Ready to take on new challenges and break into exciting, cutting-edge fields?
Transform your career by positioning yourself at the forefront of innovation in robotics, fabrication, and design-computation.
Join our new one-year Master of Science in Design: Robotics and Autonomous Systems (MSD-RAS) program at the University of Pennsylvania Stuart Weitzman School of Design, the most recent addition to the Architecture Department's series of advanced MSD programs.
The MSD-RAS aims to develop novel approaches to the design, manufacture, use, and life-cycle of architecture through creative engagement with robotics, material systems, and design-computation.
Students will gain skills in advanced forms of robotic fabrication, simulation, and artificial intelligence, in order to develop methods for design that harness production or live adaption as a creative opportunity. Robotically manufactured architectural prototypes (part or whole) will be developed by students and presented and exhibited at the completion of the course.
WHO IS MSD-RAS FOR?
- Students who already hold a first professional degree from an accredited design program in architecture.
- Post-graduate students or those who have completed equivalent programs of study in related professional fields who can demonstrate their ability to complete the required course of study.
- Professionals who have worked for several years and are seeking advanced study and credentials in robotic fabrication and design-computation.
The MSD-RAS program will enable graduates to:
- Gain state of the art robotics, material fabrication, and design-computation qualifications.
- Develop skills in advanced methods of fabrication, computation, robot programming and multi-modal sensing technologies, and their integration within innovative design methods.
- Expand career opportunities and options to work in ambitious and diverse fields.
- Impact the present and future trajectory of architecture through novel forms of production, practice and entrepreneurship.
- Operate at the forefront of industry research and development
Why Robotics in Architecture?
The fourth industrial revolution (Industry 4.0) describes a recent shift towards autonomous systems, and societal reliance on cyber-physical processes that incorporate digital communications and navigation infrastructure, robotic manufacturing, and artificial intelligence. The building industry is currently undergoing transformation through the adoption of robotics technologies such as additive manufacturing systems that enable a reduction in the time, cost and complexity of delivering buildings, and have potential humanitarian and socio-economic benefits. Adoption of these technologies also enables greater automation not only in production but also in design, challenging existing modes of architectural practice. The MSD-RAS program explores avenues for re-situating the role of architectural design within present day autonomous technologies, with the aim of expanding societal and design opportunities by leveraging robotic and material processes within design.
The MSD-RAS program aims to empower graduates to operate at the forefront of industry research and development, by gaining state of the art robotics, material fabrication, and design-computation qualifications, and to graduate as highly skilled professionals, capable of impacting the present and future trajectory of architecture and industry through novel forms of production, practice and entrepreneurship.
Whether you're looking to advance your career, transition to new industries, start your own company, or pioneer an emerging field, the MSD-RAS program offers hands-on experience with ground-breaking technology and world-class qualifications to help you achieve your goals.
The MSD-RAS Program includes the following courses:
- Introduction to 3D Programming
- (2 week course prior to start of Fall Semester)
- ARCH 801 Material Agencies: Robotics & Design Lab I (2 CU)
- ARCH 803 Algorithmic Design & Robotic Fabrication (0.5 CU)
- ARCH 805 Introduction to Cyber-Physical Systems (0.5 CU)
- ARCH 807 RAS Theory (1 CU)
- Designated Elective (Within Architecture + Engineering)
- ARCH 802 Material Agencies: Robotics & Design Lab II (2 CU)
- ARCH 804 Advanced RAS Programming (1 CU)
- ARCH 806 Experimental Matter (1 CU)
- ARCH 808 Scientific Research and Writing (1 CU)
Total Course Units: 10
- Introduction to 3D Programming
- Designated Elective
- ARCH 801 Material Agencies: Robotics & Design Lab I
- ARCH 802 Material Agencies: Robotics & Design Lab II
- ARCH 803 Algorithmic Design & Robotic Fabrication
- ARCH 804 Advanced RAS Programming
- ARCH 805 Introduction to Cyber-Physical Systems
- ARCH 806 Experimental Matter
- ARCH 807 RAS Theory
- ARCH 808 Scientific Research & Writing
An Innovative New Program — What Makes the Weitzman School MSD-RAS Unique?
The MSD-RAS at the Stuart Weitzman School of Design, a global leader in architectural design, offers a unique education in architectural design and robotic fabrication. While other courses might focus on fabrication or computation, the MSD-RAS offers opportunities for hands-on experimentation, design speculation, team-based collaboration, and access to world-leading facilities, with learning supported primarily through project-based work rather than through a written thesis alone.
The program’s emphasis on project-based work provides practical learning opportunities, also supported by technical and theoretical courses that run in parallel and are directly related to design projects, ensuring participants learn how to approach design from multiple creative and technical aspects holistically, while learning how to communicate design-research to industry and academia. As the MSD-RAS operates within the context of a large, Ivy League, research institution, there are also overlapping interests with the departments of mechanical engineering, computation science, material science, biology, and medicine that enable opportunities for interdisciplinary collaboration, or participation in seminal interdisciplinary research and symposia.
The MSD-RAS operates in state-of-the-art facilities, including the newly launched Weitzman School ARI Robotics Lab, and has close ties to the building industry. The program’s STEM status, renowned faculty, and proximity to prospective employers in Philadelphia and New York City also ensure it offers the best industry and employment opportunities for graduates.
Robert Stuart-Smith is an Assistant Professor of Architecture at the University of Pennsylvania, Program Director for the Masters of Science in Design: Robotics and Autonomous Systems degree (MSD-RAS), and an Affiliate Faculty member in Penn Engineering's GRASP Lab. He directs the Autonomous Manufacturing Lab in Penn's Department of Architecture (AML-PENN), and co-directs its sister lab in University College London's Department of Computer Science (AML-UCL). Stuart-Smith's research operates at the intersection of algorithmic design, robotic fabrication, and collective robotic construction — developing an integrated approach to design, manufacturing, and robot behavior through varying degrees of programmed autonomy. Stuart-Smith is P-I for the £1.2mil EPSRC project "Applied Off-site and On-site Collective Multi-Robot Autonomous Building Manufacturing" and Co-I for a £2.9mil EPSRC research project into "Aerial Additive Building Manufacturing", involving collaborations with industry partners including Cemex, Skanska, Mace, Burohappold, Arup, MTC, Ultimaker, Kuka, and others. Stuart-Smith is a co-founder of the experimental research collaborative Kokkugia and architectural practice Robert Stuart-Smith Design. Prior to joining the faculty at Penn in 2017, Stuart-Smith was a Studio Course Master in the AA School’s Design Research Laboratory (2009-17), and held visiting professorships at Washington University, RMIT, University of Innsbruck, amongst others. Stuart-Smith's work has been published in journals including Nature, Science Robotics, AD Architectural Design, and Architecture D’Aujourd’hui. He has lectured and presented in symposia at institutions including AA, Sci-Arc, CCA, MIT, RMIT, Angewandte, Strelka Institute, Tsinghua University, Texas A+M, and others.
Prof. Andrew Saunders has undertaken research into robot sheet metal bending, and 3D scanning of historic buildings; publishing in building technology, mathematics, and architectural journals. He is an Associate Professor of Architecture at Weitzman School of Design and founding principal of Andrew Saunders Architecture + Design, an internationally published, award-winning architecture, design and research practice committed to the tailoring of innovative digital methodologies to provoke novel exchange and reassessment of the broader cultural context. The practice innovates at a number of scales ranging from product design, exhibition design, and residential and large-scale civic and cultural institutional design. His current practice and research interests lie in computational geometry as it relates to aesthetics, emerging technology, fabrication, and performance.
Alicia Nahmad is an architect with a passion for robotics and digital fabrication. As a research-based practising architect, for the last 12 years, she has been engaged with the digitization of building trades and adapting advanced digital design and robotic fabrication methods to incorporate the wisdom and craft of traditional building cultures. Her projects include the construction of award-winning ‘Knit-Candela’ and diverse collaborations with practice and academic institutions such as ZHA CODE , Block research group at ETH, IAAC, ODICO, and more. She holds a PhD from Cardiff University and a MArch from the AADRL. Alicia has developed workflows for human-robot collaboration in the design and construction process that engage with local communities using advanced technologies. Alicia’s work expands across a number of scales, from architectural pavilions to robotic installations and furniture. As an academic and an entrepreneur, Alicia is the founder of The Circular Factory (CF), and MITollbox. Alicia works as an Associate Professor at the University of Calgary SAPL. She also co-directs the Laboratory for Integrative Design. Before joining SAPL, she worked as studio master at the AADRL for 5 years. Previously, Alicia worked developing digital tools for practices like Populous and Zaha Hadid Architects. Her work has been published in numerous conferences and journals an she has lectured internationally on related topics.
Dr. Nathan King is active in industry, practice, academia and policy, and works to create opportunities at their intersection. King is senior industry engagement manager for the Autodesk Technology Centers where he develops applied research within Architecture, Engineering and Construction, and contributes to the development of strategic initiatives related to robotics, automation, and the future of construction. Prior to joining Autodesk, Nathan was a director at MASS Design Group where he collaborated on the development of innovative building technologies, medical devices, and evaluation methods for use in resource-limited settings. Nathan’s work spans the globe with built work in Malawi, Rwanda, Tanzania, Uganda, Haiti, Sweden, Dominican Republic, United States and beyond. Currently, he holds an appointment as National Healthcare Infrastructure Advisor to the Ministry of Health of Zambia where he is working to introduce technology-enhanced construction processes for use in distributed healthcare facilities. With graduate degrees in Architecture and Industrial Design, Nathan earned his Doctor of Design from the Harvard University Graduate School of Design with a focus on automation and robotics in design and construction. Nathan has taught in the foundations and architecture departments at the Rhode Island School of Design, at the Institute for Experimental Architecture at the University of Innsbruck. King is currently a faculty member at Virginia Tech where he is co-director of the Center for Design Research (CDR) and leads design technology and impact design initiatives, lecturer in Architecture at the Harvard University Graduate School of Design on topics relating to automation in design and construction, and Instructor at the University of Pennsylvania Stuart Weitzman School of Design in robotics and autonomous systems in design.
Billie Faircloth is a Partner at KieranTimberlake. She leads a transdisciplinary group of professionals leveraging research, design, and problem-solving processes from fields as diverse as environmental management, chemical physics, materials science, and architecture. She fosters collaboration between disciplines, trades, academies, and industries in order to define a relevant problem-solving boundary for the built environment. Billie oversees the queries and investigations that begin and inform each project at KieranTimberlake. During design, she guides project teams through empirical experiments, prototypes, and analysis. She leads the development of technology that informs high-performance design, including Pointelist™, a wireless sensor network, Tally™, a life-cycle assessment application, and Roast, a post-occupancy survey tool. She is also working on Ideal Choice Homes, an affordable, quick-to-build housing solution for India's emerging middle class. Billie has taught at the University of Pennsylvania School of Design and Harvard University, and has served as Portman Visiting Critic at Georgia Institute of Technology and VELUX Visiting Professor at the Royal Danish Academy of Fine Arts. Prior to joining KieranTimberlake, she was an assistant professor at the University of Texas at Austin School of Architecture, where she instructed research studios exploring applications for conventional and emerging material technologies and conducted seminars on emerging construction and fabrication technologies. Her articles have been published by the Journal of Architectural Education, Princeton Architectural Press, Royal Danish Academy of Fine Arts, and ACADIA. She is the author of Plastics Now: On Architecture's Relationship to a Continuously Emerging Material published by Routledge in 2015, and the recipient of Architectural Record's Women in Architecture Innovator Award in 2017.
Jeffrey Anderson is an educator, architectural designer, and AR/VR software developer. He currently teaches design studios and advanced media seminars in the Graduate Architecture and Urban Design program at Pratt Institute and the Graduate Architecture Program at the University of Pennsylvania. He is also the lead software developer in the Design Lab at Mancini Duffy where he conducts design research and develops architectural visualization tools. His current software development work focuses on creating new forms of physical and virtual collaboration that empower all members of the design process. His research focuses on using technology to create new relationships between users, architecture, and its context through interaction, sensing and feedback, and mixed reality. His forthcoming book The Ecologies of the Building Envelope: A Material History and Theory of Architectural Surfaces (Actar, 2021), written with Alejandro Zaera Polo, analyses how social, political, technological, and economic forces have become embedded within architecture over the last century. His work has been exhibited at Pratt Institute (2019), the Seoul Biennale (2017), Princeton University (2016), the Gwangju Asia Culture Center (2015), the Venice Architecture Biennale (2014, 2012), the Southern California Institute of Architecture (2014), the University of Michigan (2013), and Ohio State University (2013, 2012). He holds a Master of Architecture II from Princeton University, and both a Master of Architecture and a Bachelor of Science in Architecture with Honors and Distinction from the Knowlton School of Architecture at Ohio State University.
Emek Erdolu is a Graduate Instructor and a Ph.D. Candidate in Computational Design at Carnegie Mellon University (CMU) School of Architecture. Situated across architecture, design computation, human-computer interaction, and robotics, his research includes two main strands: one that focuses on building intuitive and interactive computational tools to support architectural practices, research, and education; and another one on the questions of computation, representation, and work within historical and contemporary architectural practices. His Ph.D. research focuses on AI/robotic systems we work with every day. His forthcoming dissertation investigates how building tasks are analyzed and decomposed to inform on-site robotic systems, and how these systems reconfigure the organization of these tasks with new workflows and human-machine interactions they introduce to construction sites, focusing on a selection of historical and contemporary robotics practices in the United States. Part of this research and more have also been co/published in the Proceedings of the ACM on Human-Computer Interaction (PACMHCI) and International Journal of Architectural Computing (IJAC), and presented in venues such as the Society for Social Studies of Science (4S). Previously, Emek was a researcher at the ETH Future Cities Laboratory (FCL), and for seven years in the United States, China, and Southeast Asia, he worked in various architecture, landscape architecture, and urban design projects with AECOM, HMD, Ecoland, and Nomad Studio. He has lectured and taught studios in CMU, Singapore University of Technology and Design (SUTD), National University of Singapore (NUS), and Bilkent University. Aside from MSD-RAS at Weitzman, he currently teaches at CMU’s Master of Science in Computational Design (MSCD) program.
Winka Dubbeldam is a seasoned academic and design leader, serving as Chair and Miller Professor of Architecture at the University of Pennsylvania Stuart Weitzman School of Design, where she has gathered an international network of innovative research and design professionals. Previously, Professor Dubbeldam oversaw the Post-Professional Degree program for 10 years (2003-2013), providing students with innovative design skills, cutting-edge theoretical and technological knowledge, and the analytic, interpretive, and writing skills necessary for a productive and innovative career in the field of architecture. A practicing architect and founder/principal of the New York firm Archi-Tectonics, Dubbeldam is widely known for her award-winning work, recognized as much for its use of hybrid sustainable materials and smart building systems as for its elegance and innovative structures.
Patrick Danahy is an Assistant Research Professor of Architecture and the Design Innovation Fellow at Ball State University and the 2022 distinguished professor of the T4T Lab at Texas A&M, a position formerly held by Casey Rehm, Roland Snooks, Tom Wiscombe, Barry Wark, Gilles Retsin, Nate Hume and other distinguished faculty. He has taught digital workshops in the UCL Bartlett RC20 Skills-Share program, as well as design and technology studios at the University of Pennsylvania as a Part-Time Lecturer for the M.Arch and MSD-RAS programs, and as a Visiting Lecturer for the Landscape Architecture Master's program. His teaching focuses on computation and robotics, integrating architectural reference with contemporary machine learning methods. Danahy holds a B.A. in Architecture from Clemson University, where he received the graduating Faculty award and the Peter Lee and Kenneth Russo Award for Design Excellence. He later graduated from the University of Pennsylvania with a Master’s of Architecture, receiving the Kanter-Tritsch Prize in Energy and Architectural Innovation, the Paul Cret T-Square Fellowship, the Van Alen Traveling Fellowship, the Dales Fellowship, the Kohn Fellowship, the Schenk-Woodman Merit Award and upon graduating was awarded the Arthur Spayd Brooke Memorial Silver Medal. His work has been presented and published at the 2020 Digital Futures Young conference, the 2020 Distributed Proximities ACADIA conference, and the 2022 CAADRIA Post Carbon conference, receiving the award for best presentation runner up with Robert Stuart-Smith.
The MSD-RAS program is taught by some of the Weitzman School’s most inter-disciplinary and internationally-experienced architecture faculty, while drawing on expertise from Penn Engineering and Computer Science departments to contribute expert knowledge in robotics, computer vision, electrical engineering, and more.
Penn’s faculty are actively working on research and practice projects related to the core topics of the MSD-RAS, such as a full-scale precast concrete house prototype in collaboration with Cemex that leverages robot hot-wire cutting for the production of formwork molds, a robot curve-folded sheet-metal installation undertaken in collaboration with Robofold, or an advanced environmentally performative cooling-oculus skylight, fabricated using thermo-adaptive robot sheet metal-forming.
Facilities – The Advanced Research and Innovation Robotics Lab
MSD-RAS students will utilize Penn’s new Advanced Research and Innovation Robotics Lab facility that houses state of the art industrial robots and experienced staff. The new facility includes 2 x ABB IRB4600-60 robots that provides a flexible production space for individual and team-based robot production. Considerable investment in auto-tool changing capabilities enables an extensive range of production activities to be undertaken with minimal set-up time such as robotic milling, additive manufacturing, sheet-metal bending or robot hot-wire cutting. ARI facilities also include other industrial robots, 3d printers, pre and post-production work spaces and equipment for supporting fabrication and robot tooling development. Students in the MSD-RAS will be trained to utilize the ARI industrial robots, and it is expected that a considerable amount of their design-research is developed through robotically fabricated prototypes and the development of robot programs and/or end-effector tools.
Introduction to 3D Programming
This course introduces 3D modelling and scripting within a 3D software package such as Rhino3D/Grasshopper and aims to build a skill set for 3d design, geometry rationalization/analysis, and bespoke automation. These fundamental skills will be utilized throughout the MSD-RAS program to develop and represent ideas and to drive inputs for other robotic and fabrication methods.
Students may enroll in available designated electives within the schools of Architecture and Engineering.
ARCH 801 Material Agencies: Robotics & Design Lab I
The Fall Material Agencies course consists of two half-semester design-fabrication sections, supported by two aligned Core Technical Seminars of half-semester length each. Students will typically work in pairs. Design discourse and subject matter for these sections varies, but is intimately related to a robotic fabrication research such as:
- Example Section: Sculptured Matter investigates the sculptural and manufacturing possibilities of robot hot-wire cutting. An extension of mathematical and artist driven surface production will be explored that leverages robot motion and geometry in order to produce exemplary robotically fabricated works.
- Example Section: Manipulative Matter explores robot manipulation-based manufacture (Eg. Sheet-metal folding) of prototypical building/sculptural parts. Sheet-metal folding requires computational modelling for geometric and fabrication rationalization in order to ensure designs can be realized by manipulating sheet material without it tearing.
- Example Section: Woven Matter aims to unify design and production within one creative process. The course commences with the development of novel programs to control the motion of Penn’s industrial robots for robotic weaving. 3D design models will be developed in parallel to fabrication experiments and digital simulations.
ARCH 802 Material Agencies: Robotics & Design Lab II
The Spring Material Agencies semester-long design course demands a critical and creative response to the role of design within the domain of autonomous manufacturing and Industry 4.0. While the subject matter varies, the course centers on the demonstration of a robotically manufactured prototype that operates as a full-scale part or whole of a design proposal for a building, space, or event. Working in small groups, participants will develop designs for a speculative project-driven scenario explored within computer simulations and other forms of design media in addition to a fabricated prototype. Projects are demonstrated through a comprehensive design-research into material and robotic processes that is supported by ARCH804, ARCH806 and ARCH808 coursework.
ARCH 803 Algorithmic Design & Robotic Fabrication
Supports ARCH 801 Material Agencies I. Topics vary to suit application within the Arch 801 brief. This seminar ties the programming of robot motion to a generative design process, removing conceptual and practical barriers between design conception and project implementation. Computer and robot programming skills will be developed to support both design and robotic fabrication constraints in parallel. Working within a 3d programming environment, participants will aim to program robot production methods that in turn generate design outcomes when deployed in physical processes on Penn’s Industrial Robots. Subject matter and software varies, examples include: Java, Python, Grasshopper, etc.
ARCH 804 Advanced RAS Programming
Extending the knowledge gained in the Fall, this course supports ARCH 802 Material Agencies II with more advanced robot programming and decision-making methods, enabling student’s greater degrees of adaptive control in their engagement with design and production processes. While topics may appear aligned with science and engineering subjects, Arch804 does not engage in development of technologies, rather their strategic application within design, fabrication or end-use scenarios. Topics vary to suit the Arch802 design brief and emerging technologies within industry and academia. Examples include use of machine vision, machine learning, or behavior-based live-adaptation.
ARCH 805 Introduction to Cyber-Physical Systems
Supports ARCH 801 Material Agencies I. This introductory seminar covers the design and assembly of electronic circuits using sensors/actuators and micro-controllers, and their use in closed or open reactive systems. The seminar work is intended to support an Arch801 project prototype to drive additional design affects (Eg. morphology/kinetics, lighting, porosity, translucency, etc). The course explores control, feedback, energy and force in relation to interactions of matter, space and perceived activity (human or non-human), and the embedment of Internet of Things (IOT) technologies to drive additional design agencies.
ARCH 806 Experimental Matter
This course aims to develop knowledge in state of the art materials, material applications and fabrication methods and to contribute research and experimental results towards ARCH 802 Material Agencies II design projects. Operating predominantly through research and controlled physical experiments, students will develop a material strategy for their ARCH 802 Material Agencies II work, investigating scientific research papers, industry publications and precedent projects in order to develop know-how in materials and material applications. A material application method will be proposed and experimented with in order to evaluate its use within a robotic fabrication process.
ARCH 807 RAS Theory
This seminar provides a theoretical context to the program, relating autonomous robotics and fabrication research to architectural discourse, philosophy, science and technology. This course critically assesses present and future societal trajectories in relation to technology, exploring socio-political, ethical and philosophical arguments that concern a broader technological shift that has occurred during the last decade which has given rise to our unquestioned reliance on algorithms within our everyday lives (social media, shopping, navigation), and similar impact from Urban OS’s, Industry 4 and driverless car technologies. A theoretical written statement related to ARCH 801 Material Agencies I Section 1 or 2 will be produced by participants within this core seminar.
ARCH 808 Scientific Research & Writing
This course aims to provide students with knowledge in state-of-the-art robotics and design taking place in the research community and to introduce methods to evaluate and demonstrate academic research that encompasses both creative and technical work. Submissions will include literature review of precedent research and a technical written statement related to ARCH 802,804,806 work. The course will help raise the level of technical and research discourse within the MSD-RAS and train students in a necessary skill required for many potential academic and industry career opportunities.
“The MSD-RAS will be a unique opportunity to learn and combine the most advanced design techniques with the most innovative robotic manufacturing technologies. As professionals of the architecture industry, I consider that the knowledge acquired in this Masters will be crucial to giving us agency in the professional or academic universe of today and tomorrow.” —
Current Master of Architecture Student
Submit your name and email below to learn more and get application reminders.
Admissions + Next Steps
“A Robotics program would be amazing in that it could offer students a chance to participate in projects that have a larger scale in both material and in the final product.
In my experience, working in the ARI Robotics Lab gave me insight into the way that geometry, material and process can be synchronized by designing the methods of production, then testing them with the robot.
In terms of opportunity, I think it brings the possibility of designing and building projects at a scale of 1:1 for Philadelphia communities, for the school, or for research purposes. By far the most interesting to me would be its potential to seed real-world projects for others outside of the school”.
Material Agencies: Robotics & Design Lab I & II involve group projects while the majority of the other courses involve individual submissions. There is ample opportunity to demonstrate individual knowledge whilst benefiting from the empowering capabilities of collaborative group work!
The MSD-RAS involves a 2-Week introductory course and two semesters. The program is full-time and can be completed in approximately 9 months.
The MSD-RAS is a full-time program due to the fact that all course-work is inter-related to project-based assignments.
Yes, the Weitzman School of Design awards scholarships to master’s degree students based on merit. There is no separate application to be considered for our merit scholarships; all applicants are considered for scholarship based on their application for admission.
All MSD-RAS students undertake the same courses with the same professors with the exception of an elective course in the Fall Semester.
The course is a Master of Science in Design in Robotics and Autonomous Systems. It is offered in the University of Pennsylvania Stuart Weitzman School of Design’s Department of Architecture and is a STEM certified course.
The MSD-RAS is both a design and science degree. The MSD-RAS is open to anyone with a degree in architecture, the coursework is focused on design operating through material experimentation and robotically manufactured prototypes, with parallel support and training in computer programming and generative design methods. The Program is both speculative and hands-on! The department also offers Post-Professional degrees in Advanced Architectural Design (MSD-AAD) and in Environmental Building Design (MSD-EBD)
The MSD-RAS is primarily geared towards architectural graduates however, candidates from other fields whose prior experience and future career interests align with the course and who can fulfill the application requirements will be considered. If you believe this applies to you, we strongly encourage you to contact us so that we can help you determine whether your application would be considered.
Participants will gain state of the art knowledge and experience in industrial robot fabrication and programming, design and computer programming skills, material research and application methods, academic writing skills and more.
No, if you are interested, you would need to undertake the MSD-RAS!
The MSD-RAS program has been structured in such a way as to not require applicants to have prior knowledge or experience in computer programming or robotics however, prior knowledge and experience is helpful.
Use of software programs varies with continual updates to the curricula. Where use of a specific software is required, training in the software will be provided. Commonly used software in the fields of design and robotic fabrication include: Rhino3D, Grasshopper, ABB RobotStudio, HAL, Visose Robots, ROS, Arduino, Processing, and others, in addition to Adobe Creative Suite and MS Office. Prior experience in these is helpful but not required.
Programming languages vary with continual updates to the curricula. A MSD-RAS student can expect to be taught and to utilize at least two programming languages from the most common languages in use (python, java, C++, C#). Python is perhaps the most versatile language for daily use at present due to its easy adoption and broad support across many OS and software frameworks. Note that programming is taught for the purposes of the MSD-RAS applications in design and robot programming, and does not provide a comprehensive education into these languages suitable for other purposes such as web or software development. For those not accustomed to writing software, code can be learned by anyone in a short amount of time, and is far simpler than learning a second language.
Yes. While the School has lab facilities, the MSD-RAS requires all students to have their own computer. If you are accepted into the program, we can provide you with minimum computer performance recommendations.
All students will be required to have Microsoft Windows 10 installed on their computer. Some courses may utilize Linux for specific tasks, but no pre-installation is required.