Skip to content

Federal Emergency Management Administration (FEMA) (2015).

The criteria presented in this publication address how to design and construct a safe room that provides near-absolute protection for groups of individuals sent to a building or structure expecting it to be capable of providing them life-safety protection from wind, windborne debris, and flooding. This guidance interprets the new International Code Council® (ICC®) ICC/NSSA Standard for the Design and Construction of Storm Shelters [(ICC-500, produced in consensus with the National Storm Shelter Association (NSSA)] design criteria and provides technical design guidance and emergency management considerations to individuals who are looking for “best-practices” that are above minimums in the codes and standards.

http://www.fema.gov/safe-room-resources/fema-p-361-design-and-construction-guidance-community-safe-rooms

Jeong, Ji, Koo, Hong, & Park, 2014

The environmental impacts of a building are determined in the project planning phase, affecting the whole life cycle of the building. Thus, they should be assessed in the project planning phase so as to reduce the whole environment impacts of the building. This study aims to develop a model for predicting the environmental impacts of a building in the project planning phase, focused on educational facilities. This study was conducted in three steps: (i) collection of several information on educational facilities and cluster formation using the decision tree; (ii) development of the prediction model using the advanced case-based reasoning; and (iii) evaluation of the environmental impacts of educational facilities with six categories. The proposed model was verified compared to the actual data. The error rate for the resource depletion potential was determined to be at 14.14%; global warming potential, 6.80%; ozone-layer depletion potential, 27.29%; acidification potential, 12.94%; eutrophication potential, 18.73%; and photochemical oxidation potential, 43.23%. Due to the limitations of the available information in the project planning phase, it was shown that some impact categories might be estimated with relatively lower accuracy. The proposed model allows an architect or a facility manager to easily and accurately estimate the environmental impacts of the educational facilities. It could also be useful for establishing a national environmental policy such as a carbon emissions reduction target. In addition, it could be extended to any other building type or country in the global environment.

View Article

Sjöblom, Mälkki, Sandström, & Lonkam, 2016

The role of motivation and emotions in learning has been extensively studied in recent years; however, research on the role of the physical environment still remains scarce. This study examined the role of the physical environment in the learning process from the perspective of basic psychological needs. Although self-determination theory stresses the role of the social and cultural environment, as yet the role of the physical environment has been unexplored. The study focused on beginning chemistry university students’ (n=21) experiences in a chemistry laboratory. The data consisted of focus-group interviews and self-report questionnaires. The results indicate that the physical environment can support or thwart the fulfillment of the basic psychological needs. The usability and functionality of spaces and tools contributed to not just the fluency of the intellectual activity but also to the related emotional experience of oneself acting in a particular environment. The physical environment was a source of procedural facilitation: It complemented and challenged the students’ existing skills, contributing to their experiences of autonomy and competence. The everyday successes or struggles in the laboratory built on the students’ developing professional identity as well as their sense of belonging to the professional community. This study demonstrates that the design and functionality of the physical environment has a significant role in users’ intellectual and emotional functioning. It is essential to utilize psychological and pedagogical knowledge when designing or renovating work and learning environments in order to fully make use of the potential of physical environments as part of human performance. 

View Article

American School and University, 2016

Campus safety is a perennial concern for schools and universities, yet addressing campus safety is unique to each institution. Every campus faces its own set of safety challenges. A community college with a commuter enrollment often has expansive parking lots that require monitoring during regular class hours, for example, while a four-year residential college with diverse housing options will require 24/7 security measures.

View Article

School Planning and Management, 2016

When we say a building has good bones, our thoughts rarely turn toward green design. Yet the issue of a building’s longevity is directly tied to its sustainability. The longer a school lasts — both through physical durability and functionality relevance — the fewer resources we must consume via new construction. During planning and design, there are many strategies owners and architects can apply to increase the life of a building.

View Article

By Angel Ford, Ed.D.

A key component of motivation, especially intrinsic motivation, is autonomy (Deci & Ryan, 1985).  Autonomy can be defined as “the ability to think, feel, and make decisions by oneself” (Nunez & Leon, 2015, p. 277).  Evidence shows that autonomy supportive environments that take into account a person’s perspective, allow for choices and exploration, encourage self initiation, and provide rationale for activities are more motivating (Deci, 2012).  Autonomy supportive environments encourage “inner motivational resources” (Nunez & Leon, 2015, p. 277) and creativity (Deci, 2012).

I propose that the physical conditions of classrooms either enhance or restrict the sense teachers have about the autonomy support they receive and the autonomy support they can provide their students.  The condition, design, and layout of classrooms affect teachers’ presentation of materials through allowing for or limiting choices of pedagogy, curriculum design, and usable learning techniques.  Teachers with limited ability to choose how to present material because of physical restrictions within the learning spaces may feel a lack of autonomy support.  It is important that teachers feel support for autonomy because when they do “their students learn in a deeper, more conceptual way.  The students enjoy learning more and they feel more confident and competent about themselves” (Deci, 2012).

Classroom conditions also enhance or limit teachers’ abilities to provide autonomy support to their students.  If teachers don’t have the physical spaces necessary to make choices about how they will teach subjects, they will be unable to pass along choices to their students for engaged self-directed learning.  If we want to promote autonomy and internal motivation among both teachers and students, it may be critical to provide the spaces and resources necessary to allow for more movement and options for different teaching and learning styles.

A teacher may desire to present a unit on geography by using group work and/or project-based learning.  In an ideal situation, the teacher would be able to give students choices about how to research and prepare presentations, i.e. options to use the library, Internet, or resources gleaned from home to create posters, video presentations, or displays of other forms.  This teacher may be unable to offer these options to the students due to a temporarily closed library (because it is being used as a classroom) or the fact that the school’s technology infrastructure does not facilitate video or digital presentations.  This limits the teacher’s choices and the choices offered to the students.  This could be compared to telling a mechanic to fix a car, but not giving her a garage to work in or the tools to complete the repair.

In this hypothetical example, the physical condition of the school discouraged autonomy support.  If these conditions are temporary or only happen infrequently, the valuable lesson of flexibility can be enhanced for both teachers and students as they work around an obstacle.  Unfortunately, that is not the case in many schools around our nation.  In many schools, teachers’ choices are limited each and every day and thus the choices offered to the students are also limited, creating atmospheres that are not as autonomy supportive and motivating as they could be for students.  Deci (2012) suggests that it is more important to create conditions where people can motivate themselves than it is to ask how to motivate them.  He then goes on to say an environment with such conditions is autonomy supportive.

I’m not suggesting that the magic ingredient to make all teachers autonomy supportive is to drop them into the perfectly designed classroom, but I am stating that the physical environment in which they teach has an impact on the level of support they feel for their own autonomy and the level they are able to employ for their students.  The restrictions on teachers’ autonomy in instructional design may be a damaging consequence of poor school conditions or design.  It is not only frustrating, but also a direct deterrent on how teachers can create an environment of autonomy support for learning.

References:

Deci, E. (2012, August, 13). Promoting Motivation, Health and Excellence: Ed Deci at TEDxFlourCity.  Retrieved from https://www.youtube.com/watch?v=VGrcets0E6I

Deci, E. & Ryan, R. (1985). Intrinsic motivation and self-determination in human behavior. New York: Pantheon.

Núñez, J. L., & León, J. (2015). Autonomy Support in the Classroom. European Psychologist.

Rogat, T. K., Witham, S. A., & Chinn, C. A. (2014). Teachers’ autonomy relevant practices within an inquiry-based science curricular context: Extending the range of academically significant autonomy supportive practices. Teachers College Record, 116(7).

Roth, G., & Weinstock, M. (2013). Teachers’ epistemological beliefs as an antecedent of autonomy-supportive teaching. Motivation and Emotion, 37(3), 402-412.

Dr. Angel Ford is a research associate with Education Facilities Clearinghouse (EFC).  Dr. Ford has previous experience working as a middle/high school administrator and actively participates in research and content management of the EFC website.

21st Century School Fund, National Council on School Facilities & U.S. Green Building Council, 2016

School facilities have a direct impact on student learning, student and staff health, and school finances. But too many students attend school facilities that fall short of providing 21st century learning environments because essential maintenance and capital improvements are underfunded. In 2016’s State of Our Schools report, we compile and analyze the best available school district data about U.S. K–12 public school facilities funding. In fact, the report projects that going forward our nation will under-invest in school buildings by $46 billion annually.

View Report

ENVIRONMENTAL LAW INSTITUTE, January 2016.

Energy efficiency continues to be an important component of federal, state, and local efforts to reduce greenhouse gas emissions. School facility upgrades that increase energy efficiency can help school districts advance their educational mission by reducing energy and other operating costs. Facility upgrades that protect and improve indoor air quality (IAQ) also support the core mission of schools by promoting staff and student health, productivity, and attendance. There is now broad recognition that it is possible to achieve both energy efficiency and indoor air quality goals as part of a school retrofit project. When undertaking energy efficiency and other facility upgrades, early consideration of IAQ issues can help schools avoid unintended, negative consequences and reap the twin benefits of energy savings and a healthier, more productive school environment.

State laws, regulations, and guidance can facilitate the integration of IAQ and energy efficiency goals. This report discusses three areas of potential policy development: state funding for school facility upgrades, energy savings performance contracting, and regulation of indoor pollutants during renovation. While these are not the only policy areas ripe for consideration, the examples described throughout the report reflect a variety of strategies for maximizing the health benefits of energy retrofits and other school facility upgrades.

View report