Architecture Portfolio_Elisa Ballabio

P O R T F O L I O

ELISA BALLABIO

SELECTED WORKS

2016-2022

ELISA BALLABIO POST-GRADUATE ARCHITECT

CONTACT

PROFILE

+44 7909754407 elisaballabio19@gmail.com bit.ly/EB_ArchitecturePortfolio 4 Frank Searle Passage, London, E17 6BL

An aspiring young architect with a strong technical background and a particular affinity towards creative expression in residential projects, social housing, sustainable architecture, and interior design.

I am a strong team player - creative, responsible, highly motivated, and eager to work in challenging international environments.

Proficient in a wide range of industry-standard software, I am well-equipped to transform theory into practice.

I am looking forward to learning and developing my experience.

SOFTWARE SKILLS

EDUCATION

AutoCad Rhinoceros Grasshopper Enscape for Rhinoceros Revit Enscape for Revit 3DS Max V-Ray for 3DS Max Adobe Photoshop Adobe Illustrator Adobe InDesign Adobe Premiere Pro Unity + C# Figma Microsoft Office

MArch Architectural Design

UCL - Bartlett School of Architecture

2021-2022

London, United Kingdom

BSc Architectural Science

Politecnico di Milano

2016-2019

Milan, Italy

WORK EXPERIENCE Architectural Assistant Internship

SOFT SKILLS

Studio Bellotti

Jan-Jul 2019

Mariano Comense, Italy

Time management Team player Enthusiastic Detail-oriented Fast learner

Participated in all phases of the design process for an international competition for a new cycle-pedestrian walkway connecting two suburban neighbourhoods of Milan, with an adjacent intermodal hub and public spaces.

Prepared a variety of technical drawings, such as floor plans, sections and elevations.

Produced graphic solutions and renderings of the final proposal.

INTERESTS AWARDS, EXTRACURRICULAR AND VOLUNTARY ACTIVITIES

Traveling Sports Music Animals Charity

Autodesk Certified Professional 3DS Max

LANGUAGES

Giovanni Zampese Academic Honors Scholarship Cassa Rurale ed Artigiana di Cantù BCC, Italy

English

Fluent

Italian

Native

Red Cross Volunteering Staff at community events for the Red Cross organization Cantù, Italy

2

2020-2021

2020

2013-2019

TA B L E O F C O N T E N T S 04

24

conCreate

Como Lab. of Architecture

reclaiming concrete to rethink community housing

designing through history and lost identities

UCL - Bartlett School of Architecture

Politecnico di Milano

10

26

Hyperblock

Sin X

stackable collaborative architecture

interlocking timber

UCL - Bartlett School of Architecture

Politecnico di Milano

12

27

D.A.D.A.

Sensory experience

low-carbon primary school

sensual architecture

Politecnico di Milano

Politecnico di Milano

18

28

Attra\verso San Cristoforo

Miscellaneous

new cycle-pedestrian connection on the Naviglio

assorted 3D visualisations and maquettes

Internship work

Personal projects

20 Up-Down Housing urban-regeneration of the ‘Satellite’ neighbourhood Politecnico di Milano

3

conCreate RECLAIMING CONCRETE TO RETHINK COMMUNITY HOUSING Tutors

Gilles Retsin Manuel Jimenez Garcia Kevin Saey David Doria

Existing building

UCL - Bartlett School of Architecture conCreate’s goal was rethinking community housing towards affordable, sustainable, and inclusive living.

Using recycled concrete, an automated design process, and a user platform, conCreate encourages a relationship between community, architecture, and environment.

The main outcomes of the project were a set of computational tools, a mockup of a mobile app and renders of the final proposal.

Developed with Unity and C#, the computational tools consisted of a deconstructor - used for disassembling 3D models of buildings into their constiuent elements - and an aggregator - used for generating new building designs from the elements extracted by the deconstructor tool.

Deconstructor

+

+ Aggregator

Recycled concrete

Automated process

4

User platform (mobile app)

Our construction process is hence a reverse process. Beginning with an existing building, we deconstruct it and re-use its elements in order to build a new one.

Starting from the reclaiming process of our material, we catalogued a series of concrete buildings, differentiated according to their structure.

Deconstructor computational tool - voxelising and disassembling 3D models of concrete buildings

The deconstruction procedure consists of creating a voxelgrid around the building and then differentiating the elements of the building according to their function. This process is applicable to buildings of any size and shape and results in a catalogue of elements, each with its own likelihood to be recycled and reused.

After being cut and transported to the factory, these elements are scanned, recorded and categorised - resulting in a library of crowd-sourced concrete elements which can be further customised.

The key benefit to the overall process is that it is automated and can be applied to any site. With every iteration of the aggregator, the generated building output will differ, making each design unique.

In order to test and demonstrate this approach, we decided to work on Newham. This London borough suffers from overcrowding, high house prices and rents, and the lowest average wage of any London borough - making it one of the worst affected by the housing crisis.

Alongside this, we identified 9 hectares of private and public brownfield land, further reinforcing our choice.

Library of raw materials

5

After selecting the site, the first step in order to generate the bounding box of our final building is to model the volume of the entire site with the maximum height we want to take into consideration. Through the aid of Grasshopper, we analysed sun movement relative to the site’s location and obtained the updated geometry in response to this analysis.

Lastly, the geometry is voxelised and voxels are distinguished into private, shared and circulation spaces.

These spaces are arranged computationally Initial volume according to our site parameters through the use of the Wave Function Collapse algorithm, which makes use of tiles with declared adjacencies in order to procedurally generate the entire floorplan.

WFC is a constraint-based algorithm which is able to create infinite combinations of tiles.

Some possible couplings are depicted on the right, highlighting the connection type that they share. Each voxel represents a 4x4m space, into which the WFC algorithm can place one of our tile options - differentiated according to their openness ratio and associated Sun hours and direct sun hours analysis with one or more colours defining potential connections.

After all the tiles have been placed by the WFC algorithm, the code for the aggregator recognises the walls and substitutes in the extracted components from the recycled buildings into the new shape - defined by the tiles’ arrengement.

Once the full building is generated, the aggregator provides the user with the option of placing balconies.

Lastly, the roof is placed and the building is now fully computationally generated.

Geometry modulated by the sun analysis results

The final piece of the project is the conCreate mobile app, which follows the life and maintainance of the building. Residents are able to use it in order to share and exchange skills with neighbours, rent communal spaces, and live more sustainably - checking on their bills and upgrading their appliances.

The app is also available to the broader neighbourhood, allowing them to rent and access communal spaces for community events and meetings.

Voxelisation

Wave Function Collapse algorithm (WFC)

Spatial arrangement of the tiles Shared Private Circulation

Exposure analysis on the derived bounding box

6

Shared, private, connection spaces

tile 03

0% - closed

tile 10

100% - open

tile 12

100% - open

tile 04

50% - open

tile 06

50% - open

tile 03

green pink yellow blue

tile 10

green pink orange blue

tile 12

green pink orange yellow blue

tile 04

yellow blue

tile 06

green pink orange yellow blue

Examples of tiles with respective openness percentages and connections

tile 04

tile 06

Examples of tile combinations generated by the Wave Function Collapse algorithm

7

tile 03

tile 10

tile 12

tile 04

tile 06

Tiles filled with recycled parts from the disassembled building

Ground floor

First floor

Second floor

Third floor Aggregator generating the new building floor by floor

Roof

Substitution

8

conCreate platform and mockup application

9

Hyperblock S TA C K A B L E C O L L A B O R AT I V E ARCHITECTURE Tutors

Alexander Grasser Alexandra Parger

UCL - Bartlett School of Architecture This project aimed to collectively contribute to a shared architecural design, through a user-generated and scalable collaborative configuration.

By aggregating individual design decisions, the result is a highly differentiated open architecture with multiple design intentions and objectives.

Using computational tools and combinatorial design strategies, we designed compatible blocks and individualised aggregations made from those blocks.

Working together with these blocks in playful design sessions in a realtime collaborative environment, we created speculative architectural proposals in Unity.

During this interactive process, variation emerged through participation, and orientation through individual design intentions.

Furthermore, part of the process was the detailing and informing of these blocks to create human-centric interiors, which grow into a highly differentiated configuration. Various functions, hard and soft materials, and personal visions of spatial appropriation create a stackable collaborative whole: the Hyperblock.

Aggregated tiles - generated with Grasshopper

The theme of our proposal was ‘uplifting order’, focusing on the balance between symmetry and dynamicity.

Together with my teammate, we worked in parallel whilst developing our own tiles in order to ensure their complimentarity and cohesion both in exterior and interior spaces.

Focusing on enclosed spaces, the tiles I proposed are reminiscent of our moodboard, where striking colours are a key feature.

Tiles

10

Moodboard

Collaborative process - developed with Unity + C#

11

D.A.D.A. LOW-CARBON PRIMARY SCHOOL Professors

Lorenzo Consalez Sergio Sabbadini

Politecnico di Milano This project involved the design of a complex of three buildings: a two-storey primary school with an adjacent gym, and a civic centre including a library, an auditorium and a cafe.

Sustainability was a major focus of the project, leading to the selection of low-carbon materials, such as timber, wood fibre insulation and bamboo cane cladding. The choice of CLT guaranteed stability and flexibility, required in a space such as a primary school.

An exception to the sustainable approach is made for the roof of the civic centre - built with reinforced concrete. Its sail configuration allows the construction of a compluvium system for the collection of rainwater,

dynamicity

teaching approach fluidity

FLUIDITY

movement

+

flexibility stimuli

COLOUR SCHEME

sharing individualism

spatial fluidity

ARCHITECTURE COMPO

+

School/Gym

Circle Concept design

Opening towards the outside

Rectangle addition

12

Smaller circles addition

Final shape

Civic

which can later be reused.

The acronym D.A.D.A refers to a modern teaching method we adopted for the primary school. This approach makes a distinction between different teaching spaces: traditional classrooms (‘globe’ spaces), flexible spaces such as laboratories with movable walls (‘matisse’ spaces), and more private spaces (‘whale’ spaces). The key features of the private spaces are structures built with 3D printed rubber, where children could find their own time and space for individual activities.

The fluidity in the teaching approach, which promotes stimulating and shared spaces, is reflected in the spatial fluidity of the proposed design, where flexibility, dynamics and movement are key motifs.

The footprint of the entire proposal is based on simple geometrical shapes where the addition of bright colours aids in creating a welcoming and playful atmosphere, where children could feel supported and motivated in their achievements.

Using Wassily Kandinsky’s Composition VIII (1923) as a reference, the choice of clean geometry is the answer to three major needs of the neighbourhood which hosts the project: they guarantee immediate recognition, working as a landmark for the area, whilst bolstering its existing character.

The choice of bright colours stems from an urban analysis of the area. Indeed, they accentuate the many different tones and shades that already exist in the old

‘whale’ space ‘matisse’ space

‘globe’ space

OSITION

+

centre

Circle

Circle dilatation

Outdoor space

Opening towards the inside

13

Ground floorplan

Section aa

Section bb

First groundfloor

Front elevation

14

part of the neighbourhood.

The main structure of the primary school is a frame of beams, pillars and walls, with alternating one-way and two-way slabs.

Internally, the entire structure is built from 5-layer cross-laminated timber (14cm), laminated beams and 3D printed rubber structures used for the ‘whale’ spaces of the school. All the insulation systems are derived from low-carbon materials, such as wood fiber and gypsum acoustic insulation.

The flooring is made with hardwood.

For the exterior, bamboo cane is used alongside inlaid metal brise-soleil, with a colorful ceramic coating.

Lastly, the school uses fixed aluminium windows with double glazed glass.

An inaccessible flat roof covers the majority of the main building, with an exception made for the cylindrical volumes housing the laboratories, which make use of green roof technology.

Additionally, a set of energy efficiency measures were employed throughout the project, including a ventilated facade system, a rainwater recycling system, the aforementioned green roof technology, and an underfloor heating and cooling system.

The ventilated facade system used by the building enables the dispersion of heat in the warmer months of the year and retains existing heat in the colder months, by virtue of the air gap between the insulation and the facade cladding.

The green roof acts as a further temperature buffer, dispersion system for rainwater and improves the local air quality.

The underfloor heating and cooling system came as a result of sun, wind and temperature analyses for the exact location of the school.

This guarantees comfort and uniform temperatures throughout the year, more usable space and energy savings.

Construction detail: glass-slab-glass joint, showing brise-soleil system

15

The building dedicated to the gym consists of a load-bearing structure made up of beams, pillars and a one-way slab, using CLT. Its exterior is fully cladded with metallic profiles coated in ceramic and no green roof was planned for this volume.

SUMMER

overheating from solar rays

sloping roof for rainwater disposal

WINTER

sloping roof for rainwater disposal

Lastly, the civic centre consists of a load-bearing structure, with a frame of beams, pillars and partitions. Differing from the other buildings, this makes use of two different ventilated facade materials: timber for the frame structure and helps heat flow dispersion reinforced concrete for the roof. +35 ° This is reminiscent of a sail, which - thanks to heat flow E the slope of its ends - is designed as a insulation rainwater collection and storage system. stops some heat flow Oscillating between a minimum height of 3.5m and up to a maximum height of 8m, the central circular hole functions as a compluvium system.

The rain water is collected in a tank located under the civic center. A pump and plumbing system then routes this water through the building to be used in restrooms and for Ventilated facade technology irrigation of outdoor areas.

indoor cooling insulation reduces heat loss

heat penetration

+25 °

+10 °

I

E

+25 ° heat escaping

heat flow

I

roof ventilation south horizontal brise-soleil casement window - inward opening underfloor heating

north/east/ west vertical brise-soleil

brise-soleil system hinged French door

Underfloor heating and cooling system

Outdoor activities

16

Civic center usage throughout the day

roof

additional drinking water

pump

rainwater collection through compluvium system

Civic center compluvium system

tank

tank

Civic center section

17

wc

irrigation

At t ra\ ve rs o San Cristoforo NEW CYC L E - P E D EST RI A N CONNECTION ON T H E N AV I G L I O Lead Architect

Amenities

Massimo Bellotti

Internship work Coming eighth out of one hundred participants, the objective of this competition was to design an intermodal hub, a walkway and a cycle-pedestrian link between the Milanese districts of Lorenteggio and Ronchetto sul Naviglio.

This was my first foray into the real world applications of the skills that I had learnt during my undergraduate degree.

Through the project, I gained valuable insight into workplace processes, governing bodies and regulations.

I participated in all phases of the design process for the competition, assisting the team in the preparation of technical drawings, such as floor plans, sections and elevations, and produced graphic solutions and renderings of the final proposal.

The goal was to create a connection that maximizes the benefits for both districts linked to the soon-opening San Cristoforo M4 metro station, and at the same time be innovative, respectful of the environment and have a strong architectural identity.

Rather than designing an orthogonal, linear system which would sit in too strong of a contrast to the neighbouring area, we instead opted for a curvilinear structure which echoes the softer and more natural shapes of the surrounding landscape.

In particular, the walkway over the train tracks is a reinterpretation of Leonardo da Vinci’s self-supporting bridge, made up of beams supporting one another.

On the southside of the walkway, we find the intermodal hub with electric bus depot and a car park, all within a public park, granting the character of a metropolitan square to this part of the site.

We incorporated a sustainable approach into our proposal, blurring the lines between architecture and landscape.

Our material choices were deliberately very simple and locally sourced, reducing tranport and energy costs.

Additionally, the use of green roof technology for the bus depot serves as both a climate regulator and a means of rainwater collection, whilst blending the structure more softly into its environment.

Greenery

Transport

Site analysis and proposed floorplan

Urban skyline

3D views

18

Axonometric view

Hub 3D view

Multipurpose building 3D view

Intermodal hub detail

Underground station access view

Hypothesized construction phases of the entire project

Renderings of hypothetical usage for the multipurpose building

19

Up-Down Housing URBAN R E G E N E R AT I O N O F T H E ‘ S AT E L L I T E ’ NEIGHBOURHOOD Professor

Site analysis

Immacolata Concezione Forino Francesca Rapisarda

Site overview

Greenery

Transport

Education in the ‘Satellite’

Greenery in the ‘Satellite’

Transport in the ‘Satellite’

Politecnico di Milano This was an urban regeneration project with the goal of improving the living conditions of residents through a total restructuring of the neighbourhood on a multitude of scales. Within Milan, the ‘Satellite’ neighbourhood is considered to be at the extremes of population density and organized crime.

After a detailed urban analysis of the area, we summised that it was strongly clustered and closed off from the outside. Hence, the first key component of the regeneration strategy involved the design of two main connections featuring restaurants and retail areas in order to open up the neighbourhood.

Together with the urban regeneration, we envisioned a social one through the design of an underground square at the physical core of the site, which could be used for multiple functions throughout the entire day.

In order to best cater to the needs of the residents, we strategically placed studios and one-bedroom flats in the largest buildings, where communal amenities - such as a gym, kitchens, and a laundrette - are available to singles, couples and young families.

Two- and three-bedroom flats are placed in the perpendicular buildings, giving larger families safe and easy access to the surrouding green areas.

Lastly, the four central buildings are designed for older residents, guaranteeing them both visual and acoustic privacy through an accurate study of the greenery.

Every detail of the project was designed according to Italian building regulations and affordability was a focus throughout the whole process.

Both exterior and interior fittings, furnishings and greenery were selected in line with local availability and cost contraints.

An underground car park was also designed in a way that could be retrofitted underneath the buildings that were already present on the site.

B A

B

C B

C

C C

A

B

Existing site

Strategy 1: connections

Strategy 2: underground square

Usage differentiation

Amenities

948

Building A

162 x2

Building B

264

88

176 x2

Building C

24

Occupancy data

x4

Morning

Underground square usage throughout the day

Underground square sketch

20

Afternoon

Evening

Ground floorplan

Section AA

21

Second floorplan

First floorplan

Section BB

22

Detail section

Maisonette flats Flats

Co-housing flats

Circulation

Traditional flats Circulation

Access

Loggia Flats

Circulation Laundry chute

Access Basement

Access Hospitality spaces

Building A spatial analysis

Building B spatial analysis

23

Building C spatial analysis

Como Lab. of Architecture DESIGNING THROUGH HISTORY AND LOST IDENTITIES Professors

Valerio Tolve Ferro Luisa

Politecnico di Milano This project’s site is situated within the historic centre of the city of Como, an area which has partially lost its identity over time.

The city of Como is characterized by two levels of development, dating back to two distinct historical eras: the Roman era on the lower level and the medieval era above. This project spanned both levels: it occupies the Roman lower level through a courtyard, and the medieval upper level through a single building, aimed at closing the ‘cortina muraria’ (fortress wall), typical of that period.

The courtyard takes on the appearance of a small zen forest inserted within a dense residential block. It provides a visual break from its homogenous surroundings, taking on a striking pink colour in the spring owing to the choice of the Judas tree species (Cercis Siliquastrum).

In order to guarantee continuity with the neighbourhood, the building is spread over three levels, reaching a height equal to that of the surrounding buildings.

The building is made up of two overlapping volumes, distinguishable thanks to differing material choices: glass for the lower level and metal for the upper level. To further accentuate this addition, the building has a mushroom-shaped cross-section, with the lower part being light and glazed, sitting in contrast to the upper portion protruding, full and metallic.

Plan view

Concept design

24

Front elevation

Ground floorplan

Section BB

Perspective view

Zinc-titanium alloy

First floorplan

Onyx pink marble

Walnut wood

Mies van Der Rohe’s work on Villa Farnsworth heavily inspired the interior arrangement of the building.

Essential services such as the ticket office, restrooms, cafe, and bookshop, are all positioned at the core of the building, while the museum space is situated on the upper floors, giving the users plenty of room to walk around the exhibition.

Regarding the placement of openings, they are strategically aligned according to the internal functions and spaces.

More specifically, the ground floor is entirely glass-walled, providing a transparent and welcoming entrance area. In contrast, the upper floors feature openings primarily near the vertical circulation systems, facilitating a guided tour through the building, with a central lift shaft on one side and a pink marble spiral staircase on the other - granting a sense of monumentality to the space.

The main materials used were a zinc-titanium alloy for the cladding of the upper section of the building, onyx pink marble for the internal staircase, walnut wood for the flooring and exhibition furnishings, and lastly, sandstone for the tiling of the outdoor ramps.

To complement the technical drawings, a maquette of the proposed design and its immediate surroundings was produced.

Second floorplan

Sandstone

25

Sin X INTERLOCKING TIMBER Professors

Lorenzo Consalez Sergio Sabbadini

Politecnico di Milano The aim of the project was to explore the potential of the interlocking timber technique.

Considered the key to many complex structures, it guarantees stability and lightweightness at the same time.

The structure I proposed is based on the self-supporting prerequisite taken from Leonardo Da Vinci’s well-known bridge, built on the repetition of a single element.

In my project, the repetition and rotation of element A produces two structures (B,C) that by adding element D, create an infinitely repeatable wave pattern, similar to the mathematical graph of the periodic sine function.

I chose beech wood because it is resistant, robust and easy to work with.

The structure can be reproduced and envisioned in different scales.

For example, it could be used for a chaise longue or as the roof of a pavilion.

B

A

+ C D

Proposed structure

26

Sensory Experience SENSUAL ARCHITECTURE Professors

Lorenzo Consalez Sergio Sabbadini

Politecnico di Milano The aim of the project was to compose a spatial unit which evoked feelings related to a particular word.

For this exercise, I chose the adjective sensual, as I wanted to explore a set of feelings which are atypical to architecture.

I used the work of Richard Serra as the reference for my proposal, an artist known for his huge steel sheets bent into circular sculptures, which arouse the same feeling in me.

The outcome of the work is a 30x30cm maquette on a free scale, representative of an abstract space.

A variety of materials were used, including cork for the support, cardboard for the main structure, and Lycra for the covering.

The movement of steel marbles produces soft and sinuous curves, emphasizing elegance and daintiness, and forming my definition of sensual architecture.

27

Miscellaneous ASSORTED 3 D V I S U A L I S AT I O N S AND MAQUETTES Personal projects Here is a collection of architectural visualizations collected from some personal projects (A, B, C) and my Master’s thesis (D, E, F). A, B and C were modelled in Revit and rendered with the Enscape plugin, and show the final outcome of personal projects and training courses. D, E and F were modelled in 3DS Max and rendered with V-Ray. They show three permutations of a space, where the atmosphere is modulated by varying furniture choices.

A

B

C

D

E 28

F

Up-Down Housing maquette - wood laser cut

Como Lab. of Architecture maquette - cardboard

conCreate - exploration of concrete mixtures

29

ELISA BALLABIO

SELECTED WORKS

2016-2022