Recently, I presented at the Tradeline Conference in Austin alongside University of Virginia Assistant Campus Planner, Elisa Langille. Themed: “University Facilities for the Sciences and Advanced Technologies,” Tradeline focuses on highly technical facilities for corporate, university, and government campuses. Topics span engineering, health sciences, robotics, artificial intelligence, data sciences, biological and physical sciences, maker spaces, and innovation hubs. These conferences are intimate in scale and feature deep-dive presentations from institutional representatives and sessions from owner-consultant teams.
Conferences of this nature are great opportunities to catch up with clients, share expertise, and stay apprised on the challenges facing institutions. Our presentation, “Translating data and strategic vision into a physical space plan for engineering and applied sciences,” focused on the Integrated Space Plan for UVA Engineering. Together, we demonstrated a process for incremental, strategic renovations that unleash the academic potential of underutilized and outdated buildings; we detailed the shakeup of traditional departmental structures, and illustrated UVA’s road map to align the School’s academic plan and strategic goals with its existing space inventory; and we demonstrated large-scale building opportunities to satisfy goals and provide adequate space to create pedagogical change within UVA Engineering. The concept of “engineering on display” remains a popular driver, but accomplishing it is difficult. We were happy to share the lessons of this great project — a fantastic project team, an excited client, and a powerful story is a great combination.
Beyond our presentation, the Tradeline Conference, as a whole, offered an incredible learning experience from other sessions and through casual conversations. Some of our key takeaways include the importance of developing guiding principles to inform priorities and decision-making. Goals such as flexibility, diversity, adaptability, and connectivity, are particularly important, as learning spaces translate those qualities into the built environment. STEM education remains a priority, but we are now seeing an increasing number of institutions seeking to integrate the arts and sciences into engineering. As interdisciplinary education becomes more widespread, this ensures ethics is part of the STEM curriculum.
Other new concepts include further evolution of active learning environments featuring open, flexible spaces to accommodate a variety of uses such as a math cave or interprofessional education (IPE) simulation and the fusion of physical, digital, and biology technologies.
Good design creates purposeful interaction, and collaboration and engagement makes it possible. Given the importance of data in decision making, visualization and accessibility of data are key pieces to the puzzle in today’s world. We are happy to be on the forefront of this and eager to learn more and help shape the future.