
phil ayres
Address: Copenhagen, Hovedstaden, Denmark
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Papers by phil ayres
1. Change is inevitable
2. Design is an iterative process
Herbert Simon posits design as an engine of change. He states
that design activity is the devising of ‘courses of action aimed at
changing existing situations into preferred ones’ [Simon, 1996, p.111].
Applied against a timeline, synthesised preferred situations become existing situations – the logical conclusion being that design and synthesis should be re-iterated in light of new preferred situations. This defines a circular relationship that could continue indefinitely.
The design activity both hypothesises and defines possible
‘environments’, comprising further sources of change. According to the early twentieth century model of physics proposed by Willard Gibbs, these sources must be considered as both dynamic and contingent.
Gibbs’ model lays the ground for modern physics. It is a dramatic shift from the long held, and applied, Newtonian position in which physics claimed to deal with certainty [Wiener, 1950, pp.13-21].
Dynamic uncertainty reinforces the argument for continual design evaluation and iteration.
This thesis is a speculation on, and exploration of, the inherent
potentials and implications contained in the notion of a continuous circular design activity. The thesis constructs the arguments for, introduces, explores, and tests the conceptual framework of the Persistent Model in which design activity is not arrested in relation to the constructed artefact with which it is associated. Rather, it is allowed to persist, allowing a direct
dialogue between representation and the represented.
The implementation of this concept leads to artefacts and spaces that are qualitatively different, as Persistent Modelling provides a ground upon which particular time-based attributes can be exhibited – most notably, adaptation.
The implementation of this framework necessitates a re-examination of the process and concerns of architectural design.
The sub-text of the thesis is to remember that the activity of
design is itself designed.
books by phil ayres
But the persistence in persistent modelling can also be understood to apply in other ways, reflecting and anticipating extended roles for representation. This book identifies three principle areas in which these extensions are becoming apparent within contemporary practice: the duration of active influence that representation can hold in relation to the represented; the means, methods and media through which representations are constructed and used; and what it is that is being represented.
Featuring contributions from some of the world’s most advanced thinkers on this subject, this book makes essential reading for anyone considering new ways of thinking about architecture.
In drawing upon both historical and contemporary perspectives this book provides
evidence of the ways in which relations between representation and the represented continue to be reconsidered. It also provides critical insight into the use of contemporary modelling tools and methods, together with an examination of the implications their use has within the territories of architectural design, realisation and experience.
Through individual project descriptions accompanied by photographic documentation and design drawings, CITA works provides readers with insights into our design-led practice-based architectural research which queries how computation challenges the way we think, design and build architecture.
With essays by Professor Mette Ramsgaard Thomsen (Head of CITA), and Dr. Jane Burry (Head of the Spatial Information Architecture Laboratory, RMIT) the work is contextualised within the field of digital architectural design practice. These essays also identify the emerging questions and maturing methods that continue to inform CITA’s research within this territory.
CITA works marks the first 10 years of our research effort and acknowledges the institutions, practices, companies and individuals that have participated, contributed and collaborated with us along the way.
CITAstudio: Computation in Architecture is a two year International Master's Programme at The Royal Danish Academy of Fine Arts, School of Architecture. With a focus on digital design and material fabrication the programme questions how computation is changing our spatial, representational and material cultures. Through hands-on experimentation and production the programme emphasises learning-through-doing as a principle method for exploring computation as a means to pursue speculative design, experimental fabrication, material actuation and complex modelling.
miscs by phil ayres
They can both be described as pressure based systems in which a coherent envelope is tensioned through compressive force in order to achieve a state of self-equilibrium. Persistent Model #2 is a full-scale speculative prototype that employs two classes of inflatable component – one ‘hard’, irreversible and pre-inflated (metal); one ‘soft’, reversible and continually pressurized (laminate foil). The principles of tensegrity are evident at two distinct scales.
Persistent Model #2 adopts the topology of Kenneth Snelson’s Planar Weave tensegrity (which met an untimely end after a gust of New York wind blew it off the parapet of his York Avenue studio during a photographic session in 1960). Particular characteristics of Planar Weave are reconsidered with an architectural sensibility that searches to establish synergies between structural logic, component demands and material dynamics, as well as addressing issues of skin
and local specificity through the fabrication of variety.
Persistent Model #2 builds upon an existing body of research knowledge developed at CITA in free-form metal inflation, the notion of Persistent Modelling and a sustained critical investigation of the roles digital tools can play in extending the ways in which we think, design, realise and experience architecture.
However, under-specified models find real traction as a means for dealing with situations in which there is incomplete information, continual change, unpredictability, uncertainty and the need to manage multiple criteria that are often conflicting – conditions which are endemic to both architectural design and use.
Computational approaches provide a basis for establishing these models, allowing them to continually re-calculate, adapt and exhibit different states in the face of a design context undergoing continual change.
A pneumatically activated tensile skin provides a limited material analogue to the computational space of representation. It has the ability to change state, expressed through active shading in relation to specific geographical location, time of year and changing interior demand.
The project draws a critical distinction between the need for high degrees of specificity at the level of material assignment and organisation, and the need to remain under-specified in terms of response to its context. Through the use of under-specified models the system is able to remain provisional over extended time whilst finding specificity ‘in-action’ at any point in time. The system, which should be understood as a material and computational hybrid, is continually adapting and negotiating the interface between internal demand and exterior environment. It manifests a restless specificity.
natural and artificial components. In this paper we motivate and present the research program of the project flora robotica. Our objective is to develop and to investigate closely linked symbiotic relationships between robots and natural plants and to explore the potentials of a plant-robot society able to produce architectural artifacts and living spaces. These robot-plant bio-hybrids create synergies that allow for new functions of plants and robots.
They also create novel design opportunities for an architecture that fuses the design and construction phase. The bio-hybrid
is an example of mixed societies between ‘hard artificial and ‘wet natural life, which enables an interaction between natural and artificial ecologies. They form an embodied, self-organizing, and distributed cognitive system which is supposed to grow and develop over long periods of time resulting in the creation of meaningful architectural structures. A key idea is to assign equal roles to robots and plants in order to create a highly integrated, symbiotic system. Besides the gain of knowledge, this project has the objective to create a bio-hybrid system with a defined function and application – growing architectural artifacts.
inbooks by phil ayres
The notion of a new digital-material practice, in which the design and detailing of materials are directly linked to the design and detailing of buildings, provides the framework for an emerging field of architectural research. Aiming to innovate structural thinking and create better and more sustainable material usage, these new material practices rely on the ability to compute complex inter-scalar dependencies and link these directly to digital fabrication. However appropriate methods and techniques are just surfacing and need further development as they remain sequential in nature and lack an understanding of the inter-scalar relationship within material organization.
1. Change is inevitable
2. Design is an iterative process
Herbert Simon posits design as an engine of change. He states
that design activity is the devising of ‘courses of action aimed at
changing existing situations into preferred ones’ [Simon, 1996, p.111].
Applied against a timeline, synthesised preferred situations become existing situations – the logical conclusion being that design and synthesis should be re-iterated in light of new preferred situations. This defines a circular relationship that could continue indefinitely.
The design activity both hypothesises and defines possible
‘environments’, comprising further sources of change. According to the early twentieth century model of physics proposed by Willard Gibbs, these sources must be considered as both dynamic and contingent.
Gibbs’ model lays the ground for modern physics. It is a dramatic shift from the long held, and applied, Newtonian position in which physics claimed to deal with certainty [Wiener, 1950, pp.13-21].
Dynamic uncertainty reinforces the argument for continual design evaluation and iteration.
This thesis is a speculation on, and exploration of, the inherent
potentials and implications contained in the notion of a continuous circular design activity. The thesis constructs the arguments for, introduces, explores, and tests the conceptual framework of the Persistent Model in which design activity is not arrested in relation to the constructed artefact with which it is associated. Rather, it is allowed to persist, allowing a direct
dialogue between representation and the represented.
The implementation of this concept leads to artefacts and spaces that are qualitatively different, as Persistent Modelling provides a ground upon which particular time-based attributes can be exhibited – most notably, adaptation.
The implementation of this framework necessitates a re-examination of the process and concerns of architectural design.
The sub-text of the thesis is to remember that the activity of
design is itself designed.
But the persistence in persistent modelling can also be understood to apply in other ways, reflecting and anticipating extended roles for representation. This book identifies three principle areas in which these extensions are becoming apparent within contemporary practice: the duration of active influence that representation can hold in relation to the represented; the means, methods and media through which representations are constructed and used; and what it is that is being represented.
Featuring contributions from some of the world’s most advanced thinkers on this subject, this book makes essential reading for anyone considering new ways of thinking about architecture.
In drawing upon both historical and contemporary perspectives this book provides
evidence of the ways in which relations between representation and the represented continue to be reconsidered. It also provides critical insight into the use of contemporary modelling tools and methods, together with an examination of the implications their use has within the territories of architectural design, realisation and experience.
Through individual project descriptions accompanied by photographic documentation and design drawings, CITA works provides readers with insights into our design-led practice-based architectural research which queries how computation challenges the way we think, design and build architecture.
With essays by Professor Mette Ramsgaard Thomsen (Head of CITA), and Dr. Jane Burry (Head of the Spatial Information Architecture Laboratory, RMIT) the work is contextualised within the field of digital architectural design practice. These essays also identify the emerging questions and maturing methods that continue to inform CITA’s research within this territory.
CITA works marks the first 10 years of our research effort and acknowledges the institutions, practices, companies and individuals that have participated, contributed and collaborated with us along the way.
CITAstudio: Computation in Architecture is a two year International Master's Programme at The Royal Danish Academy of Fine Arts, School of Architecture. With a focus on digital design and material fabrication the programme questions how computation is changing our spatial, representational and material cultures. Through hands-on experimentation and production the programme emphasises learning-through-doing as a principle method for exploring computation as a means to pursue speculative design, experimental fabrication, material actuation and complex modelling.
They can both be described as pressure based systems in which a coherent envelope is tensioned through compressive force in order to achieve a state of self-equilibrium. Persistent Model #2 is a full-scale speculative prototype that employs two classes of inflatable component – one ‘hard’, irreversible and pre-inflated (metal); one ‘soft’, reversible and continually pressurized (laminate foil). The principles of tensegrity are evident at two distinct scales.
Persistent Model #2 adopts the topology of Kenneth Snelson’s Planar Weave tensegrity (which met an untimely end after a gust of New York wind blew it off the parapet of his York Avenue studio during a photographic session in 1960). Particular characteristics of Planar Weave are reconsidered with an architectural sensibility that searches to establish synergies between structural logic, component demands and material dynamics, as well as addressing issues of skin
and local specificity through the fabrication of variety.
Persistent Model #2 builds upon an existing body of research knowledge developed at CITA in free-form metal inflation, the notion of Persistent Modelling and a sustained critical investigation of the roles digital tools can play in extending the ways in which we think, design, realise and experience architecture.
However, under-specified models find real traction as a means for dealing with situations in which there is incomplete information, continual change, unpredictability, uncertainty and the need to manage multiple criteria that are often conflicting – conditions which are endemic to both architectural design and use.
Computational approaches provide a basis for establishing these models, allowing them to continually re-calculate, adapt and exhibit different states in the face of a design context undergoing continual change.
A pneumatically activated tensile skin provides a limited material analogue to the computational space of representation. It has the ability to change state, expressed through active shading in relation to specific geographical location, time of year and changing interior demand.
The project draws a critical distinction between the need for high degrees of specificity at the level of material assignment and organisation, and the need to remain under-specified in terms of response to its context. Through the use of under-specified models the system is able to remain provisional over extended time whilst finding specificity ‘in-action’ at any point in time. The system, which should be understood as a material and computational hybrid, is continually adapting and negotiating the interface between internal demand and exterior environment. It manifests a restless specificity.
natural and artificial components. In this paper we motivate and present the research program of the project flora robotica. Our objective is to develop and to investigate closely linked symbiotic relationships between robots and natural plants and to explore the potentials of a plant-robot society able to produce architectural artifacts and living spaces. These robot-plant bio-hybrids create synergies that allow for new functions of plants and robots.
They also create novel design opportunities for an architecture that fuses the design and construction phase. The bio-hybrid
is an example of mixed societies between ‘hard artificial and ‘wet natural life, which enables an interaction between natural and artificial ecologies. They form an embodied, self-organizing, and distributed cognitive system which is supposed to grow and develop over long periods of time resulting in the creation of meaningful architectural structures. A key idea is to assign equal roles to robots and plants in order to create a highly integrated, symbiotic system. Besides the gain of knowledge, this project has the objective to create a bio-hybrid system with a defined function and application – growing architectural artifacts.
The notion of a new digital-material practice, in which the design and detailing of materials are directly linked to the design and detailing of buildings, provides the framework for an emerging field of architectural research. Aiming to innovate structural thinking and create better and more sustainable material usage, these new material practices rely on the ability to compute complex inter-scalar dependencies and link these directly to digital fabrication. However appropriate methods and techniques are just surfacing and need further development as they remain sequential in nature and lack an understanding of the inter-scalar relationship within material organization.
The simplicity in execution of the forming method belies a complex matrix of interactions occurring within, and between, scales of material organisation. Within certain limits, these interactions dramatically and irreversibly transform material and component attributes towards increased performance potentials and formal complexity. These transforms are steerable but not exclusively dependant upon profile geometry. The definition of geometry leading to physical outcome is familiar design territory.
The forming method can be arrested and resumed arbitrarily. The notion of an extended forming process presents interesting implications to the linear relationship that tends to bind the commonly distinguished phases of design, fabrication/construction and occupancy/use. It suggests a potential for active response in relation to demand. This, in turn, presents challenges to a design practice that is reliant upon methods of representation that tend towards the ideal, predictive and pre‐determined. This is less familiar design territory.
This work begins to define both a material language for, and a non‐deterministic design paradigm of, steered proclivity. A conceptual framework for this paradigm is sketched out and presented in the form of the Persistent Model.
The ensuing examination commences with an anecdote.
It discusses how models act as a conversational partner, and how they support various forms of conversation within the conversational activity of design.
Three distinctions are drawn through which to develop this discussion of models in an architectural context. An examination of these distinctions serves to nuance particular characteristics and roles of models, the modelling activity itself and those engaged in it.
The notion of a new digital-material practice, in which the design and detailing of materials are directly linked to the design and detailing of buildings, provides the framework for an emerging field of architectural research. Aiming to innovate structural thinking and create better and more sustainable material usage, these new material practices rely on the ability to compute complex inter-scalar dependencies and link these directly to digital fabrication. However appropriate methods and techniques are just surfacing and need further development as they remain sequential in nature and lack an understanding of the inter-scalar relationship within material organization.
This paper presents cross-disciplinary work-in-progress that is investigating how standard materials might be organised and processed in novel ways to promote active physical transform of architectural structures and to assess the impact that multi-scalar shape change might have upon environmental performance.
This work builds upon prior research investigating tensegrities and other pneumatics including free-form inflated metal.
building material, as opposed to modular units, offers
new challenges to the robot-based construction process and
lends the opportunity for increased flexibility in constructed
artifact properties, such as shape and deformation. As an
example investigation, we look at continuous filaments organized
into braided structures, within the context of bio-hybrids
constructing architectural artifacts. We report the result of
an early swarm robot experiment. The robots successfully
constructed a braid in a self-organized process. The construction
process can be extended by using different materials and
by embedding sensors during the self-organized construction
directly into the braided structure. In future work, we plan
to apply dedicated braiding robot hardware and to construct
sophisticated 3-d structures with local variability in patterns
of filament interlacing.