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2021, Bulletin of the Polytechnic Institute of Iași. Construction. Architecture Section
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9 pages
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The implementation of the cutting-edge technologies - related to communication and information transfer, as well as those related to intelligent materials, sensors, components and modules represent the only plausible way towards the emergence of complex, autonomous and decentralized systems of adaptation. The adaptive architecture deals with buildings designed to adjust dynamically to the environment, inhabitants and contained objects, its behaviour being influenced by the response of the users and the environment. The author highlights the innovations and adaptive capacities currently available by critically examining the specialized literature, by showing the philosophy behind the design of adaptive architecture - the direct involvement of the user in the act of designing and personalizing the adaptive architectural space, a continuous optimization process, in real time, by using it. The research results indicate that the emergence of adaptive architecture is based on the continuo...
Urban and Transit Planning, 2019
Since the 1980s, the bioclimatic architecture has had the historical merit of having raised public and experts’ awareness on the importance of designing buildings with the purpose of solving the problem of energy saving. Nowadays, in the light of the most recent energy strategies policies, in force on an international and European scale, codified in EC Directive 31/2010 concerning the implementation of the Nearly Zer-Energy Buildings (NZEB), (Deru et al. 2006), the need for a new approach to redevelopment that focuses on environmental, climate and energy objectives with innovative technological solutions emerges, aimed at optimizing the passive bioclimatic behaviour of a building. In the world of architecture, from the beginning of the 1990s to today, it has been possible to witness the appearance of structures able to adapt their form, shape, colour or character responsively (via actuators), reflecting the environmental conditions around them. These skills, which redescribe the architectural relationship with the space and the surrounding environment, fall within the scope of what is commonly called “Responsive Environment”. In this new scenario, we explore the possibilities offered by the latest technologies in support of traditional architecture. This article, in an attempt to interpret the culture of our time, aims to advance in the field of “Responsive Environment” through the creation of an “intelligent”, dynamic and adaptive architecture which redefines the common perception of the environment.
The next stage of green building where initial advances in the last few years of the green revolution start coming together in dynamic, intelligent systems and responsive facades that have far greater impact in their buildings than those of each system operating independently. It's where the individuals who occupy those buildings have Architecture has always been inventive and adaptable. However, our current era is unique in its technological potential combined with societal and environmental challenges. The need to generate sustainability, developments in design techniques and technology advances are leading to the emergence of a new Adaptive Architecture. The built environment is becoming truly responsive in terms of physical, real-time changes acting under intelligent control. Adaptive Architecture can be characterized by four key attributes; it is Dynamic, Transformable, Bio-inspired and Intelligence.
2020
Adaptive Architecture is a multidisciplinary field concerned with structures that are designed to adapt to their environments, their inhabitants, and objects as well as those structures that are entirely driven by human needs. This tendency has been encouraged by its multidisciplinary nature, developments across architecture, material technology, and the temporary technological structure research field. This paper aims to allow readers to take a step ahead advancing the exploration in technology and new design tools with thematic past and future links across this exciting, emerging field of lightweight structures in architecture with a particular focus on housing design. Concerning the potential of integrating live forms and structures to provide flexible, adaptable as well as transformable living spaces in contrary to massive and heavy materials which grant opportunity for permanent and safe living spaces. To this aim, it presents a cross-disciplinary framework of adaptive lightweight architecture that contains a reversible construction process rather than a linear design process and discussing the new method of work announcing our habitats by introducing the key interlinked components of the degree of adaptability of living space. This is followed by a brief outline of overarching strategies and a design proposal that can be employed in this context.
Proceedings of the XVIII Conference of the Iberoamerican Society of Digital Graphics - SIGraDi: Design in Freedom, 2014
Existing typologies of emergency housing rely heavily on conventional designs, materials and labor-intensive construction methodologies, which in post-disaster environments place large amounts of strain on the surrounding communities, material manufacturers and financial systems. With ever more unpredictable environmental conditions, should our new housing prototypes not also have the ability to simultaneously adapt to rapidly changing environmental conditions? This paper investigates the potential of developing a new typology of rapidly deployable emergency housing prototypes through the creation of a system which relies on embedded design intelligence, advanced fabrication and adaptable systems, rather then attempting to make existing building systems smarter.
International Review of Law, Computers & Technology
In this paper we explore regulatory, technical and interactional implications of Adaptive Architecture, a novel trend emerging in the built environment. We provide a comprehensive description of the emergence and history of the term, with reference to the current state of the art and policy foundations supporting it e.g. smart city initiatives and building regulations. As Adaptive Architecture is underpinned by the Internet of Things (IoT), we are interested in how regulatory and surveillance issues posed by the IoT manifest in buildings too. To support our analysis, we utilise a prominent concept from architecture, Stuart Brand's Shearing Layers model, which describes the different physical layers of a building and how they relate to temporal change. To ground our analysis, we use three cases of Adaptive Architecture, namely an IoT device (Nest Smart Cam IQ); an Adaptive Architecture research prototype, (ExoBuilding); and a commercial deployment (the Edge). In bringing together Shearing Layers, Adaptive Architecture and the challenges therein, we frame our analysis under 5 key themes. These are guided by emerging information privacy and security regulations. We explore the issues Adaptive Architecture needs to face for: A-'Physical & information security'; B-'Establishing responsibility'; C-'occupant rights over flows, collection, use & control of personal data'; D-'Visibility of Emotions and Bodies'; & E-'Surveillance of Everyday Routine Activities'. We conclude by summarising key challenges for Adaptive Architecture, regulation and the future of human building interaction.
Smart Home Systems, 2010
Establishing a sustainable environment is an important mission for research on the next generation of intelligent houses. The current living environment is full of fixed architectural elements, or reactive elements that merely possess a "perception reaction" function. These elements are hard to respond to a changing and complex environment by judging and assessing changing circumstances in order to satisfy users' varied, complex needs. Take an opening in a classroom wall, for instance: When loud construction noise from outside can come in through the opening, but the classroom is extremely hot because of crowded students, would it be better to open or close the window in order to achieve a comfortable classroom environment? Of course this situation cannot be analyzed solely on the basis of use of a fixed glass soundproof door or window, or a ventilation opening, and can be resolved by a reactive device possessing solely a perception actuation function only to a limited extend. As a consequence, this study seeks to promote the creation of an intelligent architecture environment possessing perception computing actuation communication (PCAC) functions, where the computing mechanism can consider diverse situations, drive architectural elements, and engage in communication and coordination in order to adapt to changes.
This paper discusses and demonstrates an integration of embedded electronic systems utilizing distributed sensors and localized actuators to increase the adaptability and environmental performance of a building envelope. It reviews state-of-the-art technologies utilized in other fields that could be adopted into smart building designs. The case studies adopt the Internet of Things (IoT) framework based on machine-to-machine (M2M) communication protocols as a potential solution for embedded building systems. stract here by clicking this paragraph.
106th ACSA Annual Meeting Proceedings, The Ethical Imperative, 2018
2019
This paper discusses possibilities afforded by an integrative approach in which overlapping of intelligence, material capabilities, and social and ecological issues inspires an entirely new approach to designing resilience through adaptability. The ability to regulate behavior and adapt to the demands of a situation has always been associated with living organisms. This capacity to adapt is what defines resilience in nature. A technologically augmented built environment can often adapt to changes in its environment, but this adaptivity is often prescribed. If resilience is the capacity to recover from a disturbance and a traumatic event, how is then resilience manifested within a technologically enhanced setting? How do we design resilience into our engineered ecologies? How is this manifested in the design context where boundary between self developing and externally designed is increasingly blurred?
2016
It was estimated in 1950 that about 30% of the world’s population would be staying in urban areas. Today over 54% live in the cities consuming over 60% of the world’s resources and accounting for over 50% of CO2 emissions.1 The current trend and policies have failed to curtail this growth, and would only have an adverse effect. With a population of over 18 million, Mumbai the most densely populated city in the world with about 29,650 people per sq.km.2 It is also responsible for high resource consumption and waste generation. Job opportunities and hope for a better life attract people to Mumbai from all over the nation further increasing the pressure on the limited resources. Over the past few decades, Mumbai saw a decline of industries; commercial and residential structures saw an increase and these structures often replaced the defunct industries post 1991. Amongst the residential and commercial spaces, the latter account for high energy consumption per unit area.3 4 With growing environmental concerns, sustainable architecture has emerged as a new trend; commercial spaces have the potential to reduce the intensity of energy that they consume and move towards the goal of sustainability. These spaces can also help in creating job opportunities which could tackle unemployment. One of the most sustainable design solutions is Adaptive Reuse which helps in keeping a low carbon footprint and rejuvenating the old structures causing least disturbance to the urban fabric. Defunct industries in Mumbai offer this opportunity, and its reuse may prove a boon to the society as well as the environment. The goal of sustainable development has been furthered with the advent of technology in building construction. Use of intelligent building systems can help cope with the dynamic nature of challenges faced by the building throughout its lifespan. Together with adaptive reuse, this feature might also allow flexibility of functions. This dissertation is an attempt to find a solution to the problems of urbanisation through adaptive reuse and intelligent building systems.
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