Brain-Compatible Learning Environments




Brain-Compatible Learning Environments
Lisa Barfield-McCarty
PSY370: Learning and the Brain

October 22, 2011







Brain-Compatible Learning Environments

            Today’s science provides a great deal of research and support for the interconnectivity of individual learning, diversity of mind, environmental stimuli, cooperative group interplay, and ability to reach students through a variety of emotionally relevant and psychologically engaging forms of instruction. Much of this science is related to how the brain receives, organizes, and recalls information as well as identifying which external processes are responsible for new brain cells and connections being formed.  Some of this science focuses solely on behavioral results and academic improvements brought on by certain changes in learning environments and teaching strategies. What is largely being learned and understood through this research is that the human learning potential is far greater when consideration is placed on certain environmental factors, sensory stimuli, and individuality of students. This potential for better learning and advancement per student is emphasized through loosening the reins on freedom of exploration and expression within the learning environment. Students need time to think, to feel, to consider, to discuss, and to reach alternate conclusions in order to walk away with true knowledge and the competency to reach higher levels of understanding. For this reason, many of the standard prescribed models for education have to be re-thought and altered to better suit the updated understanding of how more competent thinkers and well-adjusted members of society may be produced through any education system.

            To better comprehend how more effective learning environments may be achieved by design, it is necessary to first understand some basic principles about how the brain functions and grows according to outside stimuli. Outside stimuli refers to direct experience through sensory input and social interaction. The brain is a part of the nervous system which controls the body and mental responses (both voluntary and involuntary) through an intricate network design that incorporates neuron growth and activity, glial cell interactivity, dendrite production and connectivity, nerve impulses, and various chemical and electrical interactions. There are three major portions of the human brain (the cerebrum or forebrain, the cerebellum or hindbrain, and the brainstem) each of which possess regions or areas that are used to collect, decipher, and organize data, and to communicate things like relevance, urgency, and various perceived connective data to other areas of the brain and body.  Functional imaging advances such as the MRI (Magnetic Resonance Imaging) and PET (Positron Emission Tomography) scans have revealed much about how specialized regions of the brain handle and respond to incoming stimuli. Through these types of advances we have gained insight into precisely which areas of the brain are devoted to what types of sensory stimuli, and interpretation of that data, as well as how these various regions interact during the interpretive and organizational process. (BSCS, 2005)

            In truth, a learning environment is any space where the potential for learning is held, and that is essentially every area of one’s life since learning occurs on some level at all times during our life even when we are sleeping. However, for the purposes of this paper, it is the constructed spaces that are intended to provide access to specific learning materials and interactions that are the focus of consideration. These spaces are those which are made available to students in a way to provide access to various subjects in order to enhance their learning potential and improve learning outcomes. Most of these spaces are designed to include a group of learners rather than just one, therefore when design ideas for that space and what is to be learned there are proposed the diversity of the intended group should be taken into account. While the whole space should incorporate themes and elements that speak to a variety of cultures, interests, and ways of thinking so as to promote an atmosphere of inclusiveness and comfortable familiarity as well as to serve as a window of exploration into other cultures and ideas, there should also be personal reflective areas within that space which allows each student to express their own unique personality and provides them with a place to study apart from others in a manner that suits their personal learning style. 

            What is important to understand here is that implementing such planned environmental layout strategies not only provides students with a less stressful learning space where feelings of safety, familiarity, inclusion, and comfort are promoted but it also actually works to physically influence the developing structure of the student’s brain. (Jensen, 2008) This is something that is generally not even considered by many educators and parents but has the potential to make a profound difference in a student’s immediate achievements and overall performance. What we generally consider to be a psychological response to stimuli is oftentimes related to memories of past experience through a familiar sensory link (such as a sight, smell, or sound) and this provokes an emotional reaction (either positively or negatively, but by doing so experiences are judged by the brain in relation to past knowledge of similar stimulus). This is generally considered to be either a hindrance to the learning process or otherwise seen as not useful to the learning atmosphere. But since psychological and emotional responses are actually brain responses brought on by memory connections, chemical reactions, and electrical impulses within its framework, it is not wise to ignore or suppress the opportunity for further learning potential that these links provide. 

            In order to favorably tap into natural brain responses through emotion, interest (brought on by personality and experience), and relevance (understanding of connection to one’s own life), it is helpful to concentrate on integrating elements into the learning environment that invoke positive moods and constructive emotional impacts. This is not to say that negative emotional feedback or responses should be avoided or ignored but rather that they should not be emphasized by way of environmental stimuli. If a negative emotion, mood, or experience is encountered by a student there are ways to help them move beyond that emotional state so as to allow them to be more receptive to the lessons being explored and reviewed. For instance, having them engage in physical activities or within natural environments, providing them with visualization and relaxation techniques, or encouraging participation in metaphorical ritual exercises, role-play simulations or artistic expression strategies are all useful ways in which to alter a student’s mood and mindset in a healthy and positive manner. (Jensen, 2008)
 
            Design of space and of instruction that considers the impact of sensory input can positively influence the student’s learning environment on a number of levels. Part of what makes a learning environment successful from a brain-based perspective is the cooperative and supportive atmosphere created by teachers who remain flexible and understanding of individual needs in regard to their students. This means providing students with instruction and guidance in subject areas that is with respect to their individual learning styles and cultural as well as social personality considerations. It means allowing room for mistakes and time for solutions to problems to be explored and relevant connections to be recognized. It means facilitating individual and group centered projects in alignment with subject matter, projected outcomes, and individual learning potential. Therefore the planned instruction of students (the what, why, and how) is an equally important factor in creating brain-compatible learning environments. Considering ways in which stimuli such as music, color, smell, touch, and taste can be used to tap into emotion and help to bind learning to memory are useful in the natural guidance of a student’s brain toward better and more effective learning experiences. 

            The actual architectural and aesthetic design of learning spaces can be greatly influential on a student’s ability to effectively learn and make steady academic progress. Even more than providing diverse visual displays related to subject matter, culture, and interest, there are some basic visual elements that when incorporated into a space may increase learning potential but when left out of a space may inhibit learning. Visual stimuli may be the most important or effective sensory element to consider since nearly ninety percent of all recorded information in the brain is brought on by visual perceptions. (Jensen, 2008) Visual elements of design can be used to attract attention in a certain way within a space or to pique a student’s interest. Things like shape and contrast, lighting and color, and depth, size, and other various distinctions of property all play a part in the overall influence of a student’s brain. A classroom may be simply a square room with one window and one door, but the elements incorporated into that space involving what kind of appeal and energy the space may offer to those interacting within it can have a significant impact on cognitive functioning. 

Color may be especially important as it immediately impresses upon the observer certain specific messages and meanings that tend to also affect mood and interest level (among other things). These specific messages and meanings are related to various factors such as survival instinct, memory, cultural influences, and many other things including genetics. Certain neurotransmitters that are passed on genetically from parents to their children can actually affect color preference and aversion through their effects on the hormonal responses of the endocrine system. Certain colors emit certain specific responses based on how the brain perceives and files them which signal a particular chemical response that is related to the area of the brain that is tapped into. For instance, the color red may elicit feelings of excitement which triggers an adrenaline response while the color yellow may elicit feelings of joy which triggers an endorphin response.  (Barrett, 2008)  The best colors to be utilized in classroom design (specifically as wall colors) for better cognition and positive emotional responses include very light shades of yellow, green, or blue (especially pastel shades). Avoidance of white for walls is generally preferred since they are perceived as bland or institutional and can irritate the eyes in bright lighting. Very dark or loud tones of color should also be avoided since they may promote irritable moods and discontent within the classroom setting. However, feelings of calm, cheerfulness, and sociable attitudes can be promoted through the use of various light or pastel shades. It has been suggested that all of the walls in a classroom should be of the same color except for one which should be of a different and somewhat darker tone since this can reduce glare and eye strain. (Nuhfer, 2004)

Lighting also has an effect on how color is perceived and therefore experienced. (Barrett, 2008) Such an effect will not necessarily be positive or negative, only slightly different which may have an impact on learning as well. Lighting is important for educational environment design in a lot of significant ways. For obvious reasons, proper lighting is important in regard to study. If we can see better then we will not strain to see and will therefore be more comfortable and this will improve absorption of materials being learned. More than this though, things such as fluorescent lighting and glare can have a significant negative effect on learning. (Jensen, 2008)
 
Several studies support a shift from traditional fluorescent lighting in classrooms to full-spectrum lighting which provides wavelengths of blues and violets in addition to reds and yellows since this has proven to affect student health and learning in positive ways. Not only do fluorescent lights produce glare on white surfaces (such as paper) but they are also linked with the suppression of the immune system and with disturbing the normal function of the central nervous system. It is suggested that the immune system may be suppressed due to the skin’s prolonged absorption of yellow wavelengths that cause blood cortisol levels to rise. (Nuhfer, 2004) And, the central nervous system is negatively affected by a stress factor caused by an auditory-visual response to fluorescent light flickering and humming (also in relation to a rise in cortisol levels). (Jensen, 2008) Some studies have proven definite developed deficiencies in learning related to lighting. These studies showed a reversal of negative effects simply by changing the type of lighting used in the classroom. All of the studies related to lighting in an educational setting support the incorporation of lighting that is most like natural light if not actual natural light (as may be provided by windows or skylights). (Jensen, 2008)
Another important factor in providing preferred sensory experiences in a learning atmosphere is that of the level of quality of environmental elements. If mood and experience are constantly being adversely affected by dilapidated, broken, or otherwise deficient materials and utilized items within a working space that impacts ability to perform on a regular basis then student outcomes may seriously be compromised. (Jensen, 2008) Not only do some insufficient and non-working architectural and environmental features pose significant health risks (as with poor plumbing, old and chipping paint, leaky roofs, mold, and pests) but the hampering effect that such issues have on necessary or required everyday tasks can impede the learning process and distract from what needs to be accomplished in order for said learning to take place. These types of issues are especially prevalent in poor communities and homes where curriculum learning is to take place since these areas are less likely to have access to proper funds and educational supplies. Therefore, such problems will most certainly need to be addressed in creative ways that include community involvement and support as well as donations of building materials, classroom furniture, fixtures, and educational supplies. 

In relation to how classroom environments may be improved aesthetically to positively affect students psychologically as well as emotionally and socially, the types of furniture and the layout of said furniture are important considerations as well. The study of ergonomics, which reveals information about the efficiency of various work environments, has provided much insight into the way individuals interact with one another within an environment that is influenced by certain differing design features. In regard to seating, research has shown how students are most likely to interact together in different seating arrangements. For instance, circular seating patterns are generally preferred as they promote discussion and group inspired idea generation. This may be preferable in some classroom designs. Whereas lectures and other types of presentations are benefitted by conventional row-seating, the everyday classroom dynamics that involve group discussion and activities may benefit more fully by circular seating or even by rectangular conference type seating with the overseer of instruction seated at the end. This is because social interaction is encouraged by these types of seating arrangements. Therefore, when listening, watching, and absorbing information it is best for all students to face in the direction of the presented material but when learning is to take place through discussion, group interaction, and feedback it is best to support that through a more centered arrangement of seating. Also, the amount of space put between those seated will determine whether a student is more likely to interact with those seated beside them or across from them. (McVey, 2001)

Several other issues may affect the student’s potential for learning. For instance, overcrowding is one issue that faces many underprivileged areas that can have a negative impact on learning. (Jensen, 2008) Many teachers and students of universities have indicated that classroom size (space for students to participate in activities, space for instructors to present lessons, and space for proper or required lesson/study materials) is among the most influential aspects of positive classroom experiences and learning environments. (McVey, 2001) Another concern may be acoustics of a learning space. Ambient noise, reverberation, and echo effects caused by poor classroom architectural design can produce problems by diverting student attention away from educational presentations and study and leading to discipline and behavioral issues. (Jensen, 2008) Also, providing students with adequate hydration throughout their time spent within the learning environment as well as unrestricted access to restroom facilities is a necessary contributing factor to creating comfortable learning environments that promote healthy brain function. And, providing a comfortable learning space through proper ventilation and temperature control is important for keeping the brain healthy and alert with non-stagnant air and less stress caused by overheating or cold distractions. (Jensen, 2008)
 
There are several ways that these issues may be addressed to avoid negative impacts on student’s cognitive functioning while also increasing their potential performance. For instance, to help address the stagnant air issue fresh air from opening windows may be helpful when the weather is permitting. And, inserting plants into the learning space can improve oxygen levels in the room and even help to remove air pollutants. In particular, certain types of plants may be most beneficial in this respect (according to studies conducted by NASA’s Environmental Research Laboratory) such as bamboo palms, rubber plants, and yellow chrysanthemums, among others. (Jensen, 2008)
 
There is a great deal of information related to this subject of creating more efficient and achievement oriented learning spaces based on what we now know about the human brain and how it works in concert with the body. In order to create a learning environment that is holistic in its purpose, design, and everyday practical implementations, a thorough look into several areas of study (including psychology, emotional responses to stimuli, individual research finds concerning things like color and sound and smell, as well as ergonomics and architectural development in relation to human behavior) is needed to better understand all the ways that learning may be improved by design.





References

 

Barrett, J. (2008). The Color of Learning. Retrieved October 23, 2011, from California Department of General Services - Excellence in Public Education Facilities: http://www.excellence.dgs.ca.gov/MaxStPerformance/S4_4-2.htm
BSCS. (2005). The Brain: Our Sense of Self. Retrieved October 22, 2011, from National Institutes of Health: http://science-education.nih.gov/supplements/nih4/self/guide/info-brain.htm
Jensen, E. (2008). Brain-Based Learning: The New Paradigm of Teaching (2nd ed.). Thousand Oaks, CA.: Corwin Press.
McVey, G. (2001). Ergonomics and the Learning Environment. Retrieved October 23, 2011, from Association for Educational Communications and Technology: http://www.aect.org/edtech/ed1/pdf/36.pdf
Nuhfer, E. (2004). Some Aspects of an Ideal Classroom: Color, Carpet, Light and Furniture . Retrieved October 23, 2011, from California State University of the Channel Islands: http://profcamp.tripod.com/ClassroomDesign/IdealClass.html

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