Learning Resources

Abstract: King’s College, Cambridge required new postgraduate housing to support its growth plans. The design team collaborated closely with college stakeholders, including the prospective residents, to research all aspects of the proposals—brief, spaces, structure, and services—early in the process. That research provided a comparison of environmental methods that ranged from a regulatory baseline to a certified Passivhaus approach. The holistic “fabric-first” standard delivers highly efficient, low-energy buildings with high-quality construction and occupant comfort. The metrics fed into a cost-benefit analysis of capital cost vis-a-vis energy reduction to determine the long-term value of each approach.

Abstract: Planning processes must be versatile and nimble to accommodate changing priorities. This session will show how a design team developed a flexible data visualization tool that allows Dartmouth University to play out scenarios as priorities change over time. As Dartmouth renews its plans, we'll provide a comprehensive look at how the team considered parity, distribution, and student wellness in a three-part planning effort. Discover how you can apply our data visualization tool to describe complex variables to stakeholders, as well as use scenario planning to align cost, student experience, and institutional goals over the course of your plan's realization.

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: Planning processes must be versatile and nimble to accommodate changing priorities. This session will show how a design team developed a flexible data visualization tool that allows Dartmouth University to play out scenarios as priorities change over time. As Dartmouth renews its plans, we'll provide a comprehensive look at how the team considered parity, distribution, and student wellness in a three-part planning effort. Discover how you can apply our data visualization tool to describe complex variables to stakeholders, as well as use scenario planning to align cost, student experience, and institutional goals over the course of your plan's realization.

Abstract: Universities must decide what to do with their high-rise residence halls that don't meet modern standards for energy efficiency and student expectations. Renovation often proves to be the best solution for a variety of reasons. At Boston University (BU), what started as a building systems upgrade evolved into a major renovation, which elevated the student experience, social and emotional wellbeing, and campus decarbonization goals. Using BU's Warren Towers as a model of decision making, this session will help you work through the possibilities of a major renovation on your campus with the aim of meeting student wellbeing and decarbonization objectives.

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: Campus housing is foundational for student retention and academic success, yet it's often beyond the means of many students. To address the growing crisis of student homelessness, the University of California, Los Angeles (UCLA) developed an affordable, co-housing model that changes the conversation around equity and diversity. In this session, we'll explore the unique programmatic elements necessary for developing an equitable campus community. This case study will introduce a new model for vertically integrated co-housing solutions that you can apply on your campus when planning affordable housing projects that enhance student life and learning.

Abstract: Integrated planning in higher education requires a broad set of skills, knowledge, and qualities. Some of these might seem obvious (like planning knowledge). Others may be less so—particularly expertise related to “soft” skills or human skills, like communication or collaboration.

Build capacity for integrated planning more efficiently with SCUP’s Integrated Planning Competencies. This framework identifies the knowledge, skills, and dispositions necessary for successful integrated planning across the institution. We will provide an overview of the competencies, describe how they were developed, and share insights from competency research.

Whatever planning activities you’re involved in—whether you’re responsible for planning across your institution, coordinating your institution’s next strategic plan, implementing your campus master plan, working within your department to improve student success, etc.—an integrated planning approach is key. Join us and demystify the skills, knowledge, and dispositions you need to get there.