Abstract
Contributions towards the end of the war were made by the prototypes of several innovative technologies, for example information technology with the first digital computers. The United States placed themselves at the forefront of technology transfer with structural development policies and strategies. Within 20 years they laid the foundations for the development of digital design and manufacturing in a broad range of industrial sectors, which would later be applied in the construction sector too. The peculiar needs of the aerospace industry for precision and flexible production made it a particularly receptive sector for innovative processes. In 1949, the US Air Force financed a proof-of-feasibility study of a three-axis milling machine operated by a computer. This technology took the name Numerical Control (NC). With NC, for the first time it became possible to describe individual elements of the design and manufacturing process in the formal language of science and technology, that is mathematics. The programming languages of NC have the declared aim of being intelligible to technicians and to computers which, by digitalising the design in bits and bytes, could therefore autonomously interpret it and translate it from the intangible domain into the physical object: the artefact produced “automatically” by the new machine tools. The designers themselves became masters of the production process, describing design in the new languages of information technology aimed at direct manufacturing without the intermediary of descriptive geometry any longer. This new class of technicians no longer just supervises, but also manages the procedures for the manufacturing process through programming languages. Numerically controlled machines automatically interpret and execute the instructions of NC language, to make the parts that, assembled together, result in a complete product. NC technology, initially adopted by large industries which were structured around the division and separation of skills and jobs, was adopted by small and medium-sized enterprises as soon as investment costs began to drop. SMEs directed the technology to the demands of their own “horizontal” organisations, with a high level of skills shared between a numerically small workforce.
Access this chapter
Tax calculation will be finalised at checkout
Purchases are for personal use only
Notes
- 1.
See Sect. 2.1 “Uniformity and Standardisation” in this volume.
- 2.
Equivalent to an investment of more than half a billion dollars today.
- 3.
Perhaps the decisive element of the new organization for the study of construction is represented by the creation of the École Polytechnique: engineering so clearly superseded architecture, and at the same time, it established a closer relationship between the physical–mathematical sciences and technical applications, democratising the theoretical debate, and offered increasing scientific dignity to design, especially in relation to the great public works (Benvenuto 1981, p. 417).
- 4.
The architect [Carlo Scarpa] established relationships for these works with trustworthy craftsmen: the metalworker, the woodworker, the plasterer, […] He used to discuss it with the craftsmen and would go back again and again to check and comment on the state of the work and the results (Crippa 1984).
- 5.
Such as in the considered AEC, biotechnology, healthcare, movie, pharmaceutical, and software sectors.
- 6.
References
Afuah A (2009) Strategic innovation: new game strategies for competitive advantage. Routledge, New York
Al-Laham A, Amburgey TL (2011) Staying local or reaching globally? Analyzing structural characteristics of project-based networks in German biotech. In: Cattani G et al (eds) Project-based organizing and strategic management, vol 28, Advances in strategic management. Emerald, Bingley
Almeida P, Kogiit B (1999) Localization of knowledge and the mobility of engineers in regional networks. Manag Sci 45(7):905–917
Arditi D, Tangkar M (1997) Innovation in construction equipment and its flow into the construction industry. J Constr Eng Manag 123(12):371–378
Arthur B (1990) Positive feedbacks in the economy. Sci Am 262:92–99
Bagnasco A (1977) Tre Italie: la problematica territoriale dello sviluppo italiano. Il Mulino, Bologna
Barley S, Freeman J, Hybels R (1992) Strategic alliances in commercial biotechnology. In: Eccles R, Norhia N (eds) Networks and organizations. Harvard Business School Press, Boston
Belofsky H (1991) Engineering drawing: a universal language in two dialects. Technol Cult 32(1):23–46
Benvenuto E (1981) La scienza delle costruzioni e il suo sviluppo storico. Sansoni, Firenze
Bralla JG (2007) Handbook of manufacturing processes: how products, components and materials are made. Industrial Press, New York
Brown JE, Hendry C (2006) Organizational networking in UK biotechnology clusters. Br J Manag 17(1):55–73
Callicott N (2001) Computer aided manufacture in architecture: changing the craft of design. Architectural Press, Oxford
Carabelli A, Hirsch G, Rabellotti R (2008) Italian SMEs and industrial districts on the move. Where are they going? In: Haar J, Meyer-Stamer J (eds) Small firms, global markets: competitive challenges in the new economy. Palgrave Macmillan, Houndmills, Basingstoke
Caroli MG (ed) (2007) Il processo di internazionalizzazione delle piccole imprese. FrancoAngeli, Milano
Cooke P (2001) Regional innovation systems, clusters, and the knowledge economy. ICC 10(4):945–974
Crippa MA (1984) Carlo Scarpa: Il pensiero, il disegno, i progetti. Jaca Book, Milano
Den Hertog P, Brouwer E (2001) Innovation in the Dutch construction cluster. In: OECD (ed) Innovative clusters: drivers of national innovation systems. OECD Publishing, Paris
Dupire A et al (1985) L’architettura e la complessità del costruire. Clup, Milano. French edition: Dupire A et al (1981) Deux Essais sur la Construction. Mardaga, Bruxelles
Eccles R (1981) The quasifirm in the construction industry. J Econ Behav Organ 2:335–357
Egan J (1998) Rethinking construction: report of the construction task force on the scope for improving quality and efficiency of UK construction. The Stationery Office, London
Egorova E, Torchiano M, Morisio M (2009) Evaluating the perceived effect of software engineering practices in the Italian industry. In: Qing W et al (eds) Trustworthy software development processes, lecture notes in computer science. Springer, Berlin/Heidelberg
Esteve M, Ysa T, Longo F (2012) The creation of innovation through public-private collaboration. Revista Española de Cardiología (English Edition) 65(9):835–842
Flamm K (1988) Creating the computer: government, industry and high technology. Brookings Institution, Washington, DC
Fontana D (2011) Il futuro che ci aspetta. Flessibilità, innovazione, partnership. In: Osservatorio Nazionale Distretti Italiani, Secondo rapporto dell’Osservatorio Nazionale Distretti Italiani. Federazione dei Distretti Italiani, Mestre
Gabetti R (1968) L’insegnamento dell’architettura nel sistema didattico franco-italiano 1782. Quaderni di studio, Torino
Giedion S (1948) Mechanization takes command, a contribution to anonymous history. Oxford University Press, New York
Goldstine HH (1972) The computer: from Pascal to von Neumann. Princeton University Press, Princeton
Groover MP (1996) Fundamentals of modern manufacturing: materials, processes, and systems. Prentice Hall, Englewood Cliffs/London
Henderson R (1996) Technological change and the management of architectural competence. In: Cohen MD, Sproull LS (eds) Organizational learning. Sage Publications, Thousand Oaks/London
Hounshell DA (1987) From the American system to mass production, 1800–1932: the development of manufacturing technology in the United States. Johns Hopkins University Press, Baltimore
Isaksen A (2004) Knowledge-based clusters and urban location: the clustering of software consultancy in Oslo. Urb Stud 41(5–6):1157–1174
Jackson R (2006) Aviazione della seconda guerra mondiale. Evoluzione, armi, caratteristiche. L’airone, Roma
Jones M, Saad M (2003) Managing innovation in construction. Thomas Telford, London
Kennedy A (2008) Pharmaceutical project management. Informa Healthcare, New York
Kenney M (ed) (2000) Understanding silicon valley: the anatomy of an entrepreneurial region. Stanford University Press, Stanford
Kloosterman R (2008) Walls and bridges: knowledge spillover between superdutch architectural firms. J Econ Geogr 8(4):545–563
Kochan D (1986) CAM: developments in computer integrated manufacturing. Springer, Berlin
Krugman P (1991) Geography and trade. The MIT Press, Cambridge, MA
Lampel J (2011) Institutional dynamics of project-based creative organizations: Irving Thalberg and the Hollywood studio system. In: Cattani G et al (eds) Project-based organizing and strategic management, vol 28, Advances in strategic management. Emerald, Bingley
Levitt RE et al (2012) Encouraging knowledge-sharing in engineering firms—part I: incentives, disincentives, and the impacts of firm context. Eng Proj Organ J 2(4): 231–239
Levitt RE et al (2013) Encouraging knowledge sharing in engineering firms—part II: game theory analysis and firm strategies. Eng Proj Organ J 3(1): 22–31
Lootsma B (2000) Superdutch: new architecture in the Netherlands. Princeton Architectural Press, New York
Lucertini M, Gasca Millán A, Nicolò F (2004) Technological concepts and mathematical models in the evolution of modern engineering systems: controlling, managing, organizing. Birkhäuser, Basel
Luke R, Begun J, Pointer D (1989) Quasi-firms: strategic interorganizational forms in the health care industry. Acad Manag Rev 14:1–14
Marabelli A (2011) Ma non eravamo i più bravi? Marmomacchine Magazine 218:8
Micelli S (2011) Futuro artigiano: L’innovazione nelle mani degli italiani. Marsilio, Venezia
Naticchia B, Cacciaguerra G (2011) Metodi e strumenti di gestione della costruzione. In: Trento A (ed) Verso un sapere tecnico condiviso nella ricerca sulla progettazione e costruzione dell’edilizia, Atti della Giornata di Studio. Associazione Scientifica Ar.Tec., Roma
Noble DF (1979) Social choice in machine design. In: Zimbalist A (ed) Case studies on the labor process. Monthly Review Press, New York
Noble DF (2011) Forces of production: a social history of industrial automation. Transaction Publishers, New Brunswick
Olexa R (2001) The father of the second industrial revolution. Manuf Eng 127(2)
Orsenigo L, Pammolli F, Riccaboni M (2001) Technological change and network dynamics: lessons from the pharmaceutical industry. Res Policy 30(3):485–508
Ortiz EL (2010) On the impact of philosophical conceptions on mathematical research. The case of Condillac and Babbage. Metatheoria 1(1):65–76
Osservatorio Nazionale Distretti Italiani (2011) Secondo rapporto dell’Osservatorio Nazionale Distretti Italiani. Federazione dei Distretti Italiani, Mestre
Overby A (2011) CNC machining handbook: building, programming, and implementation. McGraw-Hill, New York
Pease W (1952) An automatic machine tool. Sci Am 187(3):101–115
Pérez-Gómez A (1985) Architecture and the crisis of modern science. MIT Press, Cambridge, MA
Phene A, Fladmoe-Lindquist K, Marsh L (2006) Breakthrough innovations in the U.S. biotechnology industry: the effects of technological space and geographic origin. Strateg Manag J 27:369–388
Picon A (1992) Gestes ouvriers, opérations et processus techniques. La vision du travail des encyclopédistes. Recherches sur Diderot et sur l’Encyclopédie 13:131–147
Romozzi F (2010) I vantaggi nello sviluppo delle Aree Leader. Roma
Ross TD (1978) Origins of the APT language for automatically programmed tools. In: Wexelblat RL (ed) History of programming languages I. ACM, New York
Sabel CF (2004) Mondo in bottiglia o finestra sul mondo? Domande aperte sui distretti industriali nello spirito di Sebastiano Brusco. Stato e mercato 70–72(1):143–158
Sinopoli N, Tatano V (2002) Sulle tracce dell’innovazione. Tra tecniche e architettura. FrancoAngeli, Milano
Tatum CB (1989) Organizing to increase innovation in the construction firm. J Constr Eng Manag 115(4):602–617
Taylor JE, Levitt RE (2005) Inter-organizational knowledge flow and innovation diffusion in project-based industries. In: Proceedings of the 38th annual Hawaii international conference on system sciences (HICSS’ 05), Waikoloa
Taylor JE, Levitt RE (2007) Innovation alignment and project network dynamics: an integrative model for change. Proj Manag J 38(3):22–35
Valmalette JM (1957) Le dessin technique normalise. Vuibert, Paris
Womack JP, Jones DT, Roos D (1990) The machine that changed the world. Rawson Associates, New York
Zeitlin J (1995) Flexibility and mass production at war. Aircraft manufacture in Britain, the United States, and Germany, 1939–1945. Technol Cult 36(1):46–79
Zeller C (2002) Project teams as means of restructuring research and development in the pharmaceutical industry. Reg Stud 36(3):275–290
Zucker L et al (1996) Collaboration structure and information dilemmas in biotechnology: organizational boundaries as trust production. In: Kramer RM, Tyler TR (eds) Trust in organizations. Sage publication, Thousand Oaks
Author information
Authors and Affiliations
Rights and permissions
Copyright information
© 2014 Springer Science+Business Media Dordrecht
About this chapter
Cite this chapter
Caneparo, L. (2014). Digital Production. In: Digital Fabrication in Architecture, Engineering and Construction. Springer, Dordrecht. https://doi.org/10.1007/978-94-007-7137-6_3
Download citation
DOI: https://doi.org/10.1007/978-94-007-7137-6_3
Published:
Publisher Name: Springer, Dordrecht
Print ISBN: 978-94-007-7136-9
Online ISBN: 978-94-007-7137-6
eBook Packages: EngineeringEngineering (R0)