
The SmartGeometry Group is pleased to announce that the annual SG event will take place in Barcelona 19th – 24th March 2010. The event will be the key event in the year for discussing, learning and networking about the emerging practice of digital parametrics within the AEC community.
The event will come in three parts, a Workshop (19th-22th March), a public Shop Talk (23rd March), and a public Symposium and Reception (24th March). These events follow the highly successful previous SG events in San Francisco 2009, Munich 2008, New York 2007, Cambridge/London, UK 2006 and multiple preceding events.
Annually, the SG workshop attracts an impressive group of tutors and attendees from across the world of academia, professional practice as well as many of the brightest students. The workshop is open to 100 applicants who come together for four intensive days of design and collaboration. Admission to the workshop is based on selection by the SmartGeometry Group.
The application deadline was extended to Jan. 24, 2010, and has now closed.
The 2010 SmartGeometry Workshop is organised around the challenge ‘Working prototypes’. Working prototypes are functioning prototypes developed for the purpose of proving and testing a concept and design. In 2010 the workshop will be held in the great industrial space at the IAAC in Barcelona. This allows possibilities for fabrication on even a 1:1 scale, of creating material stress, physical thinking and mental gymnastics. This puts the physical at centre stage in challenging participants to design, assemble and test working prototypes.
1. conversation about a craft or occupation, particularly outside of working hours
2. specialized vocabulary concerning a particular craft or occupation
The SmartGeometry workshop has for several years been followed by an Alumni Summit. This year, reflecting the theme "Working Prototypes", the Alumni Summit has become Shop Talk: a moment after intensive days of innovative work to reflect on what has been accomplished and where the discipline is headed. This event will feature informal discussions between leading practitioners and emerging talent in digital design, offering an inside perspective on how design prototypes are conceived, created, and tested. Shop Talk provides a rich context for the following day's Conference program, showing how the state of the art is forged in the studio.
Day Two of the conference will feature leading researchers and practitioners in the field of computational design. Confirmed presenters include Adrian Bowyer (Senior lecturer, Department of Mechanical Engineering, University of Bath), Mark Burry (Director of the Spatial Information Architecture Laboratory, RMIT University, Melbourne, Australia), Enrico Dini (Chairman of D-shape), and Rupert Soar (Director of Freeform Engineering Ltd.).
The SG2010 Workshop + Conference would not be possible without the generous support of our sponsors:

GenerativeComponents training will not be offered on location at SmartGeometry 2010, but instead will be offered at a variety of locations prior to the start of the SG2010 Workshops including Istanbul, London, and Sydney. Bentley are also offering online training for all SG2010 Workshop applicants regardless of their acceptance into the Workshop. All applicants will receive an email directly from Bentley with information on this offer.
Onsite training sessions are also open to non-SG2010 Workshop Applicants, however SG2010 Workshop Applicants will receive priority access.
The main goal of the GenerativeComponents training workshop is to guide participants to reach a competency and comfort level with this parametric design system that will allow them to:

1. conversation about a craft or occupation, particularly outside of working hours
2. specialized vocabulary concerning a particular craft or occupation


The SmartGeometry 2010 Workshop + Conference has been developed by the SmartGeometry Group, who have organized the workshops, provided workshop tutors and external speakers for the 2 day Conference.
SmartGeometry 2010 Barcelona takes place from 19th – 24th March 2010.
SG2010 Workshop 19th-22th March
SG2010 Shop Talk 23rd March
SG2010 Symposium 24th March Day
SG2010 Reception 24th March Evening
Tours of Sagrada Familia 25th March




Information about training in GenerativeComponents can be found here
| This custer explores the opportunities that arise from iterative approach to form/function optimisation when working with curved folding. It takes advantage of rapid manufacture of large metal 3D forms offered by developable surfaces. The cluster will use a development process that transitions in and out of the digital realm – with the 3D scanner as input mechanism and vinyl cutter/laser cutter as output. GC will be used as the artifact interpretation and manufacturing preparation tool and building with GC tools for modelling curved folding. The end goal is to optimise designs for manufacture, followed by folding of metal sheets into the final form. | |
![]() |
Gregory Epps is CEO of RoboFold Ltd, a technology start-up that develops software to enable industrial robots to form sheet metal. This is a revolutionary manufacturing process which suggests new approaches to design and production. Based on the principles of curved folding, the technology replaces hands that fold with robots that fold – simple but elegant translation from craft to rapid manufacture. |
![]() |
Simon Flöry is research assistent at the Geometric Modelling and Industrial Geometry (http://www.geometrie.tuwien.ac.at/geom/fg4/) group at Vienna University of Technology. His research interests focus on geometry processing and geometric optimization with particular emphasis on applications in production technologies and architecture. |
| With the aid of efficient solvers for force-active structures, the design of tensile membrane systems can move towards the creation of complex multi-layered, interconnected assemblies defining both localized volumetric conditions, and global multi-dimensional deep surfaces. In this cluster, it is intended to design and fabricate such intricate spatial assemblies through the use of force-simulation algorithms in Processing, and deduction of fabrication information in GC. To instrumentalize the use of tensioned fabrics in the making of complex forms, the flow of structural force will be closely examined. In Processing, the design of the overall form shall occur through the constant editing and re-calibration of tension-force characteristics. A structural computational mesh will then be translated into a series of stitched, pre-tensioned fabric patches. The force values, from the spring-based model in Processing, shall be read to provide the necessary structural information regarding the degree of pre-tensioning required for fabrication of the prototype. The prototyping process will take advantage of automated methods for the marking and cutting of fabric elements. Analysis of variable stitching methods shall be done to determine the proper stiffness in the sewn edges between fabric patches. The assembled structure will occupy a space of approximately 2m x 2m x 2m. | |
![]() |
Professor Achim Menges is an architect and director of the Institute for Computational Design at Stuttgart University. Currently he also is Visiting Professor in Architecture at Harvard University’s Graduate School of Design and Visiting Professor for the Emergent Technologies and Design Graduate Program at the Architectural Association in London. Achim Menges' research focuses on the development of integral design processes at the intersection of evolutionary computation, algorithmic design, biomimetic engineering and computer aided manufacturing that enables a highly articulated, performative built environment. His research projects have been published and exhibited worldwide and received numerous international awards. |
![]() |
Sean Ahlquist is a Research Associate and PhD Candidate at the Institute for Computational Design at Stuttgart University. He holds a Masters in Architecture from the Emergent Design and Technologies Program at the AA in London. Prior to attending the AA, Sean founded the firm, Proces2, in San Francisco, while also teaching at the University of California Berkeley and California College of the Arts. Sean’s current research is examining the combined use of deterministic and non-linear methods in evolutionary computation to realize feedback-oriented generative processes for multi-objective design, utilizing increased levels of specificity in material, structural and performance-based behaviors. |
|
In this workshop we plan to control/optimise a design through a recursive process of computational analysis, small-scale prototyping and physical testing. The aim is to integrate this analysis into the design process using testing as a validation of the design. Ultimately the goal is to test each final design to destruction at full scale.
To concentrate the workshop our challenge is for all participants to make a CNC milled 1.2m timber cantilever, which will undergo a calibrated structural test; the ‘winner’ being the design with the lowest self-weight but highest loaded capacity. The wider aim of the workshop is to enter a dialogue about the practice of engineering alongside the process of design to get a feeling about truly how accurate engineering practice is and needs to be. Furthermore to question what makes good design in terms of form and function. Participants of all abilities and backgrounds are encouraged, analysis tools will be provided and guidance offered to those unfamiliar with the techniques. Additionally, more advanced participants can come and bring there own analysis and optimization techniques to develop during the workshop. |
|
![]() |
Sam Conrad Joyce is a Doctoral Candidate at the University of Bath with Chris Williams, whilst working within the SMART group in Buro Happold. His work focuses on examining and re-evaluating the position of engineering and engineers within the design process. This is achieved by developing more streamlined approaches to engineering through applying computational techniques and by understanding the broader context of building design. Sam has previously worked in the Specialist Modeling Group in Foster + Partners as a ‘tame’ engineer as well as tutoring in computational design at Bath University, Smart Geometry and Chalmers University Gothenburg. |
![]() |
Dr Al Fisher is part of Buro Happold’s SMART group, a team of analysts and engineers concerned with advanced modeling, analysis and simulation. Whilst at Buro he has been involved in developing approaches to form finding, rationalisation and optimisation for projects including timber grid shells, tall buildings and sports stadia. Most recently he has developed an integrated structural, environmental and façade optimization for the Louvre Abu Dhabi. Al previously studied for his masters and PhD in Civil and Architectural Engineering at the University of Bath where he developed novel approaches to advanced surface modeling and CFD. |
| In this workshop we intend to research the logic of a specific fabrication process combined with a constructive system as the main driver of architectural design. We will apply robotic processes that unlike common CNC machines not only allow the control of the machines movement, but the actual fabrication process itself. Rather than defining a specific geometry, the students in the workshop will generate their designs by programming specific material manipulations. | |
![]() |
Tobias Bonwetsch is senior researcher at ETH’s Laboratory for Architecture and Digital Fabrication chaired by Gramazio & Kohler. He studied architecture and graduated from the Technical University of Darmstadt. After gaining working experience as an independent architect, he completed his postgraduate studies at the ETH Zurich with a specialisation in Computer Aided Architectural Design. His research is concerned with integrating the logic of digital fabrication into the architectural design process, with a special focus on additive production methods. Currently he is completing his doctoral thesis at the ETH. |
![]() |
Ralph Baertschi studied theoretical physics at the University of Zurich and received a PhD in mathematics at the ETH. He worked for several years as a software engineer mainly in the field of railway noise protection planning and GIS-systems. Since 2006, he is senior researcher at ETH’s Laboratory for Architecture and Digital Fabrication, Gramazio & Kohler, where he is mainly responsible for research on room-acoustics as well as various programming tasks. |
|
This cluster focuses on a process that combines the design of parametric models with rapid, manual construction techniques. This set is coupled with digital setting out strategies and results in a 1:1 prototype. The task is to devise a method of translating complex digital projects into real scale models, using logical geometric thinking, inventive production planning and self organization principles.
The goal is to design and build a real scale, functional habitat. This structure will be of fast deployment defined by simple components and their precisely articulated relations. Components will be fabricated of standardized material. The design intelligence will go into the development of innovative connection types and assembly strategies. To achieve this, we will devise a translator craft using easily available technology, such as a conventional desktop printer, projectors and laser beams to articulate, scale and set the design in space. Applicants to this group should be inventive, hands-on designers with a combination of digital and building skills. They will learn to use advanced geometric modelling and algorithmic processes to develop and realize complex designs. Ultimately, the practical application and use of these tools can be better understood, and replicated in future projects, uninhibited by limited resources or technologies. |
|
![]() |
David Kosdruy works in the Computational Geometry Group at KPF, designing and developing complex and challenging geometries for several projects. Using scripting techniques on various platforms, he has developed generative design systems as well as analysis and management tools. David graduated in 2008 from the TU Munich as one of the best students of his year. He has taught at the TU Munich, he presented at the SG event 2008, and ran GC tutorials on several occasions in London. David’s work was rewarded with several prices like the Pininfarina Design Award and the Steel Construction Award and was exhibited on several occasions across Europe. |
![]() |
Juan E Subercaseaux is Associate Principal at KPF, as part of the Computational Geometry Group he focuses in high profile buildings, environmental performance and research. He taught in the Architectural Association between 2006 and 2008 in Diploma and Graduate Schools accomplishing 2 full scale projects built in Patagonia. Also he has taught and presented at several associative modelling workshops. Juan graduated as an Industrial Designer from the UCV School of Architecture and Design in 1997, between 1998 and 2004 he worked independently designing and building in various scales from objects to museums. Juan holds a Master in Architecture with distinction from the AA School of Architecture (EmTech MArch 2006). |
| The goal of the workshop group is to explore the use of inflatable fabric envelopes using the dual membrane principle used in inflatable tube kites where tension resistant membrane and air tight bladders are separated allowing for lightweight, strong structures with a relatively high level of shape control and the ability to use standard sewing techniques for construction. Participants are encouraged to experiment with new uses for those techniques in the architectural and engineering context such as possibly inflatable molds or lightweight structures and build prototypes to test them by combining parametric and computational modeling techniques with digital fabrication and sewing. (No prior experience with sewing necessary) | |
![]() |
Axel Kilian studied Architecture at the University of the Arts Berlin and specialized in Design and Computation for a Masters of Science, a Ph.D., and a post-doctorate at the Massachusetts Institute of Technology. He has been teaching workshops in computational design and design studios and has lectured widely on the topic of generative design at universities, in architectural practices and as a tutor in the smart geometry group workshop series since 2003. From 2007 to 2009 he was an Assistant Professor in Design Informatics at Delft University of Technology. Since 2009 he is an Assistant Professor for Computational Design School of Architecture of Princeton University. |
![]() |
Adam Davis is an Associate in the Foster + Partners Specialist Modelling Group, where he has worked since 2006. His recent research focuses on analyzing and form-finding architecture based on light transmission (visibility and radiation). Adam worked as a web technologist for internet and open source software companies before attending the University of Pennsylvania School of Design, where he received Master of Architecture and Master of Landscape Architecture degrees. He teaches parametric and computational design as a scripting technologist (U Penn), workshop tutor (AA D-Lab) and consultant tutor (AA Diploma Unit 2). |
| The design intention of this workshop is the exploration of new forms and materials of architectural surfaces used to modify acoustic space. The precise specification of a geometric structure together with an understanding of its material properties allows for the prediction of its acoustic performance. New potentials for the creation of architectural space and its perception emerge when the understanding of manufacturing technique and material properties are embedded in the underlying parametric model. Through the linking of acoustic theory, the parametric design of material and geometry, and the digital fabrication of these structures, true "working prototypes" will be created and evaluated. The group will focus on two acoustic behaviors: resonant absorption and sound scattering. Subgroups will study these through investigations of modulating surface geometry, perforated composites, and folded clusters. A library of working prototypes will be produced, and combined in a large frame structure. Through the exchange of data between Generative Components and the ODEON acoustic analysis software students will be able to "hear" their geometric creations using the software's auralization capabilities. | |
![]() |
Brady Peters is a PhD Fellow at the Centre for Information Technology and Architecture (CITA), and an architectural researcher with JJW Arkitekter and with Grontmij/CarlBro Engineers. His PhD research focuses on the acoustic performance of complex surfaces. Brady has previously worked for the London office of Buro Happold, and at Foster + Partners, where he was an Associate Partner with the Specialist Modeling Group. He has taught architectural design at the University of Nottingham, digital design and fabrication at the University of Ghent, and has been a tutor for numerous SmartGeometry conferences. |
![]() |
Martin Tamke is Associate Professor at the Centre for Information Technology and Architecture (CITA) at the Royal Academy of Fine Arts, School of Architecture in Copenhagen. He is pursuing design-led research on the interface and implications of computational design and its materialization. He has realized collaborative projects at a variety of scales: from exhibition pieces, competitions and interiors, to architectural projects. Martin Tamke joined the newly founded research centre CITA in 2006 and has led research projects on the design and fabrication for wood production, on curved creased surfaces and fractal systems, and the recently completed It’s a small world exhibition at the Danish Design Centre. He has taught workshops at Vienna, Berlin, St. Petersburg, Hamburg, Istanbul, Moscow, Copenhagen and Aarhus. |
|
This workshop situates itself at the nexus between architecture and systems biology to gain insight into dynamic living systems for the development of novel computational design tools and material systems that are at once natural and artificial. Generative design techniques emerge with references to natural systems, not as mimicry but as trans-disciplinary translation of flexibility, adaptation and complexity into realms of architectural manifestation. Systems Biology is a new field that focuses on the systematic study of complex interactions in biological systems, thereby using a new perspective (integration instead of reduction) to study them. This approach examines the nature of nonlinearities, emergent properties and loosely coupled modules that are cardinal features of 'complexity’. Design tools found useful in analyzing nonlinear biological systems provide new models for addressing contextual topics such as performance and change in architecture. Through the analysis of biological design problems in specialized 3D designer microenvironments, students will be exposed to new modes of thinking about design ecology through an understanding of how dynamic and environmental feedback specifies structure, function and form.
This workshop will consist of two parts: 1) Scripting and Simulation 2) Fabrication and Production of a 1:1 physical structure composed of 3D printed components and connections. |
|
![]() |
Jenny E. Sabin’s research and design practice investigate the contextual, material and formal intersections between architecture, textile tectonics and biology. She is the first non-scientist member of the Institute for Medicine and Engineering (IME), University of Pennsylvania, where she is collaborating with the Jones Lab, most recently initiating a research LabStudio (www.sabin-jones.com) between the IME and the School of Design together with Peter Lloyd Jones. She currently teaches design studios and elective seminars within the graduate Department of Architecture at PennDesign. She has exhibited internationally most recently at the Siggraph 08' and 09' Design and Computation Galleries and at Ars Electronica, Linz, Austria. |
![]() |
Peter Lloyd Jones is a Cell & Developmental Biologist and Associate Professor of Pathology & Laboratory Medicine at the University of Pennsylvania. He is also a lecturer at PennDesign, and Director of the Penn-CMREF Center for Pulmonary Arterial Hypertension Research at The Institute for Medicine & Engineering (IME). He teaches at the graduate level in the Schools of Engineering, Medicine & Design, most recently initiating a research LabStudio at the IME together with Jenny Sabin. Jones's research work on the molecular and architectural control of lung development, vascular disease, and breast cancer has been published in more than 50 peer-reviewed journals and books. |
|
This cluster is enabling and encouraging the use of physical/tangible interfaces, sensor devices, and their integration in the design process. As parametric relationships between the virtual and physical reality are bridged and can be simulated, situational variations of parameters that exist in the physical realm can be reflected in the virtual parametric model. For example, parametric models can adapt to external circumstances (e.g. air movement, solar radiation, surrounding objects, spatial conditions, and user interaction patterns etc) and generate real-time feedback through the connected physical devices. In this way architectural models can be created, simulated, and directly informed by this interaction.
Special set of libraries, plug-ins and features for interaction with GC will be created before the workshop. During the workshop these will be used to create installations. The installations will consist of parametric architectural model(s) defined in GC and an external set of hardware components (Arduino, Wii-motes etc, sensors) that ‘capture’ parametric relations in the physical environment. A physical response will be an integral part of the installation. |
|
![]() |
Hugo Mulder is a Senior Engineer with Arup’s Advanced Technology + Research London Group. He graduated from TU Delft in 2003. He has been in Arup since 2002 and was involved in various projects including the European Extremely Large Telescope enclosure design. Hugo's interests include responsive architecture and responsive structures. In SmartGeometry 2009, he developed a system for interactivity between the physical and the virtual worlds. Using an Arduino, a servo, and a camera, he designed GenerativeComponents forms that are responsive to human's physical gestures. |
![]() |
Flora Dilys Salim is a Postdoctoral Research Associate at Spatial Information Architecture Laboratory (SIAL), RMIT University. She holds a PhD in Computer Science. She is now working on a major Australian grant about assimilation of architectural and services design. Her focus in the project is to establish a framework for software interoperability and transdisciplinary information sharing between parametric design and energy analysis software. Her research interests are context-aware systems, conceptual modelling, data mining, and adaptive systems. In SmartGeometry 2009, she developed a mechanism for Nintendo Wii Remote (Wiimote) to interact with parametric forms in GenerativeComponents. She is a lecturer in numerous postgraduate Computer Science courses, teaching distributed computing, database systems and .NET programming. |
![]() |
Przemek Jaworski (pronounced Pshemek Yavorski) is a Computational Designer at Foster+Partners and a member of Specialist Modelling Group since 2006. He graduated from Bartlett, UCL (Adaptive Architecture and Computation Course), and Wroclaw University of Technology (MSc in Architecture and Urban Planning). In the past he was involved in demoscene movement (1995-2000) as a coder and graphic designer, programming 3d real-time effects in C++/OpenGL. His interests include semi-intelligent and self-organizing systems, real-time simulations and physical computing. During SmartGeometry 2009 Master Class he co-developed generative growth system for data visualisation of waste disposal and collection in New York (agent based). His experience encompasses GC, Microstation VBA, Processing, Arduino and Open Frameworks. |
|
The prevalence of digital fabrication technology gives rise to new methods for connecting one element to another. Historically building assemblies have been lead by the available technology from post and peg systems of green oak framing to mass manufactured fixings such as nail plates, bolts and screws of the past 100 or so years. If we take a look at other manufactured goods such as cars or phones there are countless snap on elements that make the assembly quicker and ultimately cheaper – can the same be true of buildings?
The new technology effectively allows us to get rid of intermediate connectors (screws bolts nailplates) by integrating them into the part to be fixed much in the way plastic products use snap fixings and integral hinges. This workshop is an experimental study with the aim of designing, prototyping and refining new concrete shuttering and reinforcement components & connections using lazer and 3 axis cutting. The key aim is to achieve a rapid assembly: snap fit, push on and instant connections that will produce a better and more complex end result but reduced site time. To achieve this we will need to harness the potential of the fabrication technique and the properties of the materials: the spring and sharp edge of the steel and flexibility in the timber etc. |
|
![]() |
Bruce Bell is founder and managing director of FACIT, overseeing all aspects of the company and is actively involved with software manipulation, parametric design, digital fabrication and architectural design, drawing on a broad education and work history. An artist by training Bruce joined Foster and Partners in 1999 providing 3D design development and imaging for key projects such as Albion Riverside and Chesa Futura. After completing Design Products MA at the Royal College of Art he worked with Ron Arad, Arup Associates, artists Olafur Eliasson and Antony Gormley.
From 2004 to 2009 Bruce ran the architectural partnership Willson & Bell before leaving to head up FACIT. |






