Learning Resources

Abstract: “SMART” built environments usually refer to buildings with embedded technologies that allow them to run as efficiently as possible. Yet for research institutions, that definition should be expanded beyond efficiency to include metrics that are used to quantify research productivity and accomplishments. The expected useful life of the building and individual labs, research dollars generated per square foot, intellectual property generated, and successful recruitment and retainment of researchers are but a few bottom line-oriented measures that colleges and universities use. By embracing the business side of higher education, architects can create even smarter built environments.

In this presentation, we discuss how to identify and select appropriate metrics for institutions that are equally focused on education and research. What objective and subjective measures can be considered? Are these metrics applicable in our new (hopefully) post-COVID reality? How are institutions reallocating space in this new reality? How do we redefine the future of “smart” higher education research facilities?

Abstract: Through design or redesign of conventional structures, the physically and visually handicapped can easily use many conveniences and facilities previously unavailable to them. The authors describe several efforts to enable the handicapped to learn about the physical structures of their community and to move about their environment more freely.

Abstract: This tour will showcase the University of Hawaii’s flagship campus and the unique challenges the university faces with regard to long-term planning, campus redevelopment, and designing in a tropical environment. The tour will then focus on the university’s new Life Sciences Building, which consolidated various departments in aging facilities into new state-of-art teaching and research laboratories. This building was one of the first major design-build projects on campus. We will discuss the challenges that were encountered and how each was solved.

Abstract: The demand for graduates and technicians in the academic fields of science, technology, engineering, and mathematics (STEM) is influencing the design of specialized educational facilities in community colleges. Community colleges are increasingly aligning their academic programs to the specific economic development priorities and projected demand for skilled labor in the geographic regions they serve. It is expected that partnerships with local industry will increasingly shape curriculum development and facilities design. This trend is rapidly developing in California, where community colleges are incorporating sophisticated simulation laboratories, makerspaces, and innovation centers outfitted with advanced infrastructure and equipment, along with spaces that support the full spectrum of competencies required for graduates to succeed in the STEM labor market.

Abstract: This report was produced by the research team awarded the M. Perry Chapman Prize for 2013–2014.

As the recipients of the 2012–2013 Perry Chapman Prize show in their report, Research on Learning Design: Present State, Future Directions, the study of learning spaces in tertiary education is an emerging field in which the key issues are to “establish a body of knowledge that will guide the design, remodel, and use of new and existing learning spaces” and “evaluate these learning spaces by developing research to determine whether and how they fulfill their purposes.”

This report aims to produce complementary work by addressing the larger context of the university campus and students’ perceptions and experiences of their learning at the tertiary level more generally. Rather than starting from environmental psychology or behaviorist models, it explores the value of applying contemporary approaches from the social sciences to learning space design, an approach increasingly being developed. This, however, is not just a matter of applying a different research method; it also concerns the underlying problem of how we conceptualize relationships between material space and its occupation both generally and specifically in relationship to learning. In fact, over the last few years, theorists across many disciplines that deal with material space—such as geography, anthropology, and science and technology studies—have been critically examining precisely this issue of rethinking how to conceptualize the interrelationships between space, people, artifacts, and activities.

Abstract: Interdisciplinary scientific research is the new normal in academia. Campus planning for interdisciplinary research requires special tools and analytics that align the needs of increasingly diverse research environments with existing facilities capabilities and new characterizations of research neighborhoods. To remain relevant within the world-wide scientific community, campuses must free research space planning from traditional boundaries in order to promote collaborative synergies. This session will introduce new analytical assessment tools, organizational principles, and planning strategies supporting interdisciplinary research. Come learn how to create an open-ended, actionable, and living planning document that ensures long-term relevance and viability.

Abstract: With crowded research facilities, limited resources, and a strong need for innovative interdisciplinary teaching space, many institutions feel stuck. Purdue University College of Science's went from stymied to STEM lab in just four years through data-focused master planning and an accelerated design process. We will share lessons learned from Purdue University's college master plan and STEM building that you can use to clarify thinking, focus need, build a case for a new project, and set the stage for future growth.

Abstract: Through cross-disciplinary collaboration, Pennovation Works at the University of Pennsylvania has become a successful place for entrepreneurship in the 21st century. The Philadelphia campus unites research and private venture in a central innovation incubator and generates a diverse community, new economy, and enhanced visibility for its institution. We will reveal our methodology for how institutions can generate new economies, define an innovation campus identity, and utilize brownfields. Come learn how integrated design of collaborative space can inform a non-traditional innovation campus.