Learning Resources

Abstract: Science and engineering programs continue to grow and attract funding. Strategic planning can maximize new and repurposed space for STEM programs to address aging infrastructure, changing research, evolving student needs, and an uncertain future. To build stakeholder consensus and develop an achievable plan, we'll define key metrics behind the best use of existing space and showcase how specific data-driven tools and analytics transform traditional planning into a living masterplan. By applying a living masterplan and embracing data-driven tools, you'll be able to reach stakeholder consensus sooner and develop more efficient plans that are both implementable and adaptable to future changes.

Abstract: Many institutions have legacy STEM facilities that no longer support their teaching, research, and sustainability goals. The University of Virginia's (UVA) Gilmer Hall and Chemistry Building project provides valuable insight into planning and operating a major renovation for STEM disciplines. This project has strategically repositioned UVA's main science buildings for better outcomes in teaching, research, and high-performance sustainability. Come learn how to balance cost, function, aesthetics, and sustainability in developing the most effective planning and design solutions for major STEM renovations, as well as actively manage these facilities to fully leverage their new capabilities.

Abstract: With campus space at a premium and industry investment on the rise, institutions are developing flexible research facilities beyond their core campus to accommodate evolving technology. The key to maximizing these spaces lies in integrated planning and design. This session is an exploration of the planning process behind Carnegie Mellon University's (CMU) new Robotics Innovation Center (CMU-RIC), an ambitious off-campus facility that includes aerial, aquatic, and outdoor robotics testing spaces. We'll investigate how a collaborative planning and design process aligned diverse stakeholder interests and identified core priorities in the development of a highly-adaptable research facility.

Abstract: Campus science and tech buildings are crucial for research, hands-on learning, and development of a skilled STEM workforce. Institutions, and small colleges in particular, must leverage these campus resources to stay competitive while facing the impact of birth rate drops. This session will explore creative solutions for bringing state-of-the-art science and technology environments to your college campus in the race to recruit and prepare students for careers in a technology-driven society. Join us to learn how other mid-sized, regional colleges have solved the problem of creating consensus, space programming, and the institution's role in delivering successful, modern STEM learning environments.

Abstract: Portland State University's (PSU) integrated planning process involved multiple departments, coalesced institutional and strategic goals, bolstered educational and industry ties, and focused on diversity to dismantle barriers within STEM disciplines. PSU pioneered a planning and design process for its new science building that amplified underrepresented voices to diversify the STEM workforce, dramatically shifting design outcomes and student pathways. This session will address how institutions can prioritize broad engagement in planning, and how foregrounding input from underrepresented groups can alter preconceptions and reveal the challenges that exist in institutional operational norms that inhibit student success.

Abstract: Community colleges provide equitable access to higher education and pathways to sustainable careers. This session will show how Laurel Ridge Community College (LRCC) secured its role in the regional economy by aligning programs with community priorities and mapping students’ career pathways to inform facilities planning. Collaboration with industry and the community enabled LRCC to plan for expansion, relevant programs, and advanced facilities for science, technology, engineering, math, and health sciences (STEM-H). Join us to find out how an engaging, user-focused academic building can leverage both flexibility and specialization to support student success and attract partners.

Abstract: Rapidly changing users and technology paired with long project timelines requires institutions to think ahead and implement innovative strategies for creating new, high-end engineering facilities. Campus facilities must be nimble and ready to support multiple types of students. At the forefront of the AI technology revolution, George Mason University is undertaking large construction projects to serve a spectrum of undergraduate, masters, and doctoral students and create ecosystems of academic, industry, government, and community users. We’ll share planning strategies for AI technology learning spaces, practical solutions for designing future-focused facilities, and ways of promoting collaboration and connection across multiple communities.

Abstract: “Will innovative environments like a smart building expand STEM education and reach more underrepresented groups? If technology can support remote work, then why haven’t the previous proofs of concept become fully adopted?” The author pursued these questions through her SCUP Fellows research, exploring the hypothesis that user-centered design would better address STEM student needs and could increase the likelihood of a broader adoption of remote labs. Although the COVID-19 pandemic required a hard pivot in her research plan, she was able to leverage the world's new focus on remote activities and work with students to design a prototype mobile application for a digital, interactive twin of a STEM building on campus.