AAP_Volute
Our first design book: "Volu-te" is now online!
Our first design book: "Volu-te" is now online!
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AAP
DESIGN
VOLU-TE
Living Stairs
2019-2020
Micro Living
A L T E R N A T I V E A R C H I T E C T U R A L P R A C T I C E S
M E F U N I V E R S I T Y G R A D U A T E P R O G R A M M E
DESING I MICRO LIVING
AAP TEAM
Students: Ahmet Yaymanoğlu, Aysima Akın, Damla Kaleli, Dilek Yürük, Ebru Şahinkaya, Eda
Yavaş, İlayda Baydemir, Nur Gülgör, Sena Hut, Zeynep Ulusoy
Studio Instructor: Oral Göktaş
Program Coordinators: Kürşad Özdemir, Sevince Bayrak
Program Partners: Fibrobeton, Metal Yapı
2019 - 2020
MEF University Graduate Programme
INTRODUCTION
There has been a remarkable interest in small scale living, starting from the beginning of
the 20th century, accelerating in the last decade. Pick one of the adjectives such as micro,
tiny, small, mini and add on a word like house, cabin, home, living..you’ll get a great variety
of examples that is combined under the umbrella of small scale, from a simple shed in the
woods to a high-end cabin on a rooftop.
This semester AAP contributes to this topic, with the design of a unit called Volu-te*. After
a full semester of research on previous examples, AAP wants to raise the question of
whether or not a small scale living unit can propose an active network in a metropolis.
Hence, unlike most of the contemporary examples, Volu-te is not a single unit, it comes
with a proposition of a network system. With the idea of this small-scale living unit network,
the efficiency of being small comes together with the power of being united.
But why a network of micro-living units is necessary for a big city? Over the last century,
the housing industry has been mostly dominated by the demands of the nuclear family
however more recent data shows that demographics of big cities are also rapidly changing.
Life in a big city is composed of both ambiguous and stable times, which requires different
living conditions. In a metropolis, an individual is likely to move their house several times
in a life period. Volu-te is a micro-living unit network for the transition phases of
individuals in big city life.
Volu-te is a temporary living unit, specially designed for places like Istanbul, a city with
an uncovered network of leftover voids. It is a vertical and fully prefabricated unit, which
makes it easily fit in the leftover voids in the city and leave without a trace when necessary.
This book presents the design research that feeds the design process of Volu-te, with
alternatives, as well as the final drawings and representations of living conditions in this
unit. The book also resembles how the idea of a network of micro-living can be applied in
a city like Istanbul.
Sevince Bayrak, Program Co-coordinator, MEF FADA
Volute*: A volute is a curved funnel that increases in area as it approaches the discharge port. The volute of a
centrifugal pump is the casing that receives the fluid being pumped by the impeller, maintaining the velocity of the
fluid through to the diffuser. (Source: Wikipedia)
Koza, Interior Rendering
CONTENTS
1.CONTEXT
6-21
2.BODY & SPACE
22-37
3. EXTERIOR AND URBAN CONTEXT
38-47
4. CYCLES
48-59
5. STRUCTURE
60-71
6. CONSTRUCTION TECHNOLOGY
72-89
7. SITE STUDIES
90-97
8. ECONOMIC MODEL
98-105
1.CONTEXT
Yona Friedman’s Ville Spatiale proposal from the 1960s
“In 1950, 30 percent of the global population used to live in the cities and this ratio exceeded 50 percent in
2010, which means 3.3 billion people became urbanite. By 2030, the urban population projected to reach 60
percent. Therefore there will be more than 5 billion people living in the cities.”
Nüfus ve Toplum, Doç. Dr. Aslı Didem Danıs Senyüz
More than half of the global population is currently living in cities and this ratio is on the increase. As a result, rising
population density creates “megacities” that consist of more than 10 billion people, and new ones are added every
year. The opportunities in fields such as business or education feed the high demand to live in a city. However,
megacities do not have a basic foundation to supply this demand according to the changing daily circumstances.
Even though the requirement for a living unit is one of the most important basic human needs, it is challenging for
an urbanite to find a suitable dwelling as a result of high ground rent values. The housing prices are not proper for
average income citizens, because of an imbalance between income and outcome in these megacities and it forces
people to be tenants rather than owners. In some cases, being a tenant is even can’t be afforded by people, and
every city deals with this problem with different methods. “House sharing” is popular in London, which is one of the
most expensive cities in the world, therefore people prefer to rent a room rather than a house. Moreover, Hong Kong
is worse than London as there is a limitation on land, which results in people with an average income living in a small
room but low-income people in “cage homes” where only one person can fit inside.
On the other hand, some people prefer to be a tenant with the perception of “groundlessness” as a tactic to adopt
for living in unsteady cities of the 21st century. Besides, people who can afford to become property owners or buy to
rent, manage their ownership with a commercial concern. It creates an opportunity for new intermediary organizations
to use this ownership. For example, Airbnb does not own hotels or houses, Uber does not have cars, and food
delivery companies do not even have a restaurant. This is another kind of tactic to adapt an unsteady economic
system with “groundlessness”.
Paris, Fran
10.8M - 11
CONTEXT
Megacities in the World
London, UK
10,3M - 11,4M
New York, US
18,5M -19,8M
Los Angeles, US
12,3M -13,2M
Bogota, Colombia
9,7M -11,9M
Lagos, Nigeria
13,1M - 24,2M
Mexico City, Mexico
21M -23,8M
K
1
Rio de Janeiro, Brazil
12,9M - 14,1M
Current Megacities
2015 population
2030 population
Luan
5,5M
2015 population
2030 population
Sao Paulo, Brazil
18,5M -19,8M
Buenos Aires, Argentina
15,1M -16,9M
8
DESIGN
Moscow, Russia
12,1M - 12,2M
Chongqing, China
13,3M - 17,3M
Istanbul, Turkey
14,6M - 16,7M
Delhi, India
25,7 - 36M
Lahore, Pakistan
8,7 - 13M
Chengdu, China
7,6M - 10,1M
Beijing, China
20,3M - 37,1M
Shangai, China
23,7M - 30,7M
ce
,8M
Karaachi, Pakistan
16,6M - 24,8M
Ho Chi Minh City, Vietnam
7,3M - 10,2M
Tokyo, Japan
38m - 37,1M
Cairo, Egypt
18,7M - 24,5M
inshasa, Congo
1,5M - 20M
Mumbai, India
21M - 27,8M
Bangkok, Thailand
9,2- 11,5M
Manila, Philippines
12,9M - 16,7M
Jakarta, Indonesia
10,3M - 13,8M
da, Angola
- 10,4M
Johannesburg, South Africa
9,7M - 11,9M
9
CONTEXT
Nakagin Capsule Unit by Kisho Kurokawa, Tokyo
photographed by Arcspace
Capsule Inn Osaka by Kisho Kurokawa
Living Cubes and Resource Tower from Nomadic
Furniture vol.1
Cage Homes, Hong Kong photographed by Bobby
Yip-REUTERS
Micro Compact House, O2 Village, Munich by
Richard Horden
Keret House by Jakub Szczesny, Warszawa
photographed by Bartek Warzecha,Polish Modern
Art Foundation
OPod Tube Housing by James Law Cybertecture,
Hong Kong photographed by Xiaomei Chen
Caravans in Wiesbaden Trailer Park photographed
by dpa
Excrescent Utopia by Milo Ayden De Luca
Light House by All(zone), Chicago Architecture
Biennial 2015 photographed by Soopakorn Srisakul
The Shed Micro Homes, London by Studio Bark
An example from London Houseboats photographed
by Tom Watkins-BBC
10
DESIGN
Micro Living
“Humanity is increasingly moving into cities, but the Earth isn’t getting any bigger. That means our apartments
are getting smaller and our living arrangements denser. Some people get roommates to avoid living in such
small spaces. Others, because of poverty or personal obligations, have no choice but to accept their crowded
circumstances. We don’t know how they do it, but somehow they make it work.”
Bobby Yip/Reuters
Micro living can be an obligation for urban conditions, but it also suggests getting smaller and taking up less space in
the world. It is not only about putting more people in limited land. Living in a micro-unit can describe a different way
of life. This living scenario is not a new invention that proposes to leave a minimum mark on the planet. The concept
of “Minimal Existence” developed to access appropriate housing in Between the Wars. It can be expressed as a
minimum subsistence dwelling to build quickly. With this concept, discussions have started about the minimum and
acceptable standards of a dwelling to have access to fresh air and daylight.
Living in minimal standards experimented in Nakagin Capsule with the perspective of metabolism in the 60s;
however, there are still questions about the suitability of these fabricated capsules for living practices. According to
the users’ feedback, non-replaceable finished components and materials did not allow the adaptation of the place in
permanent conditions. After the 2000s, the cabin culture was popular in rural areas and people preferred to spend
their weekends in tiny cabins in nature to forget the weary city life. However, the temporary tiny living practice didn’t
continue in the city and people turned back their spacious houses formed by extra rooms or a big living room. On
the other hand, the housing crisis in megacities questioned on how to adopt weekend houses into the cities. That
discussion adds a new vision to the Minimal Existence concept with current living practices of the 21st century.
Some people begin to share their homes as it is not economically affordable anymore and some people prefer
minimal living units such as micro pods or houseboats. Despite the example of the Nakagin Capsule, the important
point is that they usually prefer renting those places rather than the motivation of ownership.
11
CONTEXT
00.00
Entertainment
Other
Eating
Sleeping
Transportation
18.00
06.00
Other
Eating
Transportation
Work / Education
Eating
Work / Education
12.00
Daily Time Circle
Working %5,2
TV / Netflix %5,2
Sleeping %73,6
Shower %2,6
Others %2,6
Home Time
Eating %10,8
12
DESIGN
Daily Routines time spent at home
Daily routines interact with living spaces and it represents the users’ lifestyles. As an example, while freelancers
usually create their home office area by multi functioning their living areas for various actions, others who have a
separate workspace only use their homes for defined purposes. Students and workers are the majority group of
settlers in a city and they prefer to live in their individual space rather than the traditional family house. Even though
it gets smaller in size, the single-person household means the increase in consumption of space as it provides
separate common rooms such as bathrooms, kitchen, and living room that would be shared otherwise. The daily
routines of this household profile are formed by sleeping, eating, traveling, working, or studying and relaxing, where
they mostly spend their time outside their homes with the cycle of work-transport-eat. The remaining part of the day is
approximately 9.5 hours at home for these people, and they spend 73% of this time sleeping. The picture shows that
our living spaces are transforming into hotels, which do not consist of any domestic activity. In the parallel case, there
is a reality as the housing crisis and high ground rent in megacities. As a result, these people occupy smaller spaces.
Firstly, they change their living unit from family-shared to individual, however; they share it afterward again with other
people because of economic insufficiency. This situation creates the following question: ‘’How much space do we
need to live?”
13
CONTEXT
Martı, Istanbul
People share their houses with this application in temporary periods and
it creates an international network between hosts and tenants. Some of
them rent homes that they are a tenant to and some of them using the
app for weekend holidays.
Airbnb
Space10 developed seven autonomous vehicles with different functions
such as office, cafe, healthcare, farm, play, hotel, and shop. People
book the space that is on the move and keep moving.
Space on Wheels, Global
Andrés Jaque projected a place for the Rolling Society after a research
period with Office for Political Innovation Design and the prototype
experienced in Barcelona. They define the space as “transnational
urbanism of non-familial shared homes”.
The Rolling House, Across Europe
Andrés Jaque projected a place for the Rolling Society after a research
period with Office for Political Innovation Design and the prototype
experienced in Barcelona. They define the space as “transnational
urbanism of non-familial shared homes”.
Net Room, Tokyo
Manboo transformed net cafe to net rooms that allow users to do
temporary activities such as sleeping, showering, etc. People rent
the private rooms for just an hour or a day and the transitory net cafe
refugees called “cyber-homeless” in Japan.
14
DESIGN
Transience people in transition
Andres Jaque creates a new term “Rolling Society” for describing people that are rolling between cities, and a new
semi-nomadic lifestyle is emerging that objects to the idea of being permanent. Besides not being able to find
affordable housing in cities, there is a supply-demand imbalance caused by the existing housing market failure in
responding to the changing-transforming demographic structure. Various ideas have been developed to take a
position against this situation through the investments of states, initiatives of private companies, and individual efforts
of citizens.
This semi-nomadic lifestyle is not just about the dwelling itself, it also consists of daily life habits in outdoor places
such as workspaces, transportation, and cafes. The concept of take-away is one of the reflections of transience
because people in rolling society don’t even have time to stop. Urban nomads inspire everyday life by adapting their
transiences into the spaces.
15
CONTEXT
Left Over Spaces in the city
The organic urban texture is a result of individual improvisations of urban users according to their construction and design practices.
Istanbul is one of the cities where organic urban texture is dominant and it is in constant change with new construction law every
year. Besides, the urbanite transforms spaces with the legal gaps and then a new law is enacted again. There are lots of unstable
factors on urban texture and they create the “leftover spaces” behind the scenes. Empty plots, derelict areas, and redundant streets
usually can not engage with daily urban life in unplanned cities. Some organizations try out to rehabilitate those places and some of
them experience the places with temporary interventions. In some cases, these practices can create awareness and be a catalyst
for being part of active urban life unexpectedly. There is a powerful potential to think about “the leftovers of the city” in the human
scale rather than “dealing with” them, and the small scale of interventions suggest the possibility of transforming the function of
space. As an example, the roof of Karaköy multi-story car parking has a Golden Horn and Bosphorus view but people usually prefer
initial floors for parking, and there are usually empty slots on the roof if it is not an extra busy day. Therefore, the question is “Can we
consider using 2.5 meters by 5 meters parking slots for other than cars?”
1. Empty plots in the city
2. Derelict Areas
3. Private Garden
4. Roof 5. Sidewalk Extensions 6. Redundant Part of Street and Squares
7. Roadside Parking 8. Open Air Parking 9. Roof of Multi Storey Parking
16
DESIGN
1. Empty plots in the city
2. Derelict Areas
3. Private Garden
4. Roof 5. Sidewalk Extensions 6. Redundant Part of Street and Squares
7. Roadside Parking 8. Open Air Parking 9. Roof of Multi Storey Parking
17
CONTEXT
Distribution of pods in Istanbul
Application Interface
18
DESIGN
Mobile Application
In a city like Istanbul, there are many voids, gaps, or undefined areas, whose potential has not discovered yet.
Located in places with high potential, Vole-te scatters over the city. This network is visible on the mobile application
so that the user could rent the module by using their smart-phone. It provides an alternative accommodation
opportunity for the tourists who arrive in the city or anyone who wants to stay during a short period. Users need to
enter the appropriate date and location information to rent the module. They log in the module securely via a code
that comes to their phone. The process is quick and practical that Volu-te becomes a part of the social network in
the city. As a result, in an era where time is the most important aspect of our lives, we offer an alternative to stay with
Volu-te.
19
CONTEXT
One Night in Volu-te
“What a day! It has been extra busy and difficult as I was already tired the day before. Waking up at 6 am
to travel to work for an early client meeting was torture after 4 hours of sleep. I had another site visit. Then
I got a text message from Nil trying to gather everyone for a couple of drinks tonight. I couldn’t refuse it as
I haven’t seen Arda for ages. He moved to Izmir after high school with his family and studied there, but I
heard that he came back to Istanbul now by himself to look for a job.
We met in Cihangir for dinner at Otto Cihangir and then carried on for some drinks at Mellow. It was such
an enjoyable evening, but it ended up at 1 am! Thankfully Arda mentioned that he stays in a micro-living
unit called Volu-te. He rented it for a few months so that he could look for a job while staying in a Maslak
pod near where the offices he has interviews with. I heard about it before, but I have never had enough
courage to stay in one of them. Ahh, I didn’t have enough energy to go back home, which would take
a minimum of 30 minutes to go back to Suadiye, and tomorrow morning I have another early meeting.
Considering the price of a taxi as well, I have decided to stay for tonight in Volu-te near Cihangir. I have
searched on my phone and found one near the underground station so that I can travel easily in the
morning to my office. I have paid through Apple Pay, and the code came to my phone, then I have scanned
the QR code to the door to open it. It was such an easy and practical thing to do, why haven’t I done it
before?! Hopefully, I slept more than 4 hours tonight.
It seems such a cozy space, there is everything I would need here. I just slept at night, and set my alarm
later what it would be if I was at home, had my shower and I had even had some time to have breakfast. I
have realised that my home is huge for me, I could live in a smaller one, which would be a more efficient
use of my money or even energy. I have even found some mint in the pot in front of the window and made
tea with it. Such a fresh start to my day, and it was a nice experience.”
20
2. BODY & SPACE
“The experience of architecture is
related to our bodily existence and to
the movement of the body in space“
Rudolf Arnheim
Embodied Spaces: On the Edge of Movement, Marianna Chrapana,
Virginia Giagkou/ Egnatias 94, Thessaloniki, Greece, 2017
“Dance and architecture have much
in common. Both are concerned with
practices of space. For a dancer, the
act of choreography as a writing of
place occurs through the unfolding of
spatial dimensions through gesture
and embodied body movement. For
the architect, space is the medium
through which form emerges and
habitation is constructed. For both,
the first experienced space is the
space of the body“
Carol Brown
Rudolf Von Laban’s Gammes Dynamosphériques, séquence de
mouvement “A” et “B” From: Danse et architecture. Nouvelle de danse
42/43. Editions Contredanse
The body tends to create its own moment by disrupting the spatial order imposed on it. On the other hand space
wants to activate the body in accordance with itself and manage its perception. Both components tend to violate the
expected behavior and disrupt another.
Neufert standardised the ergonomics of architectural elements and body expressions. Architectural design often
doesn’t embrace the movement of the body and its interaction with space. Considering that, new ways of relationship
between space and body movement sought. With the movement of the body in a microstructure, a different
ergonomics experimented. In Volu-te, the movement of the human body during the daily routine generates a base
for space creation. The volume occurs by the superposition of the combination of body movement instead of the
distribution as in conventional space set up within the module. Volu-te operates different spatial elements during the
configuration of space according to the human movement.
BODY & SPACE
Daily Routines horizontal distribution
The human movement could be neglected in spaces that are organized with conventional ergonomics. In addition to that, the spatial
configurations that separate each function as a single room can end up with maximizing the use of floor area.
Cooking Socializing
Working Urinating
Stocking Up Showering
Cleaning
Resting
Daily Routines vertical distribution
Rather than organizing rooms function by function with conventional ergonomics, Volu-te aims to experiment with how the actions
can intersect and merge in a vertical layout.
Resting
Showering
Cleaning
Urinating
Stocking up
Cooking
Socializing
24
DESIGN
6.10 m
2.50 m
Volume rather than area
Total usable space 18m3
Levels rather than floors
Total usable floor area 12m2
Modulor rather than Vitruvian Man
Not distribution but superposition
25
BODY & SPACE
Isometric Open Section
26
DESIGN
Fragmented Section
27
BODY & SPACE
Storage
Tank
Storage
Plan 1/30 +0.50 Level
Plan 1/30 +1.50 Level
28
Storage
DESIGN
Plan 1/30 +2.50 Level
Machine
Storage
Plan 1/30 +3.60 Level
29
BODY & SPACE
14
15
13
Plan 1/30 +4.30 Level
Plan 1/30 +5.00 Level
30
DESIGN
Plan 1/30 +5.50 Level
Isometric View
31
BODY & SPACE
Resting
The last stop resting or sleeping
level in all vertical home
activities flow. The floor is an
almost half dodecagon and the
fabric around it has windows and
polycarbonates at intervals
Urinating
The stair turns into the floor at
the urinating level without any
partition wall, and a divider
curtain can be added for
privacy according to the user
Showering
The showering level is reached
around the urinating space
Partition mesh at the working level
Kitchen stuff hung on the beam
Socializing
The circular table creates
a socializing area around
itself at the ground level
Outdoor resting
Stocking up
Under the stairs are used as
a storage for the functions at
the ground level. Kitchen stuffs,
books, shoes etc.
Section A 1/30
32
Sleeping 10
The second sleeping level is an
alternative platform to create
extra sleeping space for more
DESIGN
Cleaning
Cleaning level where people
can washing hands or brushing
teeth is at last the stair before
sleeping
Stocking up
There are shelves for stocking
up showering and urinating stuff
such as towels, shampoo, toilet
paper, etc in that transition
space
Mesh for safeness
Lighting
Working
There is a tiny table fixed to the
central column at the working
level and the stairs turn into a
seat
Entrance
Cooking
All kitchen activities are around
a circular table, cooking and
eating on one side and washing
up on the other side
Outdoor Flowering
Section B 1/30
33
BODY & SPACE
Cooking
Stocking Up
Chatting
Washing Hands
Watching
Eating
Organizing
Taking Shower / Urinating
Dressing
Working
Brushing teeth
Sleeping
34
DESIGN
Working Place
Cleaning Place
Resting Place
Cooking Place
35
BODY & SPACE
Cooking Place
36
DESIGN
Cleaning Place
37
3. EXTERIOR AND URBAN CONTEXT
As the characteristic of a micro-structure,
the interior and exterior border becomes
thinner. With the fact that Volu-te is a part
of the urban context, there should be a
strong relationship with the exterior. The
module, which is planned to be deployed
to the leftover spaces in urban areas, has
the potential to create an effective space
both for it’s the environment and the user.
In this section of the book, the limits that
Volu-te can expand in the exterior are
searched. In the different urban contexts,
alternative materials experimented.
Besides, due to the advantage of the
form and the way of construction modular
growth is studied.
Volu-te in Urban Context
Exterior Utilization Alternative
EXTERIOR AND URBAN CONTEXT
Pots for Bird Feeding
Plants
PV Panel
Wind Tribune
Door
Window
Canopy
Roof
Storage Tube
40
DESIGN
Isometric View
41
EXTERIOR AND URBAN CONTEXT
Corrugated metal cladding is an
option for façade cladding. The
material has a low weight and high
strength. It can be preferred due to
its ease of installation and minimal
maintenance during use. The
material, which is easy to access
on the market, is also available in
different colors.
Module with corrugated metal
Cardboard is made of postconsumer
waste paper and card,
which is a suitable alternative
material for quick and practical
solutions. Although it has limited
market availability, it is suitable for
façade cladding under appropriate
external conditions. Cardboard
tubes are suitable for establishing
a relationship with modules due
to their forms. Besides, it is an
alternative building material in terms
of sustainability.
Module with cardboard tube
44
Another option is to use fabric on
the façade. It can be applied with a
metal mesh where necessary. This
aesthetic effect provided on the
façade can make the structure more
permeable and flexible, and it could
support the relationship between the
interior and the exterior.
DESIGN
Module with mesh and fabric
Bamboo is a structurally strong,
fast-growing, and highly sustainable
material. It has the potential to
be an aesthetically pleasing and
cost-effective alternative. In this
scenario, it is an alternative façade
cladding option for the modules
when they are placed indoors or
in environments that are protected
from climatic conditions. Its form
is also suitable for the polygonal
structure of the module.
Module with bamboo
45
EXTERIOR AND URBAN CONTEXT
Typologies
Volu-te is designed as a singular micro-living module, but the advantage of the form and size opens a space for modular growth. In
an appropriate urban context, a gathering of the modules can create new potentials in leftover spaces. The polygonal structure of
the module is sufficient for horizontal and vertical growth. The blank side of the façade becomes the joinery element of the modular
horizontal composition. The lightweight steel construction structure enables the vertical composition. With the structure combining
vertical modules in vertical becomes more effective. Besides the vertical and horizontal modular combinations, the union of two
modules experimented.
The verticality provides a horizontal
composition without extra
infrastructure. As when we think that
if the module has horizontal planning
we should place one module on
top of the others and we will need
a staircase structure to reach the
module. In this way, in the urban
situation, two and more modules
can easily come together in a
suitable environment.
Horizontal composition of the modules
The polygonal structure leads up to
the horizontal combination but on
the other hand with the lightweight
structure design and spiral level
usage in the module it opens a
space for vertical combinations. The
structure of the module with levels
works as an outdoor staircase for
the modules.
Vertical composition of the modules
Volu-te designed as a micro-living
unit for 2 people to use. However,
the modular structure enables the
union of two modules for 3 to 4
person usage. The advantage of
levels and spiral settlement spaces
of modules can be united in two
levels. In the first level, one of the
cooking areas can be removed to
prevent doubling the spaces. As in
the level of shower and toilet, the
second unit can be removed for
new potentials.
Union of two modules
46
DESIGN
Vertical composition in an urban left-over space
47
4. CYCLES
Climate change, irresponsible land use, and the 6th great extinction are the most important environmental problems
that we are currently facing and experiencing their catastrophic consequences more each year. However, we strongly
believe that current green ideology is serving to make the world less sustainable, which doesn’t necessarily mean to
make it sustainable. It is only increasing the amount of time we could spend on Earth, it does not try to propose a
solution.
We designed Volu-te by taking into consideration the ecosystem, which includes living organisms and their
surroundings as a whole either in a city or in rural areas. Both in these settings, the footprint of the living unit was
our priority in terms of becoming mindful of the land that we require with minimum harm to the living organism in its
surroundings. Therefore, we have decided to focus on the most effective use of the volume on the smallest floor area
possible by maximising the useful area inside, which helped us to minimise the heat loss area through the fabric.
Volu-te is designed to generate adequate energy with solar panels in the summer and a home size wind turbine in the
winter to cover its water heating and electrical appliances, which has chosen carefully considering the real needs of
a living unit. Space heating has 2 options: an electrical fan heater for the city which would require extra energy and
a solid fuel heater for nature. In the urban scenario, we have imagined using the grid for necessary features such as
the removal of black water; however, for the off-grid option that could be implemented in the rural areas, we have
designed plug-in storage including the battery, rainwater collection tank, and black water storage.
CYCLES
2
1
10
14
8
8
13
12
11
6
1 260W TESUP Thin Flexible Solar Panel
2 500W Engelec Small Wind Turbine
3 Inverter
4 6000W Lithium Ion Battery Storage
5 A+ Mini Fridge 46L
6 Instantaneous Electric Water Heater
7 Iron
8 Electrical Socket
9 Electric Hob
10 LED Bulb
11 Laptop
12 Portable Compact Twin Tub Laundry Machine
13 Hair Dryer
14 Smart phone
10
9
8
8
6
7
3
5
4
Section Energy Management
50
RURAL
URBAN
DESIGN
1 Urban settings for heating: Dyson Purifying Fan Heater
2 Rural settings for heating: Dickinson Newport Solid Fuel Heater
3 Louvred Air Vents
4 Natural Ventilation
5 Solar Shading
6 Thermal Insulation
6
4
5
5
4
4
5
4
5
4
1
3
2
Section Comfort Management
51
CYCLES
Section Superposition of Systems
52
Calculations
800
kWh
800
kWh
DESIGN
400
kWh
400
kWh
0
Jan Feb Mar Apr May June July Aug Sept Oct Nov Dec
Electrical 0
Appliances
75 75 75 75 72 72 71 71 71 72 75
Jan Feb Mar Apr May June July Aug Sept Oct Nov Dec
75
Water
Electrical
Heating
Appliances
Internal
Water
Heat Gain*
Heating
Internal
Solar
Heat Gain* Gain*
Solar Space
Gain* Heating**
Space Energy
Heating** Production
Energy Solar
Production Panels
Solar Wind
Panels Turbine
83
75
36
83
36
59
59 677
677 120
120 70
70 50
83
75
32
83
32
69
69581
581 120
120 80
8040
50
75
36
50
36
96
96529
529 140
140 110
110 30
50
75
35
50
35
117
117353
353 135
135 130
130 5
50
72
36
50
36
134
134163
145140
1405
23
72
35
23
1350
165
165160
1605
23
71
36
23
1410
1805
185 0
23
36
138 0
170 30
33
35
35
135
36
141
36
138
35
113
36
130 30
33
75
36
50
91
35
25262
100 30 90
50
75
35
83
62
36
42051
200 72 160 252 130420
130646
185180
200 170 160 130 130 100130
90 130
40 80
Wind
50 40 30 5 5 5 5 30 30 30 40 50
Turbine *Internal heat gains are calculated based on assumptions that there are 2 people inside the living unit wearing relaxing clothes
with moderate speed of internal movement using the electrical appliances listed below. Solar gains are estimated as it is located
*Internal in an urban heat context gains are with calculated average based shading on factor, assumptions which that will decrease there are 2 the people energy inside need the for living space unit heating wearing in relaxing rural areas. clothes
with moderate speed of internal movement using the electrical appliances listed below. Solar gains are estimated as it is located
in **Space an urban heating context values with average represent shading the net factor, energy which needed will decrease to heat the energy living area need during for space the cooler heating month in rural throughout areas. the year
after the removal of the effects of total internal gains, which includes internal heat gains and solar gains.
**Space heating values represent the net energy needed to heat the living area during the cooler month throughout the year
after the removal of the effects of total internal gains, which includes internal heat gains and solar gains.
Equipments
163145
0
0
71
23
71
33
72
33
113 72 91
83
36
51
646
130
80
50
30mins/
30mins/
day
day
20mins/
20mins/
day
day
10mins/
10mins/
day
day
24hrs/
24hrs/ day
day
4hrs/
4hrs/ day
day
7hrs/
7hrs/ month
month
6hrs/
6hrs/
day day
8hrs/
8hrs/
day day
2hrs/
2hrs/
month month
*Each *Each image image represents represents 5 kWh/month 5 kWh/month
53
CYCLES
Built-in Storage on grid use
Gray Water Filter
Black Water Storage
Black Water Exit
Dual Flush
Clean Water Storage
Section 1/30 - Water Management
54
DESIGN
Section 1/30 - Water Management
55
CYCLES
Plug-in Storage off grid use
Volu-te has the flexibility to adapt either in the urban context or the rural. Inside the living pod, there are water storage areas
separated in different small tanks to reserve the required amount of water in urban areas. However, it is possible to use these areas
for extra storage in the rural context as it is possible to manage the cycle of water in an off-grid system with external implements.
Unlike in the city, an adequate cylinder tank has proposed to be attached to the pod externally. This tank consists of two sections,
that one is for the clean water storage and the other one is for the black water without the need for grid connection. Besides, with
the help of the roof slope, rainwater could be easily oriented through the tank to collect it for future usage. Afterward, the rainwater
could meet the clean water need in the pod with the help of a filtering device inside the water tank. At the bottom of the tank, there is
an area separated for the inverter and the battery storage.
Plan 1/30 - Infrastructure plug-in
56
DESIGN
Section 1/30 - Infrastructure Plug-in
57
CYCLES
Food Management
There are three platforms to grow vegetables that include annual and perennial edible plants. These platforms are vertical garden,
raised bed, and herb spiral. The vertical garden consists of small pots surrounding the façade where suitable, and raised bed is
located on the floor with the herb spiral. Herb spiral has similarities with Volu-te in terms of being an efficient way of vertical garden
design by locating plants that need dry microclimate at the top level and moist microclimate at the bottom.
Vertical Garden (A)
Herb Spiral (C_A)
Raised Bed (B_A)
Plan 1/30 - Food Management
58
DESIGN
14
5
3.53
1 4 1 1 17 6
4
3.07
1
2
6
14
5
3
2.57
1
2 14 17 17 3 4 5
2.07
3
6 18 5 1
1.57
1
14
+1.07
1
14 3 6 4
+0.60
1
1 2 5 6
0.00
Section 1/30 - Food Management
59
5. STRUCTURE
‘’As we approach the new millennium we face the need for less consumption and to achieve
fast build, light, and demountable architecture.’’
(Horden, R., 1996, Light Architecture)
The design process of a micro-unit is not just about shrinking the space. It aims to get smaller in
terms of searching the optimal in all aspects and reflecting this approach from the design phase to
the construction stage. In this context, the design and building technology of the structural system
has been refined. The dimensions and weights of the structural elements and the tools to be used in
the construction of the unit have been minimised.
Volu-te is a 6.10 meters high dodecagon prism with the longest diagonal of 2.5 meters. The
structural system is based on lightweight steel construction and it is formed by 16 different structural
elements made of 3 mm steel that are repetitive throughout the unit. While designing these
elements, dimensions, and weight have been the key factors to let an individual lift them by hand.
In this way, it would be possible to complete the installation with a simple scaffold and minimise the
use of cranes. Besides, the connection types of structural elements are standardised, and the entire
structural system can be built in a short time with a simple bolt and nut connection. With the help of
the design guide, which includes the dimensions of the structural elements, the connection details,
and the construction steps in detail, the structure can be installed simply with minimum tools and
methods.
STRUCTURE
Plan & Section 1/40
62
DESIGN
Isometric View Total Structure Weight 985 kg
63
STRUCTURE
Structural Elements
There are 16 different structural elements made of 3 mm thick steel. The entire structural system is set up with the repetition of
these elements. There is a distinguishable code for each element. In the diagrams below, you can find the information about the
dimensions and weight of each element, their location in the system, and how many of them are used.
1a // 1 piece: 3.3 kg // 24 Pieces: 79.2 kg
1b // 1 piece: 1.3 kg // 24 Pieces: 33.6 kg
64
DESIGN
1c // 1 piece: 7.1 kg // 48 Pieces: 340.8 kg
2a // 1 piece: 15.7 kg // 2 Pieces: 31.4 kg
2b // 1 piece: 18.3 kg
3a // 1 piece: 0.15 kg // 46 Pieces: 7.0 kg
65
STRUCTURE
3b // 1 piece: 3.0 kg // 30 Pieces: 90.0 kg
3c // 1 piece: 1.95 kg // 39 Pieces: 76.0 kg
4a // 1 piece: 1.9 kg // 84 Pieces: 159.6 kg
5a // 1 piece: 0.75 kg // 12 Pieces: 9.0 kg
66
DESIGN
5b // 1 piece: 0.1 kg // 10 Pieces: 1.0 kg
5c // 1 piece (1820 mm): 5.40 kg // 5 Pieces: 32.30 kg
1 piece (2365 mm): 7.00 kg
1 piece (2535 mm): 7.50 kg
6a // 1 piece: 8.55 kg // 12 Pieces: 102.6 kg
6b // 1 piece: 4.00 kg
67
STRUCTURE
Structure Building Manual
Step 1
2a x 1 // 6a x 12 // 6b x 1
Step 2
3a x 12 // 3b x 12
Step 3
1a x 12 // 1c x 12
Step 7
1b x 12 // 3c x 4 // 4a x 12
Step 8
2b x 1 // 3b x 2 // 3c x 3
Step 9
Step 13
2a x 1 // 3b x 9 // 3c x 8
Step 14
3b x 6
Step 15
5a x 12
68
DESIGN
Step 4
4a x 36
Step 5
3c x 12
Step 6
3c x 4
Step 10
1c x 12 // 3b x 5 // 3c x 8
Step 11
1c x 12
Step 12
4a x 12
Step 16
4a x 24 // 5a x 12 // 5b x 10
Step 17
5c x 2 // 5d x 2 // 5e x 1
Step 18
69
STRUCTURE
Structural Details
Detail - 1 Roof
1. Steel Column Ø 135 mm
2. L Profile Column 80 x 50 mm
3. L Profile 80 x 50 mm
4. L Profile 80 x 50 mm
5. Metal Plaque 50 x 3 mm
6. Connector
7. L Profile 80 x 50 mm
8. L Profile 30 x 30 x 450 mm
9. L Beam Connector 27.5 x 50 mm
10. Trapeze Plate 5mm
7
3
5
6
4
1
Detail - 2 Column - Beam Connection
1. L Profile Column 3 x 80 x 50 mm
2. Beam 3 x 80 x 1150 mm
70
3. Beam 3 x 80 x 560 mm
4. L Profile 30 x 30 x 450 mm
5. L Beam Connector 2 x 27,5 x 50mm
6. Steel Column Ø 135mm
2
1. L Profile Column 3 x 80 x 50 mm
2. Beam 3 x 80 x 1150 mm
3. Beam 3 x 80 x 560 mm
4. L Profile 30 x 30 x 450 mm
5. L Beam Connector 2 x 27,5 x 50mm
6. Steel Column Ø 135mm
7. Beam 3 x 80 x 560 mm
DESIGN
6
4
5
2
3
1
1. L Profile Column 3 x 80 x 50 mm
2. Bolt
3. Nut
4. Slat 3 x 20 x 2960 mm
5. Beam 3 x 80 x 1150 mm
6. L Profile 30 x 30 x 450 mm
Detail - 3 Facade Column Connection
1. L Profile Column 3 x 80 x 50 mm
2. Bolt
3. Nut
4. Slat 3 x 20 x 2960 mm
5. Beam 3 x 80 x 1150 mm
6. L Profile 30 x 30 x 450 mm
1. Foundation
2. L Profile 80 x 50 mm
3. L Beam 80 x 50 mm
4. L Profile Column 80 x 50 mm
5. L Beam Connector 27.5 x 50 mm
6. Beam 3 x 80 x 1150 mm
7. L Profile 30 x 30 x 450 mm
8. Steel Column Ø 135 mm
Detail - 4 Foundation
71
6. CONSTRUCTION TECHNOLOGY
1850 cm
1400 cm
Section Open Layout of Construction Elements
In this section, the current construction formats are examined and the technology of the module to be produced is
discussed in detail. The boundaries of the material and methods of its production are investigated.
All of the components that bring Volu-te together are produced in the factory and all of these components are
repetitive elements. Besides its potential to be a mass product, it has a very low-technology and flexibility. This helps
Volu-te to be easily produced, easily assembled and reproduced by individuals who are not qualified. Besides being
easy, these productions come out with simple tools and very quickly. Unlike traditional production methodologies,
off-site, on-site and transportation stages, where alternative production techniques are presented, are the three main
topics to be examined in this section.
The process from the production phase that started in the factory to the completion of a module in the project area
are evaluated over different possibilities. The technical and economic properties of each element that installed the
module are investigated. By considering the installation phase, the transportation options of the module are produced
and the dimensions required for storage were determined. In addition, detailed drawings and diagrams that describe
the layers of the materials, analyse the connections and show the auxiliary tools are produced.
Trapeze Plate 5mm
Metal Plaque 3x50mm
Water Isolation 2mm
Plywood 18mm
Thermal Insulation (Rockwool) 40mm
Vapor Barrier 2mm
Plywood 18mm
L Profile 80x50x50mm
Plywood 4m
L Profile 2mm
I profile 80x3mm
Sleeping Area
Plywood 12mm
Vapor Barrier/Water Proofing 2mm
Thermal Insulation (Rockwool) 50mm
Concrete Wall Panel 15mm
Cellular Polycarbonate 50mm
Plywood 12mm
L Profile 80x50mm
Silicone 5mm
Solid Polycarbonate 3mm
Silicone 5mm
Profile 2x30mm
Toilet
Bath
Plywood 4mm
I profile 80x3mm
Working Area
Plywood 12mm
Vapor Barrier/Water Proofing 2mm
Thermal Insulation (Rockwool) 50mm
Concrete Wall Panel 15mm
Kitchen
Plywood 4m
I profile 80x3mm
Solid Polycarbonate 3mm
Resting
Plywood 18 mm
Thermal Insulation (Rockwool) 40 mm
Water Isolation 2 mm
Plywood 18 mm
L Beam 80x50 mm
Thermal Insulation (Eps) 50mm
Concrete Wall Panel 15mm
Section 1/25
Plywood 12mm
L Profile 80x50mm
Silicone 5mm
Solid Polycarbonate 3mm
Silicone 5mm
Profile 2x70x30mm
Resting Area
Plywood 12mm
L Profile 80x50mm
Sheet Metal 2mm
Thermal Insulation
(Rockwool) 50mm
Sheet Metal 2mm
Kitchen
Plan 1/25 Level +1.85
Plywood 12mm
L Profile 80x50mm
Vapor Barrier/Water Proofing 2mm
Wood Batten 50x20mm
Galvanized Steel Frame 30x20mm
Galvanized Connector 2x10mm
Concrete Wall Panel 15mm
Toilet
Plywood 12mm
L Profile 80x50mm
Silicone 5mm
Solid Polycarbonate 3mm
Silicone 5mm
I Profile 2x70x30mm
Plywood 12mm
L Profile 80x50mm
Vapor Barrier/Water Proofing 2mm
Wood Batten 50x20mm
Galvanized Steel Frame 30x20mm
Galvanized Connector 2x10mm
Concrete Wall Panel 15mm
Bath
Plywood 12mm
L profile 50x80mm
Silicone 5mm
L profile 2x50x30mm
Cellular Polycarbonate 50mm
I Profile 2x50mm
Plan 1/25 Level +4.65
CONSTRUCTION TECHNOLOGY
Structure and Exploded Horizontal Panels
76
DESIGN
Structure and Exploded Vertical Panels
77
CONSTRUCTION TECHNOLOGY
Plywood (horizontal)
18 mm thick plywood, preferred as floor covering, is obtained
by cutting 2500 to 1250 mm boards with the help of CNC.
The 18mm plywood also serves as a linking object between
the beams and provides structural rigidity. A total of 10 sheets
of plywood is sufficient for 3 different types of modules used
as flooring, meaning that the total cost is approximately $450.
18mm plywood coverings
Weight: 720kg/m³
Price per Plate: 45$
Type 1
1
2
3
7
8
5
6
4
2500mm
1250mm
18mm plywood coverings
Weight: 720kg/m³
Price per Plate: 45$
Type 3
18mm plywood coverings
Weight: 720kg/m³
Price per Plate: 45$
Type 2
1
1
2
3
2
24
23
1250mm
12
11
13
14 15
22
21
16 17
18
20
19
10
9
4 5
6
8
7
2500mm
5
1250mm
4
6
3
7
8
9
2500mm
10
78
Plywood (vertical)
12mm thick plywood, which is lighter and thinner than the
floor covering, was preferred as a vertical surface coating to
minimize structural loads. Vertical surface coating, which will
be used in 2 different types as 600 to 600 and 600 to 1200,
is obtained by CNC cutting of plywood sheets sold as 1250
to 2500 mm. The necessary coating material is obtained by
cutting 11 sheets, so the total cost is approximately $374.
DESIGN
Type 2
600x1200mm
Type 1
600x600mm
Type 1
Type 2
12mm plywood coverings
Weight: 600kg/m³
Price per Plate: 34$
600mm
1
600mm
12mm plywood coverings
Weight: 600kg/m³
Price per Plate: 34$
1200mm
1
600mm
3
2
2
1250mm
7
5
8
6
4
2500mm
3
4
2500mm
1250mm
79
CONSTRUCTION TECHNOLOGY
Thermal Insulation
Rock wool with a density of 150 kg per cubic meter will
be used as thermal insulation material both on vertical
surfaces between the wall panels and between the roof
and floor covering. In addition to being an ecological
and environmentally friendly product, it also has high fire
resistance, therefore, despite being heavy, it has been the
primary reason for its preference. It is sold in 600 to 1200
mm sheets. It has the opportunity to be cut and used in the
desired dimensions.
600x1200mm
Rockwool (50mm)
Weight: 150kg/m³
Price per 4 Plate: 20$
600x1200mm
Rockwool (40mm)
Weight: 150kg/m³
Price per 6 Plate: 25$
Water Insulation
It is aimed to use multi-functional waterproofing material
named Dupont Tyvek HomeWrap between the outer layer
on the ground and the thermal insulation and under the
trapezoidal plate on the roof. The material, sold in rolls of
1-meter width and 50 meters length, has the opportunity to be
easily cut and used in the desired size.
Dupont HomeWrap
Water Insulation
Roll size: 1x50m
Price per Roll: 70$
80
Vapour Barrier
Dupont’s multi-functional product has a vapour-proof structure
as well as a waterproofing feature. Therefore, the material
used as waterproofing can also be used as a vapour barrier.
The vapour barrier to be used on the façade is between the
interior plywood layer and the thermal insulation.
DESIGN
Dupont HomeWrap
Water Insulation
Roll size: 1x50m
Price per Roll: 70$
Structure
Almost all of the structural elements, except the L profiles that
provide connections between slabs and beams are 2mm, of
this module composed by the 3mm galvanized steel sheet.
The production of all the structural elements has the same
principle. The structural elements will be the boundaries for
modules after the cutting of the galvanized steel sheet with
CNC and then bending the necessary ones.
6
1
2
3
4
5
Galvanized Steel Sheet
Plate Size: 3 x 625 x 2500mm
Weight per size: 36.8kg
Price per Plate: 130$
3mm
Galvanized
2mm
Galvanized
Plate Size: 2 x 500 x 500mm
Weight per plate: 3.93kg
Price per Plate: 20$
81
CONSTRUCTION TECHNOLOGY
Fiber Cement Panels
Fiberglass concrete panels produced by Fibrobeton in various
sizes and desired texture and colour will be used as façade
panels. Two different sized modules as 600 to 600 and
600 to 1200 mm panels will create the exterior façade. To
decrease the vertical loads of the structure, panels with 15
mm thickness will be used.
Fibrobeton
Concrete Panel
Size: 600x600mm
Thickness: 15mm
Fibrobeton
Concrete Panel
Size: 600x600mm
Thickness: 15mm
Cellular Polycarbonate Panels
In addition to the Fibrobeton panel, cellular polycarbonate can
be used as an alternative façade panel for better illumination
of the interior with its translucent structure. A 50 mm thick
polycarbonate surface also provides some thermal insulation,
although it is limited.
2mm Gaskets
Polycarbonate Plate
50x 600 x 1200mm
2mm Gaskets
30x50mm L Profile
50mm Polycarbonate
Size: 2100 x 6000mm
Price per Plate: 390$
82
Glazing
Instead of using a ready-made joinery detail in Volu-te, it is
aimed to create one with the basic structural elements that
compose the structure. The transparent polycarbonate sheet
placed between a frame consisting of an L profile and a frame
consisting of the slat will form the joinery. Waterproofing will
be provided by adhering silicone between metal profiles and
transparent surface. By joining the L column on the outer wall
with the help of a hinge, the joinery will be turned into a pivot
window.
DESIGN
5mm Gaskets
L frame
5mm Gaskets
Polycarbonate Glazing
3 x 600 x 1200mm
5mm Gaskets
Slat
Section A 1/30
3mm Solid Polycarbonate
Size: 2100 x 6000mm
Price per Plate: 46$
Trapezoidal Metal Sheet
Trapezoidal metal will be used as a second layer at the rooftop
level. This will provide ventilation of the roof due to the space
left between the trapezoidal roof and its primary layer. It will
also help ensure the drainage of the water. The gap it creates
will provide an advantage in terms of thermal insulation. The
2.5-meters diameter trapezoidal surface will consist of 3 parts.
1
2
X
3
X
3x=2500 mm
X
Trapezoidal Sheet
Size: 860 x 3000mm
Price per Plate: 70$
83
CONSTRUCTION TECHNOLOGY
Construction Manual Installation
The facade installation begins after the structural installation is finished. The installation starts from the ground level and continues to
the top level. Facade elements are wood batten, vapor barrier/waterproofing, plywood, concrete wall panel, window, and door. In the
first stage, the wooden battens are anchored to the columns. The vapor barrier/waterproofing is attached between the columns and
wooden battens. Secondly, plywood is installed. Thirdly, concrete panels are assembled as the outer layer. Windows and the door
are also installed at this stage. One or two mobile scaffolding, hand drill, and wrench are used as auxiliary tools for installation.
Step 1
Structure
Step 2
Wood Batten
Vapor Barrier / Waterproofing
Step 3
Plywood
Step 7
Concrete Wall Panel
Step 8
Windows and Doors
Step 9
Wood Batten
Vapor Barrier / Waterproofing
84
DESIGN
Step 4
Concrete Wall Panel
Step 5
Wood Batten
Vapor Barrier / Waterproofing
Step 6
Plywood
Step 10
Plywood
Step 11
Concrete Wall Panel
Step 12
Windows
85
CONSTRUCTION TECHNOLOGY
Storage
A prefabricated factory produced pod consists of many elements. These elements should be small and light for storage and
transportation. If the open layout of the construction elements (structure, floor, roof, façade, windows, door, and others) of a pod
is placed in a plane, it scans an area of 259 m². But if these elements are placed on top of each other, they can easily fit into a
small volume. Volu-te has 28.2 m³ volume when it is completed on-site. However, it has a volume of approximately 8 m³, when it is
packaged for transportation and storage.
1850 cm
1400 cm
Open Layout of Construction Elements
200 cm
450 cm
180 cm
Flat-pack Storage for One Pod
86
Transportation
A pod or pods are transported to the project area in three different ways. The first one is a flat-pack. A trailer truck can carry five
packaged pods simultaneously. The pods are installed in the project area. Secondly, the box system factory manufactured pod is
delivered by a flat-bed truck. It is put in place with the help of a crane. The third method is to transport the box system to the pod by
adding apparatus such as wheels. In the project area, the pod is rotated with its own weight and simple levers.
DESIGN
2,45 m
6,00 m
3,00 m
Flat-Pack: Five modules can be transported
2,45 m
8,00 m
3,00 m
Box System with Truck: One module can be transported
2,45 m
6,00 m
3,00 m
Wheeled: Transport as truck chassis
87
CONSTRUCTION TECHNOLOGY
System Details
Trapeze Plate 5mm
Metal Plaque 3x50mm
Water Isolation 2mm
Plywood 18mm
Thermal Insulation (Rockwool) 40mm
Vapor Barrier 2mm
Plywood 18mm
L Profile 80x50x50mm
Plywood Panel
600x600mm
Plywood 12mm
Vapor Barrier/Water Proofing 2mm
Thermal Insulation (Rockwool) 50mm
Concrete Wall Panel 15mm
Plywood 12mm
L Profile 80x50mm
Silicone 5mm
Solid Polycarbonate 3mm
Silicone 5mm
Profile 2x30mm
Detail - 1 Roof
Plywood 4mm
Plywood Panel
600x1200mm
Thermal Insulation (Eps) 50mm
Concrete Wall Panel 15mm
Plywood 18 mm
Thermal Insulation (Rockwool) 40 mm
Water Isolation 2 mm
Plywood 18 mm
L Beam 80x50 mm
Detail - 2 Foundation
Detail - 3 System Section
88
Plywood 12mm
L Profile 80x50mm
Silicone 5mm
Sheet Metal 2mm
Thermal Insulation (Rockwool) 50mm
Sheet Metal 2mm
DESIGN
Detail - 6 Door Plan
Plywood 12mm
L Profile 80x50mm
Vapor Barrier/Water Proofing 2mm
Wood Batten 50x20mm
Galvanized Steel Frame 30x20mm
Galvanized Connector 2x10mm
Concrete Wall Panel 15mm
Detail - 4 Window
Detail - 7 Facade Plan
2
Plywood
1’
Vapor Barrier/Water Proofing
1
Wood Batten
3
Concrete Wall Panel
Galvanized Steel Frame
Thermal Insulation
Detail - 5 Cellular Polycarbonate
Detail - 8 Facade Layers
89
7. SITE STUDIES
Volu-te designed and produced using prefabricated production methods. It enables the assembly and disassembly
of the system without leaving any trace behind while allowing it to be located anywhere. At this point, the notion of
transience and property becomes fluid.
With a minimised dodecagon floor area with the longest diagonal of 2.5 meters, Volu-te can be located in various
unexpected areas in addition to urban voids. For example, these areas could be a parking lot or a rooftop that is not
used and have no spatial value.
Volu-te easily can be adapted to different urban scenarios both as a singular unit and modular units that come
together while creating new configurations.
SITE STUDIES
MEF University Left Over Space
Site Plan 1/100
Section 1/100
92
DESIGN
Render
93
SITE STUDIES
Roof of Karaköy Multi-Story Car Parking
Site Plan 1/100
Section 1/100
94
95
DESIGN
SITE STUDIES
Volu-te in a Parking Lot
96
DESIGN
Volu-te on the roof
97
8. ECONOMIC MODEL
In this section, the operation of the module on different economic models is examined and different sales offers are
emphasized. It is important to offer varied options to investors according to demands and conditions so the continuity
and sustainability of the module are associated with a realistic base. Investors who will provide financing for the
operation of the module can be an individual or a company. In this regard, various agreements can be made with
private companies or municipalities. In addition, the modules that are planned to be located in the city can cooperate
with other cafes, restaurants, bars. Individual sales, wholesale, and creating networks are the three main proposals to
investors.
䔀 挀 漀 渀 漀 洀 椀 挀 䴀 漀 搀 攀 氀 猀
䤀 渀 搀 椀 瘀 椀 搀 甀 愀 氀 匀 愀 氀 攀 圀 栀 漀 氀 攀 猀 愀 氀 攀 䌀 爀 攀 愀 琀 椀 渀 最 一 攀 琀 眀 漀 爀 欀
1. Individual Sale
Individual investors can buy the module and
use it according to their demand. The fact that
the module is portable and easy to install, it
increases options for its location such as the
garden of their house, beach, camping.
2. Wholesale
Hotels that want to increase their bed
capacities, investors who want to offer
temporary accommodation at the airports,
hospitals that want to protect the health
of their employees can buy the module
wholesale.
3. Creating Network
Modules in the city can be rented with a
mobile application by entering the appropriate
location and date. In this way, it is aimed to
create a network in the city.
ECONOMIC MODEL
1. Individual Sale
Volu-te located in the camping area
100
2. Wholesale
DESIGN
Festivals
Using for short term accommodation at festival
areas.
Tourism
Using to increase bed capacity in hotels.
Airport
Using for short term accommodation by passengers
and employees at airport.
101
ECONOMIC MODEL
3. Creating Network
Another proposal for the operation of the module is based on the creation of a network in the city. With developed communication
and mobile technologies, the module is planned to be rented by an application. Modules placed at suitable points in the city by the
investors can be rented practically with an application. Tenants can pay online after choosing the appropriate modules on the dates
they want. Security is also provided by tenants accessing the module with the code received on their mobile phones. People who
have individual modules can also rent their modules using that application if they wish to include their modules in this system.
102
DESIGN
Application
Users can download the mobile application from
the store to rent a place or to rent their place.
Welcome page shows on-boarding to describe the
main purpose of the service and useful features
about the application.
Sign-up
Users who will be included to the system for the
first time enter their phone numbers and namesurname
information.
Enter Code
By entering the code on the phone, they verify
their identity.
Home Page
Users enter the home page after login. On this
page, they can search using the section at the
bottom on the map. There are date and location
entry buttons in the lower section.
Searching Page
Users who enter the appropriate date and their
location can see the houses and daily prices in
that region on the map. Available modules at that
time will appear in color.
Short Information Page
Users can reach short information about the
module by touching them. For detailed information,
they can continue with the button shown.
Module Detail Page
Details are shown on this page. It includes photos
of module, detailed address information, host
information, and comments about the module. They
can examine the price and availability of it.
Payment Page
Users entering personal information and payment
information rents the module.
Code Page
The users can enter the module by using the code
that comes their accounts after payment. This code
changes every time they rent it.
103
ECONOMIC MODEL
User Profile
one nighters
adults in transition
medical professionals
turist
student
This graphic shows that which periods of the year user-profiles stay intensely in Istanbul.
104
Approximately 350,000 people go out at one night in Istanbul. In the late hours, instead of returning
to their homes, they prefer to stay in the hotel, hostel, Airbnb, staying with friends or relatives at
night. One nighters intensity is balanced throughout the year.
DESIGN
Today, there are approximately 2,000,000 unemployed people in Istanbul. Popular locations for
workplaces are concentrated around Levent, Maslak, Kağıthane, Beşiktaş-Şişli, Kozyatağı, Ataşehir,
and Altunizade. Those who live far from the city center or come to look for jobs from outside the
city prefer to stay in these areas. However, prices are typically higher in these areas compared to
less popular places, as an example of the minimum value of a 1 bedroom flat rent in Beşiktaş starts
from 1.400 TL per month.
In Istanbul, a high percentage of students stay in dormitories at certain times of the year. In general,
these periods are between September-January and February-June. Many dormitories remain
vacant during the summer. However, they only have a capacity of 601,000 students. Therefore,
apart from staying in these dormitories, students are constrained to look for other options such as
house-share, single living, and living with family or relatives.
13,000,000 tourists come to visit Istanbul annually. They prefer to stay in hotels, hostels, and
Airbnb which are close to tourist attractions. In general, tourist density increases in the summer and
February holidays.
Medical professionals work at various times of the day, which is different from standard working
hours in other occupational groups. For this reason, they prefer to stay in locations close to the
hospitals instead of wasting time on the road. They also prefer to live separately from their families
to reduce disease risk.
105
DESIGN I MICRO LIVING
AAP (Alternative Architectural Practices)
Instructor
Oral Göktaş
Design Team: Ahmet Yaymanoğlu, Aysima Akın, Damla Kaleli, Dilek Yürük, Ebru
Şahinkaya, Eda Yavaş, İlayda Baydemir, Nur Gülgör, Sena Hut, Zeynep Ulusoy
Editors
Damla Kaleli, Ebru Şahinkaya
Book Design
Aysima Akın
This catalogue is part of an educational, non-profit project. The students have
attempted to acknowledge all sources of images used and apologize for any
errors or omissions. Please e-mail aap@mef.edu.tr for any concerns related to
copyrights.
MEF University
Huzur, Maslak Ayazağa Cd.
No:4, 34396 Sarıyer/İstanbul
aap@mef.edu.tr
aap.mef.edu.tr
2020 MEF University
AAP
2019 - 2020 MICRO LIVING DESIGN GUIDE
ALTERNATIVE ARCHITECTURAL PRACTICES I MEF UNIVERSITY GRADUATE PROGRAMME