Learning Resources

Abstract: Southern New Hampshire University (SNHU) started an engineering program when they purchased Daniel Webster College and inherited a strong aeronautics program, students, and faculty looking for a new educational home. SNHU, well-known for online education programs, continues to develop its traditional campus through its new College of Engineering, Technology and Aeronautics, which they planned to accommodate multiple modalities reflecting 2019 and beyond as well as exemplify academic rigor. We will demonstrate how SNHU benchmarked engineering schools, helping SNHU envision their idea for a new school and identify state-of-the-art learning environments.

Abstract: In this session, we will discuss a process that any campus can use for creating a place for students to generate ideas and solve problems such as researching needs, crafting vision, planning spaces and services, piloting programs, and designing spaces. You will learn how to identify student needs; make a case for purposeful programming, services, and space that support innovation and problem-solving; and possess greater comfort with risk-taking and ambiguity as well as deliver mission-critical activities.

Abstract: Pedagogies, study needs, and socialization habits are changing as student bodies become more diverse. Planners and architects must respond with new, more responsive spaces to create successful facilities. In this session, we will focus on both in-depth and high-level overviews of four new projects and how they specifically address STEM students' evolving space needs, including needs particular to first-generation and underrepresented minority students. Find out what's working at Amherst College’s newly opened Science Center and discover innovative designs for types and configurations of learning spaces at several new undergraduate STEM facilities.

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: College campus landscapes are touted as symbols of “greenness,” displaying trees, vegetation, and flowering bushes for aesthetic appeal. Features such as a lawn to sit on between classes or a tree to gather under for course sessions may collectively and purposefully enhance student capacity for cognitive functioning and information processing or, simply, “learning.” In a place of learning where virtual environments and campus landscapes coexist, attention is an essential element of perceptual and cognitive operations. A key goal of the study described in this article is to better understand how to leverage regular and purposeful interactions with campus landscapes to help restore student attentional capacity for learning.

Abstract: Over the last decade, many academic institutions, from elementary schools to universities, have added academic makerspaces to their campuses. This development has enabled students and faculty to come together and collaborate, design, fabricate, and learn in shared spaces. This article describes how the creation and incorporation of academic makerspaces in a university learning ecosystem can help achieve accreditation. Specific examples are drawn from ABET’s engineering accreditation criteria. The article also explores how academic makerspaces can enhance teaching objectives and student outcomes by providing a space for learning technological skills within social contexts in interdisciplinary communities of practice.

Abstract: A critical concern of universities today is ensuring that students remain in their selected major and graduate promptly. In addition, there has been a renewed emphasis on scientific education presented to non-science majors. Through the renovation of the Ritenour Building, Penn State’s Eberly College of Science created an Academic Support Center as a hub of advising and assistance for prospective students, science majors, and science education. The center’s layout provides opportunities to share knowledge of science teaching with advising staff and the online learning department. The design of this space has been crafted to enhance these retention and educational goals.

Abstract: How can buildings be both flexible and concrete? It’s a contradiction in terms and a huge challenge facing university planners and facility managers as they try to keep up with rapid changes in technology, curriculum, teaching techniques, and student demographics. This article explores some of these trends in education and how construction techniques are evolving to meet the need for reconfigurable spaces.

Abstract: Do you have facility needs, like the need for more/improved space for instruction or infrastructure upgrades? Is it time to address deferred maintenance issues? Do you have reservations about venturing into unfamiliar territory? You’ll have to wrestle with some vexing matters—plan alternatives, big budgets, illusive funding sources, and an uninformed public.
Your concerns are valid. With a rich background as architectural firm principal and later as a community college project manager, the author has been through the drill. This article’s thoughtful advice details a project’s first phases—from initial concepts to developed projects with funding. It will head you toward success by helping to avoid the pitfalls.

Abstract: Makerspaces designed for collaborative learning are appearing on campuses throughout the United States, including at Drexel University. These spaces succeed because they permit students to collaborate, observe, and learn from professors and peers. Unique to the Drexel project is the intermingling of engineering undergraduates, graduate students, post-docs, faculty, and commercial interests in one facility with laboratories, machine-shop equipment, and informal study areas. Facilities that give students great visibility into nearby research, contain areas where they can take breaks without leaving the building, and lend themselves to informal encounters with peers, faculty, and others result in better academic experiences for undergraduates.