Portfolio Architecture 2011-2017

Page 1

Francesca Tassi Carboni, B.Sc. M.Arch.

Portfolio Architecture selected works 2011-2017


Content Everything at its place - paint on plywood


Mirrored Replica

Pastoral Space & Refurbishment Works

design | residential | planning

fire cert | DAC | tender | construction 3

23

Clone House

Rua Paula Ney Tower

design | planning | conservation

residential | landscape

6

27

Double Cottage

From Emergency Shelters to Homes

design | residential | planning | construction

product design | humanitarian

11

29

Palau Balaguer

Ponte San Pietro

renovation | survey | model

residential | urban planning | drawing

14

34

Sala Beckett Theatre

The Seed 2.0

renovation | survey | model

sustainability | detail | parametric

17

21

37

Botanic Avenue Cafe

Bold Fold

design | commercial | planning

sustainability | detail | materials 43


Pastoral Space & Refurbishment Works Our Lady of Good Counsel Church, Drimnagh

Year: 2016 Drawings Francesca Tassi Carboni Photos Alice Clancy Š

01

Pastoral Space and Refurbishment Works fire cert | DAC | tender | construction

3


4


The project involves the introduction of a separate acoustically insulated pastoral meeting space to the rear of the Church nave served by refreshment facilities. The works were completed in October 2016 and extended over an area of 242 sq.m.

The room juxtaposes the qualities of transparency and solidity. It is constructed predominately of frameless glazed panels and solid natural oak wood finished pillars at the corners and framing the main doors which formally mark the entrance to the sacred Church space. The linear roof light within the space directs the glance towards the coffered ceiling and the greater space surrounding while also mirroring the central aisle and the processional route into the Church. It also allows a suffused natural light enter the new space from the upper Church nave windows. I participated on this project as Architectural Assistant with Clonliffe Architects. I was in charge of the preparation of the survey drawings, Fire Safety Certificate Application, Disability Access Certificate Application, tender and construction drawings. 5


Clone House Refurbishment of Existing Stables into Wedding Venue & Self-Catering Accommodation

Year: 2017 Drawings: Francesca Tassi Carboni Photos: Clone House and Clonliffe Architects

02

Clone House design | planning | conservation

6


Lin e OH

OH e Lin

Current Entrance to Clone House

GL +133.7m

KEY

Gate GL +132.6m

Trees to be removed (planted between 1997-1999) No.15 Existing trees

GL +135.6m

Site Boundary 19829 sq.m.

GL +135.44m

GL +135.21m

GL +135.28m

E4

GL +137.7m

GL +135.38m

Existing percolation area

GL +135.4m

Grass

E1

GL +139.69m

Existing septic tank Conc.

GL +141.3m

GL +135.3m

E2

SHEDS

GL +139.23m

Evergreen trees

GL +142.1m

Remnants of Glasshouse walls

GL +135.3m

Existing right of way with adjoining farm property

Concrete

Grass

E1

25-year-old Sprawl tree

Grass GL +139.13m

Gravel

GL +134.3m

GREENHOUSE

e

GL +136.6m OH

GL +140.86m

PUMP HOUSE GL +141.3m

Lin

Conc.

e

Lin

OH

OH

100-year-old Ash tree

Lin

e

GL +135.8m

GL +135.7m

CLONE HOUSE E4

E3

Entrance GL +138.6m GL +140.06m

Gravel GL +134.5m

GL +140.8m

GL +136.1m

N

GL +136.4m

Grass E3 E2

GL +138.22m

Existing Site Plan

Clone House, rear view

Stables

7


GL +135.5m

Clone House, Co. Wicklow, is an early 19th century threebay, two-storey former country house, now in use as a guest house, and is listed as a Protected Structure.

GL +135.3m

GL +135.48m

KEY

Grass

Existing Walls E1

Demolitions Trees to be removed (planted between 1997-1999) No.15

The proposed works include the refurbishment and extension of the existing dilapidated stables and outhouses as two storey self-catering accommodation units and wedding function spaces, as well as a new single storey venue building connected to the ceremony space. The proposed extension is set back from the formal gardens of Clone House, respecting the alignment of their layout, while maintaining a close connection with the existing 100 year old ash tree to the South which is retained in the proposed design.

Existing septic tank

Existing trees GL +135.3m

Concrete

S5

Evergreen trees FFL +135.8m

S7

BLOCK E

E4 S4 S6 GL +135.3m

S8

FFL +136.5m FFL +136.3m

Concrete

E1

Grass SHEDS

S2

BLOCK B FFL +136.2m

FFL +135.7m

S3

FFL +134.7m

Site Boundary 19829 sq.m.

BLOCK D

S4

FFL +136.3m

BLOCK A

GL +134.3m

S5

FFL +136.4m

Grass

FFL +136.3m

BLOCK C

Gravel

G

FFL +134.9m

ine

L

GL +136.35m

FFL +136.3m

100-year-old Ash tree e

S8

Conc.

OH S2

OH

Lin

S7

FFL +134.8m

Lin

e

FFL +135.6m

FFL +136.3m

S6 GL +136.5m

GL +135.7m

GL +135.8m

S3 E4

The stables courtyard will become the main fulcrum of activity of the new development on to which the Service Area and the Event space open and where ceremonies can take place. I was involved in the project with the preparation of the design proposals, the planning drawings and the conservation report.

GL +137.5m

FFL +136m

OH

The proposed works seek to keep the intervention to the historic fabric of the existing structures to the minimum, yet making it safe and adaptable for its sustainable re-use.

E2

S1

S1

Entrance

GL +136.19m

CLONE HOUSE

GL +138.61m

N

Existing Ground Floor Plan GL +136.4m

E2

8 Grass


GL +138.6m

E1

30 Bicycle parking (12 spaces)

GL +135.93m

GL +138.35m

GL +138.69m

GL +139.43m

KEY

E1

GL +138.04m

Existing Walls

New planting

GL +135.49m

New Construction

S2

Existing Septic Tank

S8

Demolitions

GL +136.82m

UNIT 1 (3-Bed) UNIT 2 (2-Bed)

GL +135.43m

GL +135.30m

UNIT 3 (2-Bed)

Entrance

UNIT 4 (1-Bed) UNIT 5 (2-Bed) UNIT 6 (1-Bed)

Male

Female

Trees to be removed (planted between 1997-1999) No.15 Booths

Lobby

Trees to be planted No.15 (oak, ash, hazel and elm)

Event Space Booths Bar

GL +134.96m

Existing trees E

FFL +135.68m

Access. WC

Entrance

E4

Lobby Function Room

S9

Service Area

S9

FFL +136.22m FFL +135.68m

S10

S7

FFL +136.22m

GL +136.22m

Evergreen trees S10

Courtyard/ Open space

GL +136.83m

GL +136.22m GL +135.89m

S6

S5

S4

S4

FFL +136.22m

E7

Bathroom 1 Unit 3

S3

GL +135.50m

Bathroom 2 Unit 3

Bedroom 1 Unit 3

FFL +135.86m

Bathroom Unit 4

Bathroom 2 Unit 2

S8

Bathroom 1 Unit 6

GL +136.19m GL +135.50m

Bedroom Unit 4

Living/Dining Unit 5

Bedroom Unit 6

WB

GL +134.68m

CLONE HOUSE

S3

E GL +136.039m

Site Boundary 19829 sq.m.

Bathroom 1 Unit 5

GL +136.30m

GL +136.00m

Bedroom 2 Unit 3 CLONE HOUSE

GL +134.72m

FFL +135.86m

E

FFL +135.86m

E

E

E3 S11

S11 S2

GL +135.826m

Bathroom 1 Unit 2

GL +137.10m

Bedroom 2 Unit 2 GL +134.20m

S7

CLONE HOUSE

FFL +134.36m

Bedroom 1 Unit 2

GL +134.29m

FFL +135.751m

E

CARPARK 4 11 spaces

GL +135.751m

Ensuite 2 Unit 1

GL +136m

Bedroom 3 Unit 1

GL +138.35m

FFL +134.36m

GL +135.42m

GL +135.12m

Ensuite 1 Unit 1

Bedroom 2 Unit 1

GL +134.65m

GL +134.37m

GL +137.90m

GL +135.5m

GL +135.4m

GL +135.31m

GL +135.17m

CLONE HOUSE

GL +134.21m

CLONE HOUSE

GL +136.38m

GL +133.86m

S1

E

Bathroom 2 Unit 1

GL +135.751m

S1

FFL +135.751m

GL +137.46m

Bathroom 1 Unit 1

Bedroom 1 Unit 1

F E B A

C

D

G

KEY PLAN S5

Proposed Ground Floor Plan

S6

E2

E4

E5

N

GL +135.3m

GL +140.03m

GL +138.35m

CLONE HOUSE

GL +138.5m

GL +136.42m

GL +135.31m

Existing North Elevation

GL +135.68m

GL +135.43m

GL +135.5m

Proposed North Elevation

9


GL +138.6m

E1

30 Bicycle parking (12 spaces)

Bin Store

GL +138.35m GL +139.43m

KEY

E1

Lobby

Existing Walls S2

New Construction

Existing Septic Tank

Staff WC S8

Demolitions UNIT 1 (3-Bed)

Entrance

UNIT 2 (2-Bed) Kitchen

UNIT 3 (2-Bed) Event Space

UNIT 4 (1-Bed)

Bar

UNIT 5 (2-Bed) UNIT 6 (1-Bed)

Trees to be removed (planted between 1997-1999) No.15 Rear Entrance Lobby

Trees to be planted No.15 (oak, ash, hazel and elm) Existing trees Entrance

Female WC

Lobby

Service Area E

Accessible WC

S9

S9

E4

GL +140.36m GL +135.32m

S10

FFL +138.5m

Male WC

GL +135.68m

GL +138.35m

S7

GL +136.22m

Entrance

GL +135.54m

Courtyard/ Open space

Evergreen trees

S10

GL +140.1m

GL +139.13m

Function Room Terrace

GL +138.5m

100 years old Ash tree

S4

S6

S5

S4

E7

S8

FFL +138.51m

FFL +138.51m

Dining/Living Unit 3

S3

FFL +138.51m

Dining/Living Unit 4

GL +136.039m

Site Boundary 19829 sq.m.

Bedroom 2 Unit 5

Ensuite Unit 5

Bedroom 1 Unit 5

S3

S11

S11 S2

GL +135.826m

Dining/Living Unit 2

S7

CLONE HOUSE

FFL +137.08m

FFL +135.75m

GL +135.751m

Dining/Living Unit 1

FFL +137.08m

FFL +135.75m

GL +135.751m

S1

S1

GL +140.03m

GL +138.5m

GL +138.35m

N CLONE HOUSE

S5

GL +135.68m

GL +135.5m

S6

Entrance

E4

E2

Proposed First Floor Plan

GL +135.43m

GL +135.31m

E5

GL +136.42m

GL +138.35m

GL +135.42m

GL +135.31m

GL +135.12m GL +134.37m

Existing West Elevation E3

GL +134.65m

GL +135.4m

GL +135.5m

GL +135.17m

CLONE HOUSE

GL +134.21m

Proposed West Elevation

CLONE HOUSE

E3

10


Double Cottage New build dwelling in Wicklow

Year: 2015 Drawings and images: Francesca Tassi Carboni Photos: Clonliffe Architects

03

Double Cottage design|residential|planning|construction

11


a

b

W0.14

c

W0.13

W0.12

Wardrobe

Bathroom 1

3.2 sq.m.

4.9 sq.m.

The project consists of the construction of a new single storey detached dwelling house in Ballycoog, Co Wicklow. Planning permission for the development was Bedroom 5 granted in August 2016 and the works commenced on site in July 2017.

D0.07

21 sq.m.

W0.10

Bathroom 2

Bedroom 1

9 sq.m.

16 sq.m.

W0.17

W0.15 D0.03

Bedroom 3 11.3 sq.m.

D0.04

FFL +165.32

D0.08

D0.11 W0.09

Utility & HP D0.10 W0.16

FFL +164.936

Kitchen

Hall

D0.13

I was in charge of the design proposal and the preparation of the planning application package and the construction drawings.

W0.16

d

W0.08

B

D0.12

D0.05

D0.02

Hall

FFL +162.62

FFL +162.52

FFL +165.32

FFL +165.32

W0.07 D0.01

FFL +164.936

D0.09

W0.06

W0.01

W0.01

Entrance Lobby

W0.09

a

Bathroom 2

Bedroom 3

Bedroom 2

e

b

W0.11

D0.06

Bedroom 2

a

FFL +162.62

FFL +162.62

e

GL +162.47

FFL +162.16

Living

Dining / Living

21.6 sq.m.

33.2 sq.m.

e

a

FFL +164.93

Entra Lob

FFL +162.62 GL +162.47

W0.02

W0.03

W0.04

W0.05

N

N

b

Ground Floor Plan

c

FFL +165.32

c

FFL +165.32

FFL +164.936

FFL +164.93

Entrance Lobby

Entrance Lobby

Bathroom 2 Bathroom 1

Bedroom 1 Utility Room

Bedroom 3

Bedroom 2

b

d FFL +165.32

Living Area

Living Area

Living/ Dining

Kitchen

FFL +162.62 FFL +162.62

GL +162.47

FFL +162.62

FFL +162.62

GL +162.47

FFL +162.62

GL +162.47 FFL +162.16

NATURAL SLATE FFL +162.16

GL +162.0

Hardwood Door & Frame w/ Hardwood double glazed windows

double glazed PVC windows

NATURAL SLATE

double glazed PVC windows

double glazed PVC windows

RENDER FINISH Hardwood Door & Frame w/ Hardwood double glazed windows

GL +162.47

GL +162.47 RENDER FINISH

RENDER FINISH GL +162.01

GL +162.47

GL +162.01

G

FFL +165.32

double glazed PVC windows Bathroom 1

Living Living Area

Bedroom 1 Utility Room

Living/ Dining

Kitchen

FFL +162.62

Dining/Living

FFL +162.62

GL +162.47

GL +162.47 FFL +162.16

FFL +162.16

GL +162.01

FFL +162.16 GL +162.01

Section c-c

Section e-e NATURAL SLATE

12


Construction Works, October 2017

Construction Works, October 2017

Construction Works, July 2017

13


Palau Balaguer Restoration of a baroque palace in Palma de Mallorca

Year: 2011 Model and Survey: Francesca Tassi Carboni, Lars Bach

Pictures: Flores & Prats Arquitectes

04

Palau Balaguer renovation | survey | model

14


ARCHITECTURAL SURVEY AND MODEL Palau Balaguer is a palace in the historic center of Palma, which has been a family home from 1300 to 1700. The project involved the readaptation of the building to host a cultural center for the city. The boundaries between the different periods of construction can be read in its fragmentary geometry. A new mezzanine level with light wells is introduced within the existing volume, producing gaps between one

period and the other. The new windows provide natural light to some of the dark inner parts of the palace, highlighting the distinction between the different sections of the building. I have been responsible for the preparation of the survey and the model of the relative building’s section, in order to facilitate the design of the new wooden windows, which should perfectly fit the outline of the old arches in the facade.

Ground Floor Plan & Elevation

15


Carpentry works in progress

Mezzanine floor completed

1:25 scale model

16


Sala Beckett New headquarter for Sala Beckett theatre company, Barcelona

Year: 2011 In collaboration with Flores & Prats Arquitectes

05

Sala Beckett Theatre renovation | survey | model

17


URBAN SETTING FREEHAND DRAWING The project involved the transformation of an abandoned building in the Poble Nou neighborhood into the new headquarters for Sala Beckett, a famous theatre company in Barcelona. The existing envelope of the building is preserved, as well as a large part of its original decorative elements. The new centre will have two theatre exhibition halls, one small and the other medium-sized, rehearsal rooms and drama and writing classrooms, as well as meeting and residential areas for creators from abroad.

To create the urban setting drawing I started with 1:5000 and 1:2000 printed plans of Barcelona. By using tracing paper I selected the elements I wanted to transfer on the new drawing, to highlight important features such as the connection between the project area and the main city arteries, the typology and the density of the buildings, focusing the attention on the new building through varying stroke thickness. The drawing was then transferred to vector-graphics format.

18


ARCHITECTURAL AND PHOTOGRAPHIC SURVEY In a team of four people we carried out a survey of all windows, doors, floor tiles, ceilings and valuable decorative and architectural elements that are to be maintained during

the refurbishment of the building. Each element has been classified according to its location within the building, with detailed drawings and pictures.

••

••

••

19


20


Botanic Avenue Cafe Cafe Fit Out and New Extension

Year: 2016 Drawings and Images Francesca Tassi Carboni

06

Botanic Avenue Cafe design | commercial | planning

21


The design proposal includes the fitout of the cafĂŠ, the construction of a two-storey flat roof extension to the rear of the property and the first floor level change of use from residential to kitchen. Planning permission was granted in June 2017. I was involved in the project as Project Architect, being responsible for the design proposal and the planning permission application submission.

Ground Floor Plan

22


Mirrored Replica Period House Extension and Refurbishment, Co Westmeath

Year: 2016 Drawings & Model: Francesca Tassi Carboni

07

Mirrored Replica design | residential | planning

23


d

e

e

d

Terrace -0.44m

Dining

a b

Kitchen

Living Room

a b

a b

void

Bedroom 2

Bedroom 3

+2.75m

WD Utility

c

c c

+0.0m

a b

c +3.07m

Bathroom

Bathroom

+2.37m

Ensuite

d Bedroom 1

New walls

Sitting Room

e

e

d

N

N

Proposed Ground Floor Plan

Proposed First Floor Plan

24


The project consists of refurbishment and extension to a period dwelling at Calliaghstown, Ballymore, Co Westmeath. As a design principle, the original building fabric is almost entirely retained, while the two-storey extension was developed mimicking the historic volume proportions and lightly connected to it through a fully glazed section. A second

attidition to the side of the house in the proposed new living area is carefully designed around the existing trees, breaking the linearity of the layout and directing the view towards the surrounding landscape. I was involved in the design phase, the preparation of planning package and presentation material.

GL -0.2m

GL -0.26m

GL -0.24m

FFL -0.44m

GL -0.91m

GL -1m GL -1.35m

GL -1.35m

Proposed East Elevation

Proposed South Elevation

Proposed North Elevation

Bedroom 2 Bedroom 2

Bathroom

Bedroom 3

Ensuite

Bedroom 3 FFL +3.07m

FFL +3.07m

FFL +3.07m FFL +2.75m

FFL +2.75m

FFL +2.75m

FFL +2.37m

Entrance Lobby

Living Room

Kitchen

Living Room

Kitchen

FFL +0.0m

Utility

FFL +0.0m

FFL +0.0m

FFL +0.0m GL -0.32m

GL -0.44m

GL -0.69m

GL -0.73m

GL -0.8m

Proposed Section AA

GL -0.78m

Proposed Section BB

Bedroom 1

Proposed Section CC

Bedroom 2

FFL +3.0m

Sitting Room

Living

Dining

FFL +0.0m GL -0.265m

Road

FFL -0.44m

Proposed Section EE GL -4.2m

25


Rua Paula Ney Tower Residential complex in Fortaleza, Brasil

Year: 2015 Group project Francesca Tassi Carboni Alessandro Tassi Carboni Luca Mordacci Lorenzo Sacco`

08

Rua Paula Ney Tower residential | landscape

26


The project is a competition entry for the realization of a residential tower in Fortaleza, Average Weather For Fortaleza, Brazil Brazil.The propoed 23 storey high building includes 66 apartments, a gym, a playroom, an event space, a nursery, a cinema and a garden with outdoor facilities. Average Weather For Fortaleza, Brazil - WeatherSpark

07/08/14 18.17

Location

This report describes the typical weather at the Pinto Martins International Airport (Fortaleza, Brazil) weather station over the course of an average year. It is based on the historical records from 1999 to 2012. Earlier records are either unavailable or unreliable. Fortaleza has a tropical savanna climate with dry winters. The area within 40 km of this station is covered by oceans and seas (45%), shrublands (44%), forests (5%), and built-up areas (4%).

Temperature

Average Weather For Fortaleza, Brazil - WeatherSpark

07/08/14 18.17

Over the course of a year, the temperature typically varies from 24°C to 31°C and is rarely below 22°C or above 32°C.

Posizione sole per ogni localitá e data, diagrammi percorso solare, alba tramonto mezzogiorno zenit

Daily High and Low Temperature

07/08/14 11.21

32°C 30°C 28°C

21/12/2014

26°C

This work is licenced under a Creative Commons Licence Puoi copiare una parte degli articoli linkando sempre la fonte. Visite: in Linea:

24°C The fraction of time spent with the wind blowing from the various directions over the entire year. Values do not sum to 100% because the wind direction is undefined when the wind speed is zero. 22°C Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec

p:1

21/06/2014

Fraction of Time Spent with Various Wind Directions

The daily average low (blue) and high (red) temperature with percentile bands (inner band from 25th to 75th percentile, outer band from 10th to 90th percentile).

The warm season lasts from November 6 to January 4 with an average daily high temperature above 80% 31°C. The hottest day of the year is December 11, with an average high of 31°C and low of 26°C.

Existing situation

Shadows diagram of proposed development

torna Su

Contenuti

Sun Path

| Dati + Map | Grafico Polar | Grafico Cartesian | Tabella | Percorso del sole annuale |

E (61%) The cold season lasts from June 7 to July 23 with an average daily high temperature below 30°C. The coldest day of the year is August 10, with an average low of 24°C and high of 30°C. 60% 40%

Fraction of Time Spent in Various Temperature Bands

SE (44%) S (31%)

20%

http://weatherspark.com/averages/33419/Fortaleza-Ceara-Brazil

0%

Jan

Feb

Mar

Apr

Pagina 1 di 9

May

Jun

Jul

Aug

Sep

Oct

Nov

Dec

The fraction of time spent with the wind blowing from the various directions on a daily basis. Stacked values do not always sum to 100% because the wind direction is undefined when the wind speed is zero. torna Su

Contenuti

| Dati + Map | Grafico Polar | Grafico Cartesian | Tabella | Percorso del sole annuale |

© Cedar Lake Ventures, Inc

http://www.sunearthtools.com/dp/tools/pos_sun.php

Total area​​113.42 m Gross leasable area 99.40 m2 Usable floor area 100.26 m2 2

A.1

A.2 T | mq 13,19

236

210

470

B | mq 2,45

220

B | mq 2,45

LS | mq 8,50

B | mq 2,45

K | mq 10,95

LS | mq 8,50

http://weatherspark.com/averages/33419/Fortaleza-Ceara-Brazil

LS | mq 8,50

LS | mq 8,50

B | mq 2,45

LD | mq 11,75 250

S | mq 19,47 220

C | mq 6,11

100

Pagina 9 di 9

K | mq 11,38

190

345

LD | mq 11,75

135

340

310

365

425

Total area​106.08 m2 Gross leasable area 97.99 m2 Usable floor area 93.03 m2

120

T | mq 12,10 T | mq 8,92

Pagina 2 di 6

S | mq 19,44

C | mq 6,31

210

305

A | mq 3,36

150

B | mq 3,45

A | mq 3,36

B | mq 2,25

B | mq 2,25

224

B | mq 3,45

495

300

230

T | mq 11,16 S | mq 21,55 281

220 242

250

115

B | mq 1,80 LS | mq 9,23

C | mq 2,25

410

190

100

B | mq 2,89 19 0

A | mq 2,85

105

Total area 84.70 m2 Gross leasable area 76.98 m2 Usable floor area 75.29 m2

Total area​89.20 m2 Gross leasable area 79.38 m2 Usable floor area 79.15 m2

T | mq 15,21 S | mq 21,43

K | mq 7,47

B | mq 1,80 B | mq 2,25

LS | mq 9,23

B | mq 2,89 A | mq 2,85 LD | mq 11,21

A | mq 3,19

T | mq 1,63

A | mq 3,19

225

340

140

B.2

150

LD | mq 11,27

155

90

T | mq 1,63

260

K | mq 7,47

B.1

362

Tipical Floor Plan

27


0

15 M

RUA PAULA NEY

NOR

D

16 5

6

7

3

RUA VICENTE LEITE

15

4

14

4

1 2 1_Pedestrian access 3 2_Porter's lodge 4 3_Driveway 5 6 4_Hall 7 5_Events room/kitchen 8 6_Recreation room 9 7_Kindergarden 10 11 8_Gym 12 9_Home theatre

8 10 12

11

1

9 2

13

3

10_Cafe` 14 11_Swimming pool 15 16 12_Swimming pool kids 13_Sport 14_Barbecue 15_Playground

Ground Floor Plan

28


From Emergency Shelters to Homes Design of paperboard housing exploring living conditions

Year: 2014 Group project: Francesca Tassi Carboni, Jonas Lundgren

09

From Emergency Shelters to Homes product design | humanitarian

29


January

1st prototype

February

March

April

INPUT FROM IMNUS

PRESTUDY chapter 1

SPACE & FUNCTIONS chapter 3.1

Grouping daily activities

DESIGN CRITERIA chapter 2

STRUCTURAL DESIGN chapter 3.2

Modelling & sketching

ADAPTABILITY chapter 3.4

June

2nd prototype

3rd prototype Structural deformation!

Rationalization due to cost!

Transport limitations!

DETAIL CONNECTIONS chapter 3.3

May

Plan evolution 15 plans 20-24 m²

Foundation & flooring

9 plans 20-22 m²

3 plans 18-20 m²

Roof structure

1 plan 23 m²

F

APPLIED PROPOSAL 3.5

Full scale test on 3 options

chapter

Settlement layout Neighbourhood Interiors Working with re-board

Wall connections

Furnishing

Window details

Context adaptability

Providing adequate post-disaster housing for refugees and displaced people is a challenging and critical issue, as worldwide aid resources are insufficient. The objective of the thesis is to develop the design for an emergency shelter made in paperboard, focusing on the creation of high quality living conditions in a way that is both environmentally sustainable and economically feasible; a shelter which can be produced with high durability at reasonable cost.

Alternative plan options

Appearance

Roof structure

Daylight study

Natural ventilation

The project was performed in collaboration with Imnus™ Emergency Housing. Re-board®, by Stora Enso, was selected as construction material, being rigid, lightweight and fully recyclable as paper. The thesis proceeded alternating research, design development and full scale realization, with the construction of three prototypes between January and June 2014.

STRUCTURAL ALTERNATIVES AND PERCEPTION OF VOLUME

20m2 interior

15m2 interior + 5m2 porch

17 m2 interior + 3 m2 porch

30

C

ch


PLAN EVOLUTION 1 6x4m

5,5 x 4,5 m

PLAN EVOLUTION 2 5x5m

1. Back

2. Side

Sleeping area Living/Dining Storage Circulation Porch

1. Back

3. Separate

2. Side

4. Corners

5. Enclosed 4. Corners

By translating the grouping of the basic activities that are carried out globally in the home into a schematic layout, the importance of optimizing the limited indoor space and adopting a proper functional zoning emerged.

The selected floorplan solution presents an optimal use of space that could easily adapt to other interior arrangements and to be separated in living and sleeping area. The symmetry brings also structural benefits.

PACKAGES ADAPTABLE TO VARYING CONTEXTS Re-board Roof tarpaulin & guy ropes Wooden plates

a) Basic package 23 m2 Re-board shelter

Re-board Roof tarpaulin & guy ropes Wooden plates Re-board beds Sandbags

b) Extended package 23 m2 Re-board shelter 31


A

LAYOUT TYPOLOGIES IN EXISTING CAMP VS. DESIGN PROPOSAL

B

B

1. Unorganized settlement.

Floor Plan - 18 m2 interior + 5 m2 porch

A

Semi-public outdoor/private indoor

2. Irregular line settlement.

1,6 6 m

2,40 m

Public outdoor/private indoor

3. Planned line settlement.

4,17 m

Private outdoor and indoor

Cross section A-A

4,40 m

Longitudinal Section B-B

1,10 m

Unorganized settlement. 3rd typology aerial view.

32


1 ST PROTOTYPE The main issues that arised during the design process appeared to be costs, transport limitations and provision of effective water resistance. The 1st prototype experience was useful for understanding the properties of the material and construction techniques. In the 2nd prototype we studied a structural system with sheets folded inwards, and connections based on cable ties.

Size Weight Area Time Material

1600 x 3200 x 320 205 kg 15 m2 6 hours by 4 people 93 m2 Premium 400 plastic screws Re-board floor

2ND PROTOTYPE

The 3rd prototype presents a structural reinforcement and a more detailed solution for connections and assembly techniques, such as using plastic plates to protect the holes and assembling the roof board by board. We also experimented with digital drilling and printing of patterns on the material. In the third prototype the skylight provides natural light while ensuring privacy to the inhabitants.

1600 x 2400 x 420 180 kg 23 m2 5 hours by 3 persons 81 m2 Outdoor 1100 plastic cable ties Floor tarpaulin

3RD PROTOTYPE

1600 x 2400 x 420 190 kg 23 m2 4 hours by 3 persons 85 m2 Premium 1300 plastic cable ties Roof tarpaulin 16 plywood plates

33


Ponte San Pietro A residential development along the Brembo river

Year: 2011 Group project: Francesca Tassi Carboni, Micol Bergamo, Emanuele Lisci In collaboration with Flores & Prats Arquitectes

10

Ponte San Pietro residential | urban planning | drawing

34


The project represent a proposal for the development of a residential neighborhood in a formerly dismissed industrial area in Ponte San Pietro, a small town near Bergamo, Italy. To the East the area is bordered by the Brembo river, whose riverside would provide recreational trails and a bicycle route to connect the new neighborhood to the old town centre. The houses come in three different typologies: one, two and three single-family units. All the houses have a private garden, but the real green core of the development are the public gardens, located at the centre of the site. To illustrate the project we produced visualizations based on hand drawn perspectives and 3D representations. We also prepared a 1:1000 scale model in cardboard, paper and wood.

1:1000 Scale model

35


36


The Seed 2.0 Growing the urban forest. Entry for Solar Decathlon Europe 2014

Year: 2013 Group project Francesca Tassi Carboni Filip Karlen Gustav Johansson Marcus Stark

11

The Seed 2.0 sustainability | detail | parametric

37


URBAN SITUATION The Seed is a pavillion, designed with the intent of addressing major issues concerning the modern way of living. Every unit built is a seed that is planted for the creation of an urban forest, with the aim of promoting ecological awareness, independence and increased social equality. The construction can adapt to its surroundings, just like a tree would do, and it can be shaped by the needs of the residents. It encourages a symbiotic existence between humans and the ecosystem, re-inviting the indigenous fauna to the inner core of the urban environment.

PLANTING

LOCALLY PRODUCED FOOD INCREASED EQUALITY

The building's envelope is the main part of a passive housing system, collecting and purifying rain water and absorbing air pollution. It also creates a new natural habitat and provides the residents with a garden and food straight from the walls. The fabrication strategy and construction process have been thought in order to minimize the carbon footprint and waste products throughout the total lifecycle of the building, from its design until its demolition. The structure is designed to be cheap, fast and easily built.

ATTRACTING POLLINATORS

BIODIVERSITY

TYPOLOGY A On roof tops. Addition of green areas in a dense urban environment.

TYPOLOGY B Addition to existing buildings. Green walls reduce the heat island effect.

TYPOLOGY C Floating house. It purifies polluted waters.

38


STRUCTURE Thin film PV modules

Corrugated plastic

Horizontal bracings B1 B2 B3 B4 B5 B6 B7

Green wall

Insulation

C1

C2 A1

PROTECTIVE SKIN

STIFFENING ELEMENTS

C4 A3

C5 A4

C6 A6

A5

Beams

EGGCRATE STRUCTURE

A

Ridge cover Cardboard joining detail Translucent plastic

Opening Adjustable Trombe wall opening

Cardboard transparent insulating material Thermoclick

Adjustable Trombe wall opening

2

B

Cardboard

Axonometric

Trombe wall PVs integrated in a plastic sheet

2

Detail A

C3 A2

C Adjustable Trombe wall opening

plastic sheet transparent insulating material Thermoclick

1

fan water resistant layer ventilation pipe soil

Detail B

cardboard

Opening cardboard finishing

D

insulation vapour isolation sheet insulation wind insulation

Detail C

1

Section 1-1

Insulating transparent material Thermoclick

cardboard 600

600

insulation fan steel sheet for heating disperse floor heating pipes

Detail D

cardboard

PVs integrated in a plastic sheet

Cardboard

finishing vapour barrier isolation sheet

diffusion sheet soil water resistant layer

Trombe wall

Section 2-2

air gap soil ventilation pipe

wind insulation

Cardboard

diffusion sheet

Cardboard

cardboard

39


View on the interiors

Final 1:25 model

40


nat

ura

local mtrl

sou

rce

s

sol

ar r a rain diatio w n org grey w ater anic ate was r te

soil water gravel

thermal mass

cardboard structural elements

Cardboard timber

cardboard furniture

electric energy vegetables new animal habitat temp. regulation residence

wood support elements

mTRL INPUT

exterior wood parts

local cnc-cutter

pv-glass panels

output

renewable

l re

glass walls metal joints

pet bottles

reuse

windows pv-glass panels wood parts soil/gravel

ESTIMATED PRICE

DAYLIGHT FACTOR

%

31 KG

910

'486 kg 112% of

'665 SEK 161% of

KG

13%

SEK 60% of 553'909

KR

% %

KR

kg 89% of 28'169

LIGHTWEIGHT MATERIAL SET UP

% %

% %

% RECYCLABLE of 100 100%

14,1 19,6

t

28 31 t

% RENEWABLE of total weight: % RENEWABLE of total weight:

% %

AMOUNTS & FRACTIONS OF EACH MATERIAL

AMOUNT OF RENEWABLE&RECYCLABLE SUB/COMPONENTS

% RECYCLABLE of 100 100%

%

5%53%%of 9,5190% of

TRADITIONAL MATERIAL SET UP

disassembly

ESTIMATED TOTAL PRICE

daylight factor

wEIGHT

WEIGHT

recycle

AMOUNT OF ADDED GREEN SURFACE IN RELATION TO UNDERLAYING SURFACE

pet insulation glass metal parts cardboard elements

MATERIALS

growing the urban forest

material in detail

ADDED GREEN SURFACE IN RELATION TO UNDERLAYING SURFACE

recycled THE seed 2.0

recycled pet insulation

central factories

RENEWABLE & RECYCLABLE COMPONENTS

recyclable

glass pv-cells metal

CARDBOARD 6.9% 8.9%WOOD 12.3% OTHER 14.1%glazing 57.8% SOIL 113% 4%.translucent ins 113% 15% cardboard 19% other 62% soil

%

%

41


THE seed 2.0 growing the urban forest

C

ASSEMBLY

D

The strategy for the construction is to make a building with a simple assembly system. It should be possible to erect the house as fast as possible with small labouring requirements. This makes the building suitable in a wide range of scenarios, ranging from post catastrophic urban areas to a modern city. To make this possible the load carrying structure consist mainly of a flexible interlocking system, that minimizes the amount of bolts and physical labouring.

C B

B

Compact pieces

A

The CNC milled pieces are easily stacked and transported in containers. Thus space is saved and costly transport is reduced. By transporting a small volume the environmental impact is reduced as well.

LOCAL CARGO

A:

+

2

+

3

+

...

ls

he wal

rect t TEP 3: e

aterial

S

ct the m

Colle STEP 1:

1

Manual mounting The majority of the pieces in the building construction are manufactured with minimal labouring skills in mind. They create an interlocking structure with easy mounting and are always light enough for two people to carry. The first step is to build the load carrying cardboard structure, wich can be done on the ground and without advanced bolts or joints. When the structural element is assembled, the insulation and the corrugated plastic are easily mounted onto the structure. The last step before the wall elements are erected is to connect the green boxes to them.

C2 C3 C4 C5

+

C6 C7 C8

ture

uc ard str cardbo

C9

ion

C10

Insulat ing and

roof waterp

g

xes reen bo

B4

B1

A1

STEP 2:

B5

es

piec e wall l b m e s As

B2

A0

A3

A2

B3

ASSEMBLY The assembly of the building was optimised to allow few people to carry it out quickly and easily. To make this possible the load bearing structure consists mainly of a flexible interlocking system, that minimizes the amount of physical labour, with pieces that are light enough for two people to carry. The CNC milled pieces are easily stacked and transported in containers, thus space is saved and both transport costs and environmental impact are reduced.

The first step of the construction is to assemble the cardboard structure, an activity that can be done on the ground and without advanced bolts or joints. When the structural element is assembled, the insulation and the corrugated plastic are easily mounted onto the structure. The last step before the wall elements are erected is to connect the green boxes on the faรงade.

42


Bold Fold Concept project for Solar Decathlon Europe 2014

Year: 2013 Group project Francesca Tassi Carboni Panagiotis Koukaroudis Philip Hettinger

12

Bold Fold sustainability | detail | materials

43


First option, regular grid

FABRICATION TECHNIQUE

Second option, irregular grid

Creating volumes

The main task of the Bold Fold project is to develop the Given the choice of using an irregular grid for the final FABRICATION TECHNIQUE concept for the Team Sweden entry for Solar Decathlon Paris proposal, the structure is formed by nine different arches and Creating volumes Hot wire cutting 2014. Bold Fold is a pleated canopy designed as a cheap, their symmetrical part, each one composed of nine triangular FABRICATION TECHNIQUE FABRICATION TECHNIQUE FABRICATION TECHNIQUE Arch segment B Creating volumes lightweight, easily transportable segments. Robotic hot wire cutting can be used to create the Creating volumesand assembled structure, Creating volumes combining eco-friendly materials and energy production triangular volumes with their predefined angles. Moreover the Hot wire cutting x 1Arch 0 Skylights with green-appliances. and solar panels can be lego negatives and positives can be cut in this process. Solar segment A segment B Hot wire cutting Hot wire cutting Hot wire cutting embedded on the skin after the assembling by changing the panels can be embedded in the triangles. Arch segment A Arch segment B Arch Arch B Arch segment A segment A Arch segment B x segment corresponding triangle. 1 0 x10 Robotic hot wire cutting can be used to create the triangular volumes with their predefined angles. Moreover the lego negative and positives can be shaped by this process. The shapes where solar panel are placed can be made of the same process.

9 different triangular shapes the symmetrical of them must be designed. So, 9 volumes create an Arch segment and two symmetrical Arch segments create one Arch. 10 Arches form the Robotic hot wire cutting can be used to create the triangular skin of the house.

volumes with their predefined angles. Moreover the lego negative and positives can be shaped by this process. The shapes where solar panel are placed can be made of the same process.

x10

x10

x10

+

xx 11 00

x10

xx 11 00

x10

x10

x10x10

xx 11 00

x10

xx 11 00

x 1 0 x 0.87sq.m.

+ + + + x10

x 1 0 x 0.87sq.m.

3=A+B

2=A+B

1=A+B

x10 x10

1=A+B xx 11 00

x10

xx 11 00

1=A+B

4=A+B

3=A+B

2=A+B =A+B 11=A+B 2=A+B

5=A+B

4=A+B

3=A+B =A+B 22=A+B

=A+B 33=A+B 4=A+B

7=A+B

6=A+B

5=A+B 5=A+B =A+B 44=A+B

6=A+B =A+B 55=A+B 6=A+B

7=A+B 7=A+B =A+B 66=A+B

9=A+B

8=A+B 8=A+B

9=A+B

=A+B 77=A+B 8=A+B

10=A+B 10=A+B

9=A+B =A+B 88=A+B

=A+B 99=A+B 10=A+B

10== 10

= == = =

x10x10

xx 11 00

x10

xx 11 00

x 1 0 x 0.87sq.m.

0.87sq.m. Embeded xx 11 00 xx 0.87sq.m. x 1 0 x 0.87sq.m. 0.87sq.m. Embeded xx 11 00 xx 0.87sq.m. x 1 0 x 0.87sq.m. Solar Solar x 1 0 x 0.67sq.m. Embeded Embeded x 1 0 Embedded x Panels 0.67sq.m. x 1 0 x 0.67sq.m. Panels Embeded Embeded Embeded Solar Solar Solar Solar Solar 0.67sq.m. Panels Panels xx 11 00 xx 0.67sq.m. Panels 0.67sq.m. SolarPanels xPanels 1 0x 1 0 x 0.67sq.m. x 1 0 x 1 0 x 0.67sq.m. xx 11 00 xx 0.67sq.m.

x10

xx 11 00

x10

xx 11 00

x10

x10x10

xx 11 00

x10x10

xx 11 00

x10

xx 11 00

Rigid - Waterproof Exterior DuraPulp Layer : 5mm

5mm Rigid waterproof exterior DuraPulp

Insulation FoamPulp Layer : 1500mm

Rigid - Waterproof Exterior DuraPulp Layer : 5mm

0.16 0.16

x10x10

x10

0.16

xx 11 00

0.16

x10x10

0.16

ed ar ls mbeded Solar Panels

x10

Robotic hotmust wire be cutting can be used to create the triangular 9 different triangular shapes the symmetrical of them Robotic hot wire cutting can used to create the hotcreate wire cutting be used to create the triangular volumes with their predefi nedbeangles. Moreover thetriangular lego negdesigned. So,Robotic 9 volumes an Archcan segment and two symvolumes their predefi angles. Moreover theThe lego negwithcreate their predefi ned angles. Moreover the negative andwith positives canlego bened shaped by this process. shapes metrical Archvolumes segments one Arch. 10 Arches form the ative and positives canThe beshapes shaped bymade this process. Theprocess. shapes ative and positives can be shaped by this process. where solar panel are placed can be of the same skin of the house. where solar panel placed can be made of the same process. where solar panel are placed can be made of theare same process. 9 different triangular shapes the symmetrical of them must be 9designed. diff erent So, triangular shapes the symmetrical of them must be 9 different triangular shapes the symmetrical of them must be 9 volumes create an Arch segment and two symdesigned. So, 9segments volumes create an Arch segment and two symdesigned. So, 9 volumes create an ArchArch segment and two symmetrical create one Arch. 10 Arches form the metrical Arch segments create metrical Arch segments create one 10 Arches form theone Arch. 10 Arches form the skin of Arch. the house. skin of the house. skin of the house.

Rigid - Layer Waterproof Exterior DuraPulp Layer : 5m Rigid - Waterproof Interior DuraPulp : 5mm Rigid -DuraPulp Waterproof Exterior DuraPulp Layer : 5m Rigid - Waterproof Exterior Layer : 5mm

Insulation FoamPulp Layer : 1500mm

Insulation FoamPulp Layer : 1500mm Predefined Angle FoamPulpInsulation FoamPulp Layer : 1500mm Insulation Layer : 1500mm

Rigid -DuraPulp Waterproof Interior DuraPulp Layer : 5m Rigid - Waterproof Interior Layer : 5mm 150mm Insulation Predefined Angle FoamPulpPredefined Angle

Rigid - Waterproof Interior DuraPulp Layer : 5mm Rigid - Waterproof Interior DuraPulp Layer : 5m Predefined Angle Predefined Angle

5mm Rigid waterproof interior DuraPulp Predefined Angle Hinges for folding Hinges for for folding folding Hinges Hinges for folding

Hinges for folding

1 1

Interlocking for waterproofing Interlocking for waterproofing waterproofing for InterlockingInterlocking for waterproofing

Interlocking for waterproofing

Interlocking pvs for waterproofing ARCHITECTURE

ARCHITECTURE

Chalmers arkitektur – Masterprogram Design for Sustainable Development 2011/2012 ARK465 Sustainable Building | Solar Decathlon Europe 2014 Versailles France Design studio part A / Planning Strategies Mariya Hasamova, Philip Hettinger, Panagiotis Koukaroudis, Francesca Tassi Carboni Chalmers arkitektur – Masterprogram Design for Sustainable Development 2 Chalmers arkitektur – Masterprogram DesignDevelopment for Sustainable Development 20 Chalmers arkitektur – Masterprogram Design for Sustainable 2011/2012 ARK465 Sustainable Building | Solar Decathlon Europe 2014 Versailles France Design studio part A / Planning S ARK465 Sustainable Building | Solar Decathlon EuropeFrance 2014 Versailles Francepart Design studio part A / Planning S ARK465 Sustainable Building | Solar Decathlon Europe 2014 Versailles Design studio A / Planning Strategies Mariya Hasamova, Philip Hettinger, Panagiotis Koukaroudis, Francesca Tass Mariya Hettinger, Panagiotis Koukaroudis, Francesca Tass Mariya Hasamova, PhilipHasamova, Hettinger,Philip Panagiotis Koukaroudis, Francesca Tassi Carboni

44


The roof is a self sustaining shell, based on the folding concept. It’s entirely made out of paper, so that the structure can be light, cheap and easy to assemble. When the panels forming the roof are folded they generate a surface pleated in different triangles, creating both an interesting and dynamic shape and room to place the solar panels with the optimal orientation.

Sp

ace

SPA CE

be

ITIO

gla

NA

LG

FO

ds

LD AB

LE

zin

LA

gs

FURNITURE

GS

The project investigates minimum space in our daily activities: the five modular pieces of furniture could be opened according to each moment of the day, revealing everything it’s needed. When the modules are closed, light can flood the interiors enhancing the space and the roof’s origami shape. These packages are the ones that put the inhabitants in relationship with the space of the rooms. When they open them, they guess why they have such size: in their different parts, hidden uses appear and fragment the big unique space into smaller spaces of human scale.

ZIN

BE

DS

N

5.7

dro

N

Be

9.5

inin

g

E

m

/D

E

FINAL OPTION ARCHITECTURE ARKITEKTUR

The roof is a self bearing shell, entirely made of paper. When the panels are folded they generate a pleated surface, creating both a dynamic shape and room to place solar panels with optimal orientation. The project investigates the minimum space in daily activities: five modular pieces of furniture could be opened, revealing what is needed. The interior layout is generated by the different arrangement of the modules, and can vary following the necessities of the inhabitants.

g inin 7.9

ing

Be dro

Liv 10

The interior layout is generated by the arrangement of the modules, and for this reason can vary following the necessities of the B dro inhabitants. The living room is locatedesouthwards and occupies o the biggest space, and is englightened withmnatural sunlight all 1 day long thanks to the two glass façades on the sides. The bedrooms are smaller and placed on the opposite sides of the house, to provide more privacy and natural illumination during the morning and the evenings, the moment of the days where probably is more needed. The bathroom is an indipendent element in the plan: it is surrounded by walls and hosts the technical equipment needed in the house

om 1

2

FIRST OPTION

WC

PLAN

WC

W

7m

om

2

ble

for

DD

E

lda

RA

Liv ing /D

Fo

FO

S

OM

ROOF

Chalmers arkitektur – Maste Chalmers arkitektu ARK465 Sustainable Building | Solar Decathlon Europe 2014 V Projekt 2009/2010: Mariya Hasamova, PhilipU

The presence of a unique glazing facing the patio allows an increased feeling of centrality in the house. The modules are placed in the center of the apartment, disconnected by the walls. In the optimal disposition the living room would face South, being enlighted with natural sunlight all day long. The bedroom is smaller and placed on the West. The bathroom is an indipendent element in the plan made by prefabricated walls. 45


BUILDING PRODUCTION

Shaping the outer structure

ASSEMBLY PROCESS Folding - Erecting- Connecting The prefabricated lightweight triangular sandwich elements and window frames are hinged together forming arches which are erected on site using a crane. These arches are connected together forming the outer shell of the house. This construction system makes for a fast and easy assembly of the house with the need of only a minimal amount of builders.

2. Connecting the pieces with hinges. Taping for waterproofing 1. Organizing the pieces Step 1

Step 2

Fixating the pieces together with hinges. An industrial strength tape will waterproof the structure.

Organizing the prefabricated pieces

3. Erecting the arches

Step 4

Step 3

C

O

H OH

H

C

H

H

OH

C

O

C

H

Portability

CH2OH O

H OH

H

C

H

H

OH

C C H

C

O

H OH

H

C

H

H

OH

C H

40ft Shipping container interior dimensions Living room kit 1

Manufacturing Shell kit

Kitchen kit

Technical kit

FoamPulp

O

2.44

DuraPulp

O

cellulose

C C

Enjoy

Chalmers arkitektur – Masterprogram Design for Sustainable Development 2011/2012 ARK465 Sustainable Building | Solar Decathlon Europe 2014 Versailles France Design studio part A / Planning Strategies Mariya Hasamova, Philip Hettinger, Panagiotis Koukaroudis, Francesca Tassi Carboni

Building life

ARCHITECTURE cycle

CH2OH

CH2OH

O

Step 5

Assembling the arches together to form the shape of the house

Erecting the arches using a crane.

1

Materials

4. Assembling the arches together

Bathroom kit

Bedroom kit 1

Material’s life cycle

Minimise transportations *

Ease Assembling Installation

F

Less appliances increase portability No laundry kit

Decreasing primitive energy consumption by reducing manucatured appliances

Adaptation Durability

Limited life span

Easy modification by changing the corresponding triangles. No cuts, no demolitions.

Reduce maintenance cost

Biodegradable Recyclable material

Dis-assembly Deconstruction

46


CONTACTS francesca.tassicarboni@gmail.com (+353) 086 156 7627 www.linkedin.com/in/francescatassicarboni


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