Portfolio. Elina Timergalieva

Page 1

Portfolio.

2018-2023

ELINA TIMERGALIEVA

elina.newlinarch@gmail.com

The past 6 years I have experienced great fulfifilment in fifinding my path in the architectural world and now I have graduated summa cum laude from KSUAE - Kazan State University of Architecture and Engineering BSc Architecture programme. During process of education I had a great experience with creating projects, including personal and group works. Also the required part of my education was taking the internships that was really crucial time for me I used to work in Denmark. Now I am going to study Architecture and Urbanism at Politecnico di Milano.

+7(987)224-36-09 Kazan city, Russia
Rome, Itaky STUDENT TREEHOUSING QUARTO CAGNINO ART LABYRINTH FARM TO CITY 2022 Study project Kazan city, Russia 2022 2023 Study project Milan, Italy Milan, Italy 2020 Study project Study project

Kazan State University of Architecture and Engineering

Bachelor of Architecture

Politecnico di Milano

Master of Architecture and Urban design \ 1st year

STRELKA KB, Moscow

WERK Arkitekter , Denmark

NOVAYA ZEMLYA , Moscow

PROJECT GROUP 8, Kazan

MASTER’S PLAN, Moscow

OpenGap Inspiratiom Hotel

Stuttgart Mobility Hub

during the internship at WERK Arkitekten

Ideas transforming cities

XXXI International Review-Competition of Graduate Qualification Works in Architecture, Design and Art

Revit + Dynamo

Rhino + Grasshopper

Google SketchUp

3dsMax + Corona

Autocad

Microsoft Office

Stefano Boeri Urban Design studio

Internship

Architect Architect Architect

Internship Participant

April - May, 2020

Sep 2020- Jan, 2021

March - July 2021

July 2021 - August 2022

July 2023 - Present

EDUCATION EXPERIENCE COMPETITIONS

November 2018

2nd prize

1st prize

1st prize

November, 2020

June, 2022

September, 2022

PC SKILLS

Adobe Creative Cloude

QGis

Lumion

Enscape

VRay

LANGUAGES

Russian: native

English: C1 / advanced

Italian: A1 / basic

FARM TO CITY: LETTER BY LETTER

Rome, Italy 2023

Study project

As the planet’s population continues to grow and change its way of living, providing enough food for humans is becoming a global challenge. The United Nations predicts that 68 percent of the world’s population will live in cities by 2050, and this process happens at the expense of natural resources and green spaces, increasing the vulnerability of urban communities to the effects of climate change.

This project aims to establish a new presence of agriculture in Rome in 2050, by dictating different strategies that differ between the zones of Rome, which are divided into the following: a - the urban area, b - preurban (within the GRA), c - rural area (Agro Romano), and the zones in between every two layers.

a. The urban area and education:

Speaking about the urban area, the strategies are dictated mostly by the educational function.

b. The preurban area and communities:

In the preurban area, our masterplan focus on enhancement of community cohesion, knowledge sharing, production and creativity by introducing a series of small-scale interventions, that can be applied to multiple locations.

c. The rural area and environment:

In the rural areas, the proposal aims to balance the farmland and the forests in order to achieve agroforestry, while ensuring a stable food supply and the emphasis on the closer link between agriculture and the environment.

1949

2008

In resent decades many rural areas with high quality soil have been lost due to rapid urbanization

Agriculture Area

The agricultural land around Rome takes up a huge amount of space

This enormous monoculture of rural production on an industrial scale contributes to land degradation

Leaf Area Index

At the moment, Rome has tree per every 10 inhabitants

The increased nimber of trees will help with creating a sustainable ecosystem that will improve such indicators as air quality

Figure 1 URBAN SPRAWL
Figure 3 FORESTRY Figure 2 AGRICULTURE

1950

MONOCULTURE

Dominant role of industrial scale infrastructure

2000

CHAOS

Degraded land, chaotic urbanism

2050

PERMACULTURE

Environmemt full of mutually beneficial sinergies

RELOCATION

DIVISION ON MENTAL DISTRICTS

The map demonstrates the location of the main actors in the strategy, such as producers (farms), educators (universities), and consumers (public centers), and the exchange of energy and resources between them.

Meanwhile, all around the city few local centers are being created to finish the system of food distribution.

Producer

Public center

Educator

Local center

Food production

Energy collection

Education (workshops)

Public facilities (restaurants)

Food markets

Storage

POINTS

Educational center

Multi-functional district

Eco-district

Horticulture center

Eco - parks

Educational products flows

Food production flows

Connection with the public center

Connection with the farm

Main way of distribution

Distribution rings

NEW FORESTS

Regarding the goal of the strategy, new forests instead of agricultural fields are becoming the main product of the project

FUNCTIONS

AREAS

LINKS

AGROFORESTRY

MASTERPLAN

The proposed strategy is based on a system containing a series of interventions that together form a network that will allow for the widest possible transformation of Roman agriculture. The basic design unit is formed by “letters” - a set of various approaches and interventions that can be used in different scenarios. Due to their specificity, they have been divided into two main categories: capital letters, indicating the method of application, and small letters, denoting their functions. Together with another unique symbol for each considered intervention, they form “words” - the main content of the Alphabet of Solutions.

Urban agriculture is seen as one of the ways to feed the city with a large influx of people and it does bring many benefits, “But you want to be careful not to overstate things. If urban agriculture gets sold as something that will create all these jobs or feed entire cities — and then it doesn’t — it could quickly lose support.”5 Although there are possible problems that need to be considered in practice, we believe that this proposal will give individuals a better appreciation of how the food system works. In addition, cities are constantly being shaped by emerging technologies. technological advancements can improve the quality of living environments and promote governments and companies to provide better services to residents. Therefore, all the data collected throughout this project will use for promoting the communication of urban farming approaches in different cities. Evoking a rethink about the environment, agriculture, and nature by participating in this practice, at the same time, put forward new prospects about the sustainable development model of urban food.

“We have neglected the truth that a good farmer is a craftman of the highest order, a kind of artist”, - Wendell Berry.
“I would rather be on my farm than be emperior of the world”, - George Washington.
La Vela di Calatrava Urban farming Mira Lanza Urban farming

ART LABYRINTH

Kazan city, Russia 2020 Study project

Art labyrinth is a space where you want to get lost. It is a platform for the exhibition of various objects of art and culture, and each time it can be completely different. Its main feature is the transformable walls of the gallery, which can be rearranged to organize halls of various shapes and sizes.

The city forest park in the south-east of the city of Kazan was chosen as the location of the object, where there is already a favorable environment for residents, and where there is just not enough iconic object of attraction.

The project of the Art Labyrinth is a four-story building with a conservatory and a rooftop restaurant. On the first two floors there is a public and administrative zone. Also, exhibits are received and processed here. The lower floors of the building are surrounded by a textured grid of beams, playing an analogue of fixtures on which mock-ups and installations are suspended or placed.

Definition of the side
of the public spaces Devision of the functions
of
winter
Elevation of the exhibition
final shape Shifting of the function
Creation
Creation
the
garden
The
Covering of the winter garden
ART-labirynth Square Houshold pavillion
Square Entrance zone

Public floor plan

On the first floor of the museum there is a number of educational, coworking and workshops spaces. In the big hall the caffe, souvenir store and storage are located

Exhibition floor plan

The exhibition plan is showing us a flexible approach to organize the museum space. It is necessary not only to change the pieces of exhibition themself but also change the space they are placed in to make it some kind of adventure for everytime visiting users

Ground floor First floor Second floor Third floor The rooftop: lev.1 The rooftop: lev.3 The rooftop: lev.2 The rooftop: lev.4

The main task was to create a variety object. On the first public floor, and amphitheaters, but the exhibition from the hall and makes one get wandering in the forest of art, rooftop park, which becomes

The exposition is surrounded volume. It is also decorated with which can be opened and closed ing on what level of lighting is most The last level is a winter garden summer atmosphere and

Section

Elevation

variety of spaces within a single we are greeted by open spaces exhibition is completely different get lost in himself. However, after it leads us to a green and free becomes a symbol of enlightenment.

by walls representing a single with beams and window openings, closed with wooden panels, dependmost suitable for the exhibition. garden where people can enjoy the and comfort all year round.
WC
Lecture room
Rack ceiling
Cafe Beam ceiling
Seating / meeting space Garderob Eating space
Souvenir
/ book shop Cashier
1 - guide 600 mm; 2 - guide 3700 mm; 3 - guide 3000 mm; 4 - suspension. 1 - composite panel; 2 - upper lock; 3 - carrier profile; 4 - panel plug; 5 - spoke; 6 - adjusting spring. Inserts for secure fastening Reliable fastening and the ability to adjust the height Floor plan
plan Lighting space
Ceiling

QUARTO CAGNINO: ADAPTIVE PARADISE

Milan, Italy 2023

“A sustainable building is not one that must last forever, but one that can easily adapt to change,”

The Quarto Cagnino project is a unique opportunity to explore the potential of existing volume in redefining the quality of life for locals and new users. The current condition of the building presents a modular and repetitive structure, with no discernible differences between the various apartment typologies. Diversity is an essential aspect of modern living and this project seeks to address this concern while preserving the cultural and traditional values of the area.

To achieve this objective, our team has proposed restructuring the existing building footprint to create new shared spaces between apartments. This approach enhances the quality of space, opening up new possibilities for residents to interact, work, and play. To achieve this objective, our professional architects and designers have analyzed various factors to determine the optimal location and size of the shared spaces for seamless integration with the existing building. The proposed design seeks to adapt and extend the existing space, creating new opportunities for residents to enjoy their home.

We understand that every culture and tradition has unique expectations for space utilization and organization. Our team has thoroughly researched these requirements and integrated the insights into the design to create different quality living spaces. The proposed design considers factors such as natural lighting, spatial quality, and accessibility to create a conducive environment for residents.

STRATEGY // Existing building

The large apartments in the existing building can be adapted to accommodate changing family sizes by selling or renting out unused rooms. The strategy focuses on maintaining the bathroom and kitchen core for the original owners while allowing for the attachment of additional facilities for the new occupants. Separate entrances are provided for both the original and newly created spaces, considering only the rooms easily accessible from the staircase.

Another option for utilizing the extra rooms is to share them with the neighboring apartment. They can be converted into a common terrace or sold to the other apartment to expand and modify the space of both units. This approach allows for increased flexibility and freedom in sharing and altering the available space.

The third option is to utilize the extra room as a new private terrace. This space can be used for leisure activities, such as relaxation or gardening. Alternatively, it can be transformed into a completely new function, such as a workshop, library, or study. The addition of a new facade provides transparency and ample natural light, enhancing the overall atmosphere of the apartment.

A2 - 4r [ 110 m2] - f [ 0 m2] A2 - 4r [ 65 m2] - f - studio[ 45 m2] A2 - 3r [ 100 m2] - f - 1r [ 13 m2] A2 - 3r [ 100 m2] - f - 1r [ 13 m2] A1- 3r [ 93 m2] - f [ 0 m2] A1- 2r [ 51 m2] - f - studio [ 42 m2] A1- 3r [ 80 m2] - f - 1r [ 13 m2] A1- 3r [ 80 m2] - f - 1r [ 13 m2] A3 - 4r [ 125 m2] - f [ 0 m2] A3 - 2r [ 77 m2] - f - studio[ 48 m2] A3 - 3r [ 112 m2] - f - 1r [ 13 m2] A3 - 3r [ 106 m2] - f - 1r [ 19 m2] A4 - 5r [ 140 m2] - f [ 0 m2] OUTDOOR TERRACE INTERACTIVE ROOM FOR KIDS WORKSHOP PERFORMANCE SPACE A4 - 3r [ 95 m2] - f - studio[ 45 m2] A4 - 3r [ 112 m2] - f - studio[ 28 m2] A4 - 3r [ 105 m2] - f - studio[ 35 m2] A - type of existing apartment r - number of rooms f - new flexible space SELLING / RENTING MODULE AEXISTING BUILDING MODULE BEXISTING BUILDING MODULE CEXISTING BUILDING MODULE DEXISTING BUILDING
PRIVATE USE
SHARING / SELLING

With a grid spacing of 1.6 meters, the modular system and structural design of the building enable the seamless adjustment and movement of walls, serving as a catalyst for spatial reconfiguration in alignment with changing requirements. This design ethos embraces the notion of the life cycle and its diverse phases, while empowering residents to actively participate in the creation of their personal living spaces

The cores and slabs system can be also vertically flexible what gives an opportunity to create multi-levels apartments with different function on the floors. For that reason the slabs are designed to be easily removable in every spot of the structure.

Outer layer of the building is covered with shutters, which afford precise control over opacity, ventilation, and the penetration of sunlight into the interior space. Simultaneously, these shutters introduce an additional layer of visual and tactile variation, enhancing the architectural composition

STRATEGY // New addition 1 2 3

By prioritizing adaptability, the aim was to create spaces that could easily be adjusted, modified, and evolved over time. This approach offers the advantage of affordability, allowing owners to expand or enhance the quality of their interiors when financially feasible. Simultaneously, the inherent flexibility of the design generates intriguing variations and perceptions from the exterior, as the building undergoes a continuous evolution, revealing different layers over time.

Option 4

The fourth option is generated according to the idea to give a private elevated garden to each apartment on the floor

Option 3

The second type of a shared apartmnet is placed on the third option: 3 rooms with shared bathroom amd 1 room with private bathroom are connected to a big shared space and the terrace with a

Option 2

Second duplex has a big terrace on the second level with an opportunity to have a place for rest or create a small garden

Option 2

The shared apartment is the third type placed on this level: 4 rooms are connected to a big living room with kitchen and coworking area

Option 2

The floor contains two duplexes with very small width One of them has a two-heght living room and a balcony on the second level

Option 1

The floor contains two traditionally organized apartments with shared open space between them

Base floor

The floor contains the cores, slab and the envelope

FACADE DETAIL, SCALE 1:10 FACADE ELEVATION, SCALE 1:10 Industrial steel flooring external modular facade Inhabitable space envelope IPN 220 IPN 300 HEA 300 Modular concrete flooring EXPLODED DETAIL AXONOMETRY DETAIL AXONOMETRY

The main objective of the project is to prioritize individuality and personal expression. Instead of conforming to pre-designed spaces, potential owners will have the opportunity to directly influence the floorplan according to their specific needs. This approach allows for a diverse range of facade designs, enabling each apartment to have a unique appearance.

To establish harmony and coherence within the overall structure, an apprentice building will be introduced with a modular sliding facade. This facade will serve as a second skin, allowing the existing building and the new addition to coexist and engage in a dialogue with each other. By incorporating this architectural element, the design aims to unify the buildings while maintaining their distinct identities.

By prioritizing adaptability, the aim was to create spaces that could easily be adjusted, modified, and evolved over time. This approach offers the advantage of affordability, allowing owners to expand or enhance the quality of their interiors when financially feasible. Simultaneously, the inherent flexibility of the design generates intriguing variations and perceptions from the exterior, as the building undergoes a continuous evolution, revealing different layers over time.

COMMUNITYCOMPOSTING

STUDENT TREEHOUSING

Milan, Italy 2022 Study project

The concept of the Student treehousing is based on the advantages of the design area, using them to create the most optimal solution in terms of architecture and use of natural energy. The task was to place the student housing on the side while also providing the space for educational workshop gatherings for bread makers, including some public lectures. Our project’s main idea is to elevate almost all the covered spaces (including living units) above the ground to let the existing space work as a big park and public events space. In addition, we placed the student living units between (and mostly behind) the deciduous trees to protect them from the aggressive sun rays during the summer and let the sunlight in during the winter.

My part in the project was the work with the masterplan and units’ concept together with the group, creation of the model of the area including units, development of the kitchen unit in details, creation of such drawings as the masterplan of the territory, energy scheme on the elevation of the territory, scheme of the unit composition and the elevation of the units, and an axonometric sketch of the side.

The project developed by: Timergalieva Elina, Sabine Chaaya, Josephine Maria Katharina Kitz, Narek Petrosyan.

CO2

ENERGY FLOWS DIAGRAM

The goal of the idea is to make every object on the site to be a part of the energy circle of the sources such as a sunlight, water and food.

As it was mentioned before the roof of the existing building provides an extra space for the gardening on the area. According to the strategy of Building Integrated Agriculture, the solution for the rooftop usage was to place there the greenhouse with the planting tubes (to avoid the building of the new structure holding the layers of the earth).

The greenhouse offers the possibility to grow fruits and vegetables troughout the year and allows the School of bread to demonstrate a system of self-su ciency to the students and the community. According to a seasonal planting plan di erent plants grow in the greenhouse, that correspond to di erent weather conditions and seasons and are planted at the appropriate time period. Fertilizer for the soil is produced from the Communtiy .

In order to collect the solar energy and at the same time provide the sunlight inside the greenhouse, a mixed system of PV panels was used to cover this object. The greenhouse has the biggest area of PV panels, which makes it the main producer of energy for the buildings on the site. The solar energy collected here is being distributed between the units of the projects to support living and working activities.

Composting process on the site and connects the neighborhood directly to the School of Bread, as neighbors can participate in sustainable cultivation in this way.

The site has a certain amount of space well-lighted up by the sun. These areas could too overhited for the housing function, but they are good for placing the gardens on them and involving the community to the circle of food production and reuse of the sources.

The ramp leading to the Treehousing is also used for food production in terms of energy efficiency of the project. It is organized by creating of the grid system on the structure of the ranmp and placing the planting tubes inside it. This system of green facade is very-well managed in the worldwide architectural projects so it could be easily applied in the situation of the Treehousing.

The chicken coop is a good addition to the structure of a self-sufficient community. Working together with the community garden, greenhouse, and community composting, it creates a healthy, easily manageable environment for the local dwellings. They are placed in the more shaded zone of the site to protect birds from the sun during the summer (the same strategy as for the treehouses). During the winter, chicken hubs could be moved to a more sunny place and changed to the other configuration.

The living units are located in the more green area of the project site. This configuration offers numerous advantages, including the use of the trees’ shadows, the expansion of the territory, and the structural support provided by the trees.

The amount of solar radiation obstructed or filtered by a tree depends on its:

Orientation to the sun

Proximity to a building or outdoor space

Shape, spread, and height

Density of foliage and branch structure

Section A - A 1 : 50
1 : 75
Section B - B
TREEHOUSING : DRAWINGS THE FLOOR PLAN M 1 : 50

TREEHOUSING : BIOCLIMATIC STRATEGY

SECTION / SUMMER DAY M 1 : 100
PLAN / SUMMER DAY M 1 : 100 A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (without tree) Thermal mass (covered by tree) Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Summer sun ray s 45 Opening at high leve to induce stack effect Daylighting cool Daylighting cool A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (without tree) Thermal mass (covered by tree) Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Summer sun ray s 45 ° Opening at high leve to induce stack effect A Daylighting cool north Daylighting fro cool north sid
BIOCLIMATIC
BIOCLIMATIC

BIOCLIMATIC SECTION / SUMMER NIGHT

M 1 : 100

BIOCLIMATIC PLAN / SUMMER NIGHT
100 Ventilation Cross Ventilation mass ) ray s A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Opening at high level to induce stack effect Ventilation A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Opening at high level to induce stack effect A Daylighting cool north Daylighting cool north
M 1 :

TREEHOUSING : BIOCLIMATIC STRATEGY

M

BIOCLIMATIC SECTION / WINTER DAY
WINTER DAY
M 1 : 100 BIOCLIMATIC PLAN /
1 : 100 Cross Ventilation mass ) A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Shading system Rainwater callecor Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Thermal mass (high density) Thermal mass (low density) Opening at high leve to induce stack effect Winter sun rays A Daylighting from cool north side Daylighting from cool north side Opening to induce A Natural Cross Ventilation Natural Cross Ventilation Thermal mass (high density) A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Shading system Rainwater callecor Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Thermal mass (high density) Thermal mass (low density) Opening at high level to induce stack effect Winter sun rays A Daylighting fro cool north sid Daylighting from cool north side

BIOCLIMATIC SECTION / WINTER NIGHT

M 1 : 100

BIOCLIMATIC PLAN / WINTER NIGHT

1 : 100 A Natural Cross Ventilation Natural Cross Ventilation Thermal mass (high density) Winter sun rays A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Opening at high level to induce stack effect A Natural Cross Ventilation Natural Cross Ventilation callecor Thermal mass (high density) mass density) Winter sun rays A A Natural Cross Ventilation Rainwater callecor Daylighting from cool north side Daylighting from cool north side Daylighting from cool north side Natural Cross Ventilation Natural Cross Ventilation Rainwater callecor Rainwater collector for WC Thermal mass (high density) Thermal mass (low density) Shading system Rainwater callecor Opening at high leve to induce stack effect
M
Wooden fence / Bar
Vertical larch timber cladding, Wooden beam Timber cladding support Hardwood timber Counter batten, 40 mm Wooden board, Breather membrane (Airtight), Wooden beam, OSB sheating board, Bearing wooden triangle detail Reed insulation, Wooden beam, Structural timber slud, Flooring, OSB sheating board, OSB sheating board, Vapor membrane (vapour tight), Fixing batten, Vertacal battens (services), Vapor membrane (vapour-tight), Internal lining board (finish), Reed insulation, Fixing batten Horizontal larch timber cladding, Gutter channel, metal sheats, OSB sheating board, Insect screen Steel spike Wooden board, Breather membrane (Airtight), Compressed foam seating tape Wooden door structure Wooden bearing structure Fixing batten, Wooden door Wooden beam for borad, Steel triangle detail connections, Preformed metal flashing Timber cladding support, Reed insulation, Wooden board, Steel plate connections, Tree trunk 01 01 16 16 15 14 13 18 19 39 37 37 36 35 41 42 43 17 12 23 24 38 40 02 03 04 05 06 07 26 27 28 29 30 08 08 01 20 21 22 09 10 11 34 25 33 32 31 21 02 22 03 23 04 24 05 25 06 26 07 27 08 28 09 29 10 30 11 31 16 36 12 32 17 37 13 33 18 38 14 34 19 39 41 15 35 20 40 42 43
WALL SECTION M 1 : 20 FLOOR PLAN DETAIL M 1 : 20

KITCHEN UNIT : DETAILS

The kitchen unit has mainly the same structural system as the living unit of the Treehousing. This is a lightweight structure based on a steel column and a piece that connects it to the wooden frame of the unit. The elevation is made of vertical larch timber planks. To protect the roof and the walls from the water, the metal sheats were used.

The main feature of this unit is the inclusion of the existing tree inside the interior space to preserve and enhance the local natural resources. From the constructional point of view that was developed by glassed atrium inside the unit.

Metal sheets protecting the sctructure from the water Metal gatter collecting the rain water Larch timber vertical planks formating the facade Larch timber vertical planks formating the facade
FACADE ELEVATION M 1 : 20
Glassed sliding door providing the solar races inside the unit Wooden fence / Bar Bar Wooden boards covering the bearing structure

Structural timber slud,

Fixing batten

Internal lining board (finish),

Aluminium detail

Structural timber slud

Hardwood timber

Reed insulation,

Steel plate connections,

Aluminium detail

Timber window sill

Larch timber board,

Fixing batten, 40 x 50 mm

Reed insulation, 136 mm

Fixing batten, 40 x 50 mm

OSB sheating board, 20 mm

Flooring, 20 mm

The materials have been chosen according to the site’s features and existing environment. The main goal was to reduce the amount concrete and metal details and structures to construct the unit and increase by utilizing various types of wood. So all the cladding and flooring are made of timber cladding, also to enhance the quality of the unit’s s internal and external pace.

Steel detail connecting the metal sheats

Metal sheats protecting the structure from water

Gutter channel, metal sheats, 4 mm

Vertical larch timber cladding, 18 x 120 mm

Wooden board formating the bar

Glass Timber vertical cladding formating the fence

Wooden column, 50 mm

Wooden beam, 50 mm

Wooden suportive beam, 100 mm

Wooden bearing structure

Flooring, wooden board, 40 mm

Vertical larch timber cladding, 18 x 120 mm

Steel spike

elina.newlinarch@gmail.com+7(987)224-36-09Kazan city, Russia

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