Pietro Perlino
FUTURE FARM a sustainable agri-food production building in Moncalieri.
Rel. Cesare Griffa, Enrico Fabrizio. Politecnico di Torino, Corso di laurea magistrale in Architettura Per Il Progetto Sostenibile, 2017
Abstract: |
I've always been thinking that Graduation Thesis would have been a great opportunity to complete the course of my studies dealing with what I learnt during these years and what I would like to aspire in the next future. I tried to conciliate what I am with what I would like to be. My aim is to create a symbiotic relation between architecture, sustainable local food (production), social and educational aspects. The title "Future Farm" refers to the idea of something new and probably still conceptual, applied to one of the first kinds of building ever designed in history. In fact, the first part of the Thesis is related to how farms - and farming have evolved from the first human settlements during Neolithic Age till the current days. If we look at the ancient times, we can notice how many tranformations have taken place and how the world is changed nowadays. Farms have grown wider and wider and the intensive production is supplanting local realities creating demages and denaturing the environment. That's the motivation why we should think about a new way to interpret agriculture, maybe having a look at the past. The sustainable way of approaching architecture and farming is the pillar of this Thesis, so, in the second chapter, I describe sustainable methods of breeding and food production. Moreover global population is growing and agriculture already occupies a large amount of soil, so, we should also focus on some novel food and new systems of farming. Edible micro-algal biomass, mainly derived from Spirulina, is a good chance to look at the future, producing a very rich in proteins food with a lower footprint than cultivations as soybean or catlle livestocks. At the same time, a more performing production solution is a great step to a sustainable agriculture; that's why I decided to describe the aquaponics chain, where fish and vegetable help each other, growing in symbiosis. The second part of the Thesis describes the area where the Future Farm is designed and what are the poles that compose it. The initial paragraphs show the current situation about the property in Moncalieri where the project is thought to be designed, analysing the existing rural building and the land. The Future Farm complex includes this house re-programmed thanks to a non-invasive refurbishment. This part of the project is thought to be a renewal of an ancient building giving it new lifeblood. Actually this house works properly, even if some areas are not in use, but this transformation idea is born thinking about other similar realities, in which buildings are almost abandoned. These ancient rural houses are a cultural heritage of our society and it would be a pity to let them decline, so architects should work on how to make them attractive again without destroying the countryside atmosphere. The renewal of the house consists of making some interior changings in order to have the possibility to re-use it as a productive building, so, from the three current apartments, there will be an agri-restaurant, a bed & breakfast, a local food shop and only one apartment. In the last two chapters of the Thesis, I write about the design project of the main character of the new Farm. It ensues from a study on local farming and food culture, traditional and innovative production systems, architecture and technology. The Future Farm philosphy is born thinking how to bring together four key points: traditional farming, innovative farming, education and research. These concepts represent the incipit, the starting point to develop such a design project. Traditional farming means livestocks, crops and orchards, so, elements very connected to the land and to the ground itself. This leads to the fact that these activities should be connected to the land and the border between the inside and the outside is very thin. Innovative farming has not a very precise meaning, but it has been interpreted as a kind of farming more related with technology and developed far from fields and lands. Aquaponics cultivation fish and vegetables - and micro-algal biomass are the answer to the innovation farming meaning. Research and education could go hand in hand, imagining new tests, new discoveries as a new way to teach people something about sustainable farming. The education model to apply is related with experience. Visitors can enjoy an innovative building experiencing the various activities, elements, animals, technologies that compose the Future Farm. The last part of the Thesis is focused on the study of the nergy balance of the new building. The purpose is to improve the way of cooling and heating the building thanks to a good envelope stratigraphy strategy and architectural performing choices. I used an Excel spreadsheet and the software MasterClima to calculate all the essential parameters to find the real energy requirement of the Future Farm. |
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Relators: | Cesare Griffa, Enrico Fabrizio |
Publication type: | Printed |
Subjects: | A Architettura > AI Buildings and equipment for agriculture A Architettura > AO Design |
Corso di laurea: | Corso di laurea magistrale in Architettura Per Il Progetto Sostenibile |
Classe di laurea: | New organization > Master science > LM-04 - ARCHITECTURE AND ARCHITECTURAL ENGINEERING |
Aziende collaboratrici: | UNSPECIFIED |
URI: | http://webthesis.biblio.polito.it/id/eprint/6069 |
Chapters: | PART I AN HISTORY OF FARMS 1 AGRICULTURAL AND LIVESTOCK BUILDINGS THROUGH THE AGES 1.1 The first farming settlements during Neolithic Age 1.2 Ancient Mediterranean populations farming and innovations 1.3 Farming evolution before the Industrial Age : granges and villas 1.4 From the Industrial Revolution to the current era : the greatest turning point in farming 1.5 2000's: in a ever changing world why we need sustainable farming 2 BIO-FARMING TRADITIONAL COMPONENTS 2.1 General overview 2.2 Goats stable 2.3 Cheese factories 2.4 Laying hens barns 2.5 Apiculture 3 NOVEL FOOD PRODUCTIONS 3.1 Micro-algae cultivation as a food producer and a potential façade typology 3.2 Spirulina production and its benefits as a food resource 3.3 Production facility design as an architectural element 3.4 Aquaponics : fish and vegetables balanced chain 3.5 How to design an high performance aquaponics system PART II FUTURE FARM DESIGN PROPOSAL 4 CURRENT SITUATION 4.1 General overview 4.2 House details and current program analysis 5 DESIGN PROJECT: FUTURE FARM 5.1 Future Farm project's aim / concept 5.2 The core: the existing building's transformation 5*3 _ The Farm: design proposal and program analysis 5.3 Food production and transformation 6 BUILDING ENERGY PERFORMANCE 6.1 How to calculate the energy performance 6.2 Ground floor: cooling and heating |
Bibliography: | BIBLIOGRAPHY -AA.W., Storia dell'agricoltura europea, Banca Nazionale dell'Agricoltura, Roma, 1980 -Alvise Perosa, Guido Bordignon, Giampietro Ravagnan, Sergey Zinoviev, Algae as a potenctial source of food and energy in developing countries. Sustainability, technoloc and selected case studies, Edizioni 'ca Foscari, 2015 -Amitav Ghosh, La grande cecità, Neri Pozza, 2017 -Arie Gottfried, Quaderni del Manuale di progettazione edilizia. L'edilizia per l'agricoltura e la zootecnica, ULRICO HOEPLI MILANO, 2010 -Christian Roedel, Jens-Phillip Petersen, Smart Material House BIQ, IBA Hamburg GmbH, July 2013 -Christian Roedel, Jens-Phillip Petersen, Smart Material House Smart is green, IBA Hamburg GmbH, August 2013 -Christian Roedel, Jens-Phillip Petersen, Smart Material House Soft House, IBA Hamburg GmbH, August 2013 -Christien Enzing, Matthias Ploeg, Maria Barbosa,Lolke Sijtsma, Microalgae-based products for the food and feed sector: an outlook for Europe, JRC Scientific and Policy Reports, 2014 -Christopher Somerville, Moti Cohen, Edoardo Pantanella, Austin Stankus, Alessandro Lovatelli, Small-scale aquaponic food production. Integrated fish and plant farming, FAO, Rome, 2014 Elizabeth Fentress, Stefania Quilici Gigli, La domesticazione delle piante e l'agricoltura: mondo greco e mondo romano, Treccani, 2002. -FAO, How to feed the world in 2050, 2009 -Federico Rossi, Andrea Nicolini, Mirko Filipponi, Analisi dei fabbisogni energetici di un'azienda agroalimentare, 2012 -Franco Malossini, Gli allevamenti animali nel fondo rustico dell'antica Roma, 2011 -G.M. Craig, The agriculture of Egypt, Oxford University Press, 1993 -HughTurral, Water pollution from agriculture: a review, 2012 -I. Tutino Vercelloni, Costruire per l'agricoltura, Skira, 1996 -J. Hartung, A history of livestock production, in Livestock Housing. Modem management to ensure optimal health and welfare of farm animals, Andres Aland and Thomas Banhazi, 2013 Julián Gallego, Farming in the ancient Greek world: how should the small producers be defined?, January 2007 -Nicholas Stern, The economics of climate change. The Stern review, 2006 -Massimo Sabbatini, Agricoltura nonprofit. Percorsi strategici dell'impresa sociale e potenzialità multifunzionali per l'azienda agricola, Economia-Ricerche, 2008 -Mario R. Tredici, Colture di alghe: possono entrare a far parte della realtà agricola Toscana?, March 2016 -Mario R. Tredici, Colture massive di microalghe: calamità o risorsa?, November 2006 -Michele Corti, Luigi Andrea Brambilla, Convegno L'allevamento ovicaprino nelle Alpi: Razze, tradizioni e prodotti in sintonia con l'ambiente Cavalese, 21 settembre 2002 -Pompeo Fabbri, Natura e cultura del paesaggio agrario, Cittàstudi, 1997 -Raina M. Mayer, Ian L. Pepper, Charles P. Gerba, Environmental microbiology second edition, Academic Press, 2011 -Roberto Chiumenti, Costruzioni rurali, Edagricole, 1988 -Ronald Ross Watson Victor Preedy, Genetically Modified Organisms in Food, Academic Press, 2015 -Stefano Mancuso, Carlo Petrini, Biodiversi, Giunti. Slow Food editore, 2015 -Tara Garnett, FCRN briefing paper. Livestock, feed and food security, January 2010 -The Pew Charitable Trusts, The Big Chicken, Pollution and industrial poultry production in America, 2011 -U. de Corato, F. A. Cancellara, L'efficienza energetica nel comparto zootecnico. Analisi dei consumi energetici e miglioramento delle performance di efficienza energetica in alcune tipologie di allevamento, 2014 -Vincenzo Vizioli, Norme ed adempimenti di legge per la produzione zootenica secondo il metodo biologico. Progetto INFO(PAC)K, Cesar, 2013 -Worldwatch Institute, State of the world, Rome, 2006 -Yona Friedman, Alternative energetiche. Breviario dell'autosufficienza locale, Bollate Boringhieri,20i2 WEBSITES https ://cesaregriffa.com/waterlilly/bioskin-microalgae-facades/ http://www.agraria.org http://www.archdaily.com/ 191229/algae-green-loop-influx-studio http://www.hok.com/about/sustainability/process-zero-concept-building/ http://www.irciponic.com/acquaponica/le-piante/ http://www.nutritionecology.org/it/paneli/intro.html https://akuaduulza.wordpress.com https://www.questia.com/read/io94287i7/the-origins-of-agriculture-in-europe https://www.questia.c0m/read/51004456/agriculture-in-the-middle-ages-techn0l0gy- practice |
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