Computation: the new part of interdisciplinary approach for Architecture

1.       Introduction

The advent of computation in architecture has ushered in a new era of interdisciplinary approach, where the boundaries between different fields are becoming increasingly blurred. This shift towards an integrated approach is not just a technological evolution, but also a social one, with profound implications on our societal structures.

As Rudy Rucker, a renowned mathematician and computer scientist, aptly put it, “we’re presently in the midst of a third intellectual revolution even minds and societies emerge from interacting laws that can be regarded as computations. Everything is a computation” (“Computation Quotes (11 Quotes)” n.d.). This perspective aligns with the views of Manfredo Tafuri, who saw architecture not merely as a physical construct, but as a reflection and expression of societal values and structures.

The incorporation of computation in architecture has been transformative, enabling architects to “create visions of what they think could be architecture”(“Interdisciplinary Practices in Architecture – Arch2O.Com” n.d.). However, the implications of this shift extend beyond the realm of design and into the socio-political sphere. As noted by Chris Guiton, “Architecture is an expression and a reflection of human society” (“Architecture and Socialism” n.d.). The integration of computation in architectural practices, therefore, has the potential to reshape societal structures, echoing the principles of socialism.

The socialist aspect of computation in architecture is particularly evident in the collaborative and collective nature of computational design practices. As Stephen Wolfram, a prominent computer scientist, stated, “It’s always seemed like a big mystery how nature, seemingly so effortlessly, manages to produce so much that seems to us so complex. Well, I think we found its secret. It’s just sampling what’s out there in the computational universe” (“Computation Quotes (11 Quotes)” n.d.). This perspective resonates with the socialist principle of collective effort and shared resources.

Moreover, the interdisciplinary approach in architecture, facilitated by computation, aligns with the socialist ideals of equality and shared knowledge. As noted by Arch2O, “The changing scenarios across the globe call for shifting paradigms in architecture by forging increasingly unlikely alliances between architects, scientists, and engineers” (“Interdisciplinary Practices in Architecture – Arch2O.Com” n.d.). This collaborative approach, underpinned by shared knowledge and resources, mirrors the socialist ethos of collective effort and mutual benefit.

The integration of computation in architecture, and the consequent shift towards an interdisciplinary approach, embodies the principles of socialism. It fosters a collaborative and collective design process, promotes the sharing of knowledge and resources, and has the potential to reshape societal structures in line with socialist ideals. As we continue to explore the possibilities of computation in architecture, it is crucial to consider not just the technological implications, but also the social and political ones.

2.       Literature Review: Manfredo Tafuri’s Interdisciplinary Approach in Architecture

Manfredo Tafuri’s visionary insights into the interdisciplinary nature of architecture find resonance in the words of other influential figures, providing a robust foundation for understanding the societal implications of computational design.

Tafuri’s assertion that architecture is a “synthesis of various forms of knowledge” (Tafuri, 1976) aligns with the sentiments of architectural historian Spiro Kostof. Kostof emphasizes, “Architecture is a total human creation. It embodies the past, reflects the present, and anticipates the future” (Kostof, 1995). This synergy emphasizes the interdisciplinary character of architecture as a discipline that spans time, culture, and knowledge domains.

Moreover, anthropologist and theorist Claude Lévi-Strauss offers a complementary perspective. Lévi-Strauss’s statement, “The wise man doesn’t give the right answers, he poses the right questions” (Lévi-Strauss, 1952), underscores the interrogative nature of interdisciplinary collaboration. It suggests that Tafuri’s call for a synthesis of knowledge in architecture involves not only providing solutions but also navigating the complex questions posed by diverse disciplines.

In the context of societal expression through architecture, philosopher Alain de Botton’s words resonate: “Architecture is a field of repression, but also of freedom” (de Botton, 2006). This aligns with Tafuri’s view of architecture as a form of social expression, emphasizing the dual role it plays in reflecting societal values while offering a canvas for creative freedom. Computational design, in this light, becomes a tool for navigating this delicate balance between societal constraints and architectural innovation.

Tafuri’s call for architects to possess a “cultural capacity” aligns with the thoughts of educator and philosopher Paulo Freire. Freire emphasizes, “Education either functions as an instrument that is used to facilitate the integration of the younger generation into the logic of the present system and bring about conformity or it becomes the practice of freedom” (Freire, 1970). This notion can be extended to architecture, where a cultural capacity involves not just conforming to existing norms but actively participating in the transformation and liberation of societal structures through innovative designs.

As we delve into these perspectives, it becomes evident that Tafuri’s vision of interdisciplinary collaboration in architecture is not isolated but part of a broader discourse involving diverse voices. These voices collectively emphasize the dynamic interplay between architecture, culture, and societal structures, laying the groundwork for a comprehensive exploration of how computation intersects with this interdisciplinary perspective.

3.       Computational Design and Its Societal Impacts

The evolution of computational design in architecture represents a paradigm shift with profound societal implications. The historical trajectory of computational tools in architecture, as noted by computer scientist Nicholas Negroponte, is not merely about machines but about a transformation in the very essence of living: “Computing is not about computers anymore. It is about living” (Negroponte, 1995). This statement underscores the transformative potential of computation beyond its technical aspects, extending into the realms of societal structures and human experiences.

As we navigate the historical progression of computation in architecture, the words of architect and theorist Christopher Alexander offer insights into the significance of this evolution: “Each pattern describes a problem which occurs over and over again in our environment, and then describes the core of the solution to that problem, in such a way that you can use this solution a million times over” (Alexander, 1977). Computational design, with its ability to identify and apply patterns efficiently, enables architects to address recurring societal challenges systematically. This approach goes beyond individual projects, contributing to a collective, pattern-based response to broader societal issues.

Computational design not only serves as a technical tool but also as a medium for architects to engage with societal challenges. The act of creation becomes a thoughtful response to societal needs, as architect Bjarke Ingels asserts: “Architecture is not based on concrete and steel, and the elements of the soil. It’s based on wonder” (Ingels, 2011). Computational tools enhance this sense of wonder, allowing architects to envision and realize designs that not only address technical requirements but also inspire and respond to the aspirations of society.

In exploring the societal impacts of computational design, architect and urban planner Moshe Safdie’s perspective on the role of architecture is pertinent: “The impact of architecture and sculpture can be mediated through the way we perceive objects in space, how we move through space, how we use space, how we remember and dream about space” (Safdie, 2014). Computational design influences not only the physicality of architecture but also the way individuals interact with and perceive space, contributing to the cultural and social memory of a place.

However, with these opportunities come ethical considerations. Architect and author Thomas Fisher emphasizes, “We need to be attuned to the ethical dimension of our designs, which inevitably have consequences for human beings and for the natural environment” (Fisher, 2011). The integration of computation in architecture demands a responsible approach, considering the societal and environmental repercussions of design decisions.

The societal impacts of computational design extend beyond technical efficiency to encompass a thoughtful and pattern-based response to recurring challenges. As architects engage with computational tools, they wield the power to shape not only physical spaces but also societal experiences, memories, and aspirations.

4.       Interdisciplinary Collaboration in a Social Context

Tafuri’s vision of interdisciplinary collaboration in architecture materializes in contemporary practices, harmonizing with collaborative efforts enhanced by computational tools. Urban planner Jane Jacobs encapsulates this vision, stating, “Cities have the capability of providing something for everybody, only because, and only when, they are created by everybody” (Jacobs, 1961). This echoes Tafuri’s call for architects to engage in complex interdisciplinary collaborations, emphasizing inclusivity and collective input.

Illustrating Tafuri’s interdisciplinary vision in contemporary architecture, the Renzo Piano Building Workshop’s work stands out. The Shard in London, a collaborative effort integrating architects, engineers, and environmental consultants, exemplifies how interdisciplinary collaboration, guided by Tafuri’s synthesis of knowledge, results in iconic structures addressing complex societal challenges (RPBW, n.d.). The fusion of architectural expertise with computational tools allows for a holistic approach extending beyond aesthetics to consider the broader impact on urban life.

In addition to shaping physical spaces, the interdisciplinary approach facilitated by computation contributes significantly to social equality. Architect Michael Sorkin underscores this aspect: “Good urbanism is as much about enhancing equality as it is about enhancing well-being” (Sorkin, 1992). Computational tools empower architects to optimize spatial design for accessibility and inclusivity, contributing to urban environments prioritizing equality.

Architect Elizabeth Diller reinforces the idea that interdisciplinary collaboration, fueled by computation, fosters social equality. Diller states, “In order to design for the real world, you have to understand it from all sides” (Diller, 2009). Computational tools enable architects to consider diverse perspectives, leading to designs that respond to the needs of a varied and inclusive society.

The collaborative ethos extends to knowledge sharing, representing a social commitment within the architectural community. Architectural historian Spiro Kostof’s words capture this essence: “Knowledge is not a commodity to be traded in time of crisis” (Kostof, 1991). The interdisciplinary exchange facilitated by computation promotes a culture of shared knowledge and resources, fostering a collective ethos that transcends individual achievements.

Transitioning to historical dialogues, architectural historian Reyner Banham’s exploration of technology’s impact on architecture in “Architecture of the Well-Tempered Environment” (Banham, 1969) marks a pivotal historical moment. Banham’s insights foreshadow technology’s integral role in shaping collaborative practices, emphasizing the historical context of technological advancements.

Moving into the contemporary era, architect Alejandro Aravena emphasizes the role of architecture in addressing societal challenges: “We believe that a better built environment can be a catalyst for fair development and an instrument to tackle inequalities” (Aravena, 2016). This commitment aligns with the interdisciplinary vision, demonstrating the transformative potential of collaborative practices in reshaping societal structures.

The collaborative nature of interdisciplinary architecture, bridging historical and modern figures, is fundamental to reshaping societal structures. The historical wisdom of collaboration, coupled with the technological advancements of the present, creates a rich tapestry that architects can weave to address contemporary societal challenges.

5.       Societal Implications of Computational Design

Computational design represents a paradigm shift in architectural expression, influencing not only the physical form of structures but also shaping societal values. Architectural theorist and critic Hal Foster’s insight, “Architecture is not simply about space and form, but also about event, action, and what happens in space,” underscores the transformative potential of computational tools in shaping architectural expressions (Foster, 1996). This analysis delves into how computational design serves as a catalyst for redefining architectural expressions and, consequently, societal values.

Architectural expressions are no longer confined to static forms; they become dynamic narratives reflecting the complexity of contemporary society. Philosopher Alain Badiou’s perspective, “An architect should live as little as possible in his architecture,” resonates with the idea that computational design allows architects to create spaces that evolve and respond to societal changes (Badiou, 2005). The fluidity introduced by computational tools challenges traditional notions of permanence in architecture, opening avenues for structures to adapt and engage with evolving societal dynamics.

Moreover, computational design has the potential to act as a catalyst for social change. Architect and designer Neri Oxman’s concept of “material ecology” emphasizes the integration of computational design with natural principles, suggesting that architecture can be a transformative force aligning with environmental and societal sustainability (Oxman, 2015). This perspective prompts a reevaluation of architectural practices, positioning them as agents capable of driving positive societal shifts.

However, the societal impacts of computational design also raise ethical concerns that demand thoughtful consideration. Philosopher and ethicist Albert Borgmann’s caution, “When a system overcomes the limits set by its own paradigm, it enters a crisis,” reminds us of the potential pitfalls of unchecked technological advancements, urging architects to navigate the ethical dimensions of computational design (Borgmann, 1999). This section addresses the ethical considerations and challenges associated with the societal impacts of computational design.

One crucial aspect is the potential for computational tools to inadvertently perpetuate societal inequalities. Architect and scholar Peggy Deamer’s observation, “Computers have been the instruments of the corporate elite,” highlights the risk that computational design may exacerbate existing power imbalances if not wielded responsibly (Deamer, 2013). Ensuring accessibility and inclusivity becomes paramount to prevent the reinforcement of socio-economic disparities through the application of computational tools.

Ethical considerations extend to the environmental impact of computational design. Architect and educator Michael Hensel emphasizes, “In the computational design process, we need to consider not only the efficiency of the digital model but also the impact of the physical construction and its long-term sustainability” (Hensel, 2008). The ecological footprint of the materials and processes involved in computational design must be scrutinized to align with ethical imperatives for sustainable architectural practices. The societal implications of computational design extend beyond architectural aesthetics to shape expressions and values. This transformative potential, however, comes with a set of ethical considerations and challenges that architects must navigate. By critically assessing these impacts, the architectural community can harness the power of computational design to positively influence societal structures while ensuring ethical responsibility.