seminar: Design in the Age of Metaverse and Extended Reality

ARCH 7036-004 / ARCH5051.Elective Arch Theory Seminar.  Spring semester. DAAP, UC.
Design in the Age of Metaverse and Extended Reality

Instructor: Ming Tang.  Director, Extended Reality Lab. XR-Lab, Associate Professor, SAID, DAAP, University of Cincinnati

 

This seminar course focuses on the intersection of architecture design, and interior design with immersive visualization technologies, including Virtual Reality, Augmented Reality, Digital Twin, social VR, and real-time simulation. The class will explore the new spatial experience in the virtual realm and analyze human perceptions through hand-tracking, body-tracking, haptic simulation, and various sensory inputs. Students will learn both the theoretical framework and hands-on skills on XR development. The course will provide students exposure to the Oculus Quest, Teslasuit, Hololens technologies, and wearable sensors. Students are encouraged to propose their own or group research on the subject of future design with XR.

Hardware: Oculus Quest, and Hololens were provided by the course.

Student Research Project

Digital Twin

AR for community engagement. Price Hill

 

References:

Recommended podcast on Metaverse

 

 

Book Chapter

Ming Tang wrote a section titled “Design and Development for Virtual Reality-based Driving Simulation” for Chapter 1 of the book Disruptive Emerging Transportation Technologies. Edited by Heng Wei, Yinhai Wang, and Jianming Ma. Published by American Society of Civil Engineers (ASCE).  2022

Disruptive Emerging Transportation Technologies provides forward-looking overview of the relevant 4IR technologies and their potential impacts on the future disruptive emerging transportation. It is a valuable reference for relevant educators to re-imagine their roles, redesign their curricula, and adopt very different pedagogical strategies to address this inevitability, particularly when they are introducing emerging technologies into transportation planning and development, infrastructure design, and traffic management.

Topics include

4IR technologies impacting the future of transportation such as artificial intelligence, machine learning, edge computing, fog computing, cloud computing, fifth generation innovative communications technology, virtual reality, and the Internet of Things (IoT);
Surface transportation automation including connected vehicle (CV) and autonomous vehicle (AV) technologies, as well as other automation-based vehicles;
Testing methods and technologies for autonomous vehicles;
Emerging mobility services such as automated delivery and logistics, mobility as a service (MaaS), and mobility on demand (MOD);
Shared sustainable mobility such as shared bicycle services, shared vehicle services, and first mile/last mile solutions;
Cooperative and automated traffic control including self-organized intelligent adaptive control, eco-control and eco-ramp metering, and integrated ramp and corridor control; and
Major unmanned aerial vehicle (UAV) technologies and their possible impacts on the future of transportation.

NSF: Work Well

Ming Tang worked as co-Investigator on the project funded by the NSF Grant. 

Future of Work: Understanding the interrelationships between humans and technology to improve the quality of work-life in smart buildings.

Grant: #SES-2026594 PI:  David W. Wendell. co-PIs: Harfmann, Anton; Fry, Michael; Rebola, Claudia; co-Is: Pravin Bhiwapurkar, Ann Black, Annulla Linders, Tamara Lorenz, Nabil Nassif, John Seibert, Ming Tang, Nicholas Williams, and Danny T.Y. Wu.  01-01-2021 -12-31-2021 National Science Foundation $149,720. Awarded Level: Federal 

The objective of this proposed planning project is to mobilize a multidisciplinary team of researchers to develop the methodology for collecting, analyzing, and correlating existing discipline-specific research and data about buildings and the workers in them in search of interactions that have not yet been uncovered. Specifically, we will explore the interrelationships among 1) overall building performance, 2) indoor and outdoor environmental conditions, 3) physical health, and 4) satisfaction with the work environment.

Ming Tang worked on the Digital Twin model to assemble multiple historic sensor data sets into an interactive 3D model.

See more details on the Digital Twin workflow.

 

Augmented Craftmanship @CAADRIA

Project “Augmented Craftmanship: assessing augmented reality for design-build education” is exhibited in the 2022 CAADRIA conference project exhibition.

Tang, M. Augmented Craftmanship: assessing augmented reality for design-build education. 27th International Conference of the Association for Computer-Aided Architectural Design Research in Asia (CAADRIA). Sydney, Australia. April. 2022

Augmented Reality (AR) has been used in Architecture, Engineering, and Construction (AEC) industry by offering digital overlays on top of the physical world. AR includes two categories of devices. The first is the head-mounted displays and glasses such as Hololens or Magic Leap. The second is hand-held devices such as mobile phones and tablets. AR brings virtual objects and data into the physical world rather than immersing the wearer in wholly virtual reality. For instance, Hololens actively maps the physical space in three dimensions using several types of cameras on the visor and uses this data to place virtual objects realistically within. Holographic virtual objects are superimposed within physical space using light reflected off a transparent lens into the eyes. Thus, the non-physical hologram cannot obscure the physical world, but they can be interacted with.

Over the past few years, AR has been used in the AEC industry for project planning and management, workforce training, BIM integration, and construction site inspection. The AR technology is becoming an ‘ultimate display’ that will allow us to explore, discover, evaluate, and improve our design. (Tang, 2018)  [1]  This research focuses on assessing Microsoft HoloLens AR for design-build education, specifically using AR to assist the physical model making. Students were empowered to consider using AR to help various responsibilities architects, engineers, and builders provided in practice. This pedagogical method actively questions where the “translation between immaterial and material can be learned from both architects and builders.” (Tang, 2021) [2]

We taught how to use AR to enhance both small-scale and full-scale architecture installations through several design-build courses. With the emergence of digital modeling and fabrication technologies, a growing obsession with digital formalism is more evident in the new generation of students. This tech-heavy process often results in increasing complexity of 3D form.  However, digital technology is usually being harvested as a tool to create unique formal complexities but has little ground in the traditional build process. Renzo Piano adds that “An architect must be a craftsman… someone who does not separate the work of the mind from the work of the hand” (Piano 1992). [3] “Craft” is associated with materials and tools and is traditionally understood as making with physical materials.  We define and explore the nature of craftsmanship or builders’ role in today’s digital, analog or hybrid environments, including AR technology.

The team has implemented the AR through Fologram App in Hololens and Grasshopper-driven UI. The AR interface allows image tagging and hand gestures to interact with the virtual objects. The focus is on whether the AR can help the designer achieve accuracy during the “making” process. The team experimented with installations that investigated AR to assist the small-scale and full-scale construction processes.  Joint, material, and new assembly methods were examined while utilizing Microsoft HoloLens.  Precedent research was conducted to compare and understand relations between hologram and other mobile-phone-based AR methods to gauge their impact on the AEC industry.

Large Scale project. AR for project planning and management

In this project, several full-scale wood frame installations were constructed without AR. The AR model is used for students to test veracious “decorating” schemes using various materials and assembling methods. The AR model provided an onsite visualization for the designers to evaluate how their proposed add-ons will affect the spatial experience. Then the selected proposal is fabricated and installed. AR helped to pinpoint the joint position during construction.

The following three small-scale projects experimented with AR to augment the build process. “We must not separate the work of the mind from the work of the hand.” (Tang, 2016) [4]. Specifically, the following projects are trying to find a new augmented build process essential for architecture students and construction workers in the AEC industry.

AR for assembling work

AR is used to augment the “assembling” process in this project. AR provides visuals for a complex spatial frame structure. The 3D coordination of each frame is rendered in Hololens. Students use a hot-glue gun to weld all the frames following the holographic reference.

AR for cutting work

In this project, an image tag is attached to a hot-wire foam cutter to provide real-time anchoring for Hololens. A cutting guideline is provided through AR to the sculptor to control the angle of each cut. A digital sculpture is rendered in Hololens to provide sections and the normal direction of each surface.

AR for marking work

The installation includes hundreds of wool threads stretched in 3D space in this project. The challenge for students is to paint black ink to cover a section of every single thread. The goal is to create an optical illusion of a continuous 3D surface. A 3D holographic surface is rendered in Hololens to provide the anchor points for black ink for every thread. Students then painted the yarns with accuracy rapidly.

Conclusion

If there is a line between the physical world and the virtual world, that line has been blurred today with the emergence of AR. Perhaps, as David Pye suggested that the “workmanship of certainty” is an automated process where the result is predetermined before a single salable thing is made (Pye 1995). [5]. These AR approaches demonstrated the convergence of digital and analog methodologies influenced by these new build strategies. The new approach of the design-build process received much positive feedback from students. It would be a challenging task if we did not have AR-based 3D anchors, spatial mapping, and holographic overlay methods. However, these processes need a comprehensive understanding of the new build process and a customized UI to facilitate, requiring architects, builders, and AR developers to work as a team.

Credit:

Hololens for Design-Build, University of Cincinnati.
Students: Alexandra Cole, Morgan Heald, Andrew Pederson,Lauren Venesy,Daniel Anderi, Collin Cooper, Nicholas Dorsey, ,John Garrison, Gabriel Juriga, Isaac Keller, Tyler Kennedy, Nikki Klein, Brandon Kroger, Kelsey Kryspin, Laura Lenarduzzi, Shelby Leshnak, Lauren Meister,De’Sean Morris, Robert Peebles, Yiying Qiu, Jordan Sauer, Jens Slagter, Chad Summe, David Torres, Samuel Williamson, Dongrui Zhu, Todd Funkhouser.
Project team lead: Jordan Sauer, Yiying Qiu, Robert Peebles,David Torres.

Installation. SAID, DAAP, University of Cincinnati
Base structure by 1st year SAID, students.
Add-on structure + Augmented Reality by ARCH3014 students.

GA: Robert Peebles, Lauren Meister, Damario Walker-Brown, Jordan Sauer, DanielAnderi. Faculty: Ming Tang

Check more Ming Tang’s AR projects.

Reference

[1] Tang, M. Architectural visualization in the age of mixed reality. Journal inForma. 11. Autumn 2018.

[2] Tang, M. Hu, Y., Hamaker, W., Mitchell, E. Architectural Interventions. Design-build collaboration on a global scale. UC Press. 2021. ISBN: 978-1-947603-14-1

[3]Piano, Renzo. Renzo Piano Building Workshop: in Search of a Balance. Tokyo: Process Architecture, 1992.

[4]Tang, M., Jordan, T. Digital Craft: New Mix of Process, Tools, and Material.Blur: d3:dialog, international journal of architecture + design. published by d3. 06. 2016

[5]. Pye, David. The nature and art of workmanship. 2nd ed. München: Herbert, 1995.

Design Build in China

Ming Tang, Yingdong Hu advised a group of BJTU students to participate in the “Xinzhaiping” Rural Design-Build Competition in China in 2021

BJTU Students: Bingxu Gao, Zhu Chen, Xiangyu Zhou, Haolong Guo.

Advisors: Yingdong Hu (BJTU), Ming Tang (UC)

Location: Hunan Province, China.

More info on the competition “2021乡见新寨坪·乡村建造大赛”

Award:

The build project won second place in the Rural Design Build competition 2021.

The build project also won the excellent award of the 19th 2021 Asian Design Awad.