madrid, SPAIN

Asakusa Sensoji Temple, Tokyo, JAPAN

Milan, ITALY

Plaza de España, Sevilla, SPAIN


From the presentation of when distinguished guests came to Bilkent University, Architecture Department, 2015 From right to left: - Prof. Mohsen Mostafavi, Dean of Harvard Graduate School of Design - Bilkay Begüm Peker - Hines Prof. Michelle Addington, Sustainable Architectural Design at Yale University School of Arhcitecture - Prof. Michael Bell, at the School of Architecture, Planning and Preservation at Columbia University - Assoc. Prof. Şule Taşlı Pektaş - Assoc. Prof. Meltem Gürel - Prof. Glenn Kukkola


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