Abstract

Figure 1. Classroom Science
(Brand_X_Images, 2008).

Classrooms now come in a variety of shapes, sizes and designs. To properly teach science or any other subject, it is very important to take into account how the classroom is set up. Lighting, space, acoustics, seating arrangement, temperature, classroom efficacy, and diversity are shown to have serious impacts on student learning.

Since there are such a variety of aspects about the classroom that research has shown to have an effect on student performance there are important suggestions to consider that can enhance student’s learning experience and maximize classroom efficiency.

Classroom design, creative lesson plans, and science connections into other subjects will promote understanding of science topics and encourage K-6 students to conduct scientific activities. Using president Bush's policies to expand a classroom's resources and finding cross-curricular lesson plans will allow students to think effectively and have fun while learning.

 

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General Layout

The classroom set up depicted in Figure 2 is one that is familiar to many educators. It is the more formal classroom setting, which becomes especially common in older grade levels. Classroom design research conducted through Georgia principals and national teachers indicated that in classroom design, the amount of natural lighting, flexibility, noise level and comfort ability of seating has major affects on student achievement (Figure 3). In younger grade levels, classroom design is especially encouraged to be flexible and welcoming to the students, something the right hand design does not accomplish well. Providing space to move around in and using complimentary colors will help students concentrate on academic work.

Figure 2. Traditional Classroom Design
(University of Wisconsin, 2008)

Figure 3. Perception Graph
(Langford and Tanner, 2002).

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Student Seating

Figure 4 is one design option for classroom seating. Research is currently being done on the effects of therapy balls in the classroom and their effectiveness as classroom seating. Other options include pillows at low desks or well-designed chairs to support posture. For science, it is important have a stable area to work in, including a hard work surface, sturdy seating, and plenty of space for students to move in.  Often experiments generate excitement, so students will need space to move around in during expressions of this excitement or classroom control can suffer.

Figure 4.  Classroom Seating
(Worthington, 2007).

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Classroom Acoustics

Children with hearing disabilities or who have trouble concentrating in hard-to-hear environments can benefit greatly from a classroom layout that takes into account their needs (Figure 6). The world health organization has conducted classroom research on sound quality and its affect on students and indicates that background noise level needs to be controlled and speech from the teacher needs to be kept within a certain range for optimum hearing (Langford and Tanner, 2002). Figure 5 shows that the majority if schools who participated in this study, did not have an acoustically appropriate classroom setting. In science, it is very important to hear directions clearly. Creating a classroom where hearing is maximized, increases safety during experiments and overall understanding of directions.

Figure 5. Principles' Grading of Classroom Acoustics in Their Schools
(Langford and Tanner, 2002).

Figure 6. Classroom Design for Optimum Hearing
 (The Quiet Zone, 2002

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The Quiet Zone out of Montpelier, VT has the following suggestions for how to enhance hearing in the classroom.

 Control of unwanted sounds

  • minimize noise intrusion from outdoors
  • minimize interference between classrooms
  • design quiet ventilation system

Enhancement of wanted sounds

  • control excessive reverberation by sound absorption
  • minimize echoes from distant surfaces (such as the back wall)
  • use hard materials for useful sound reflections (use surfaces beside and above the teacher)

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Classroom Space

Space is highly prized in classrooms as it contributes directly to good classroom management. Simply incorporating a designated area in the classroom for movement related activities or meeting space that allows students personal space decreases stress levels among students. This classroom design shown in Figure 7 incorporates a structurally interesting classroom setting, appropriate seating, space for students to spread out, and wonderful lighting, both natural and incandescent.

 

Figure 7. Lighting and Space
(Harris Family Children's Center, 2007).

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Effective Lighting

By creating a classroom space with efficient lighting, students will be able to see better and stay more focused. Figure 8 shows some of the data results relating to reading and math by comparing lighting differences and test scores. Increased lighting has noticeable affects on quality of student work. In a study conducted by the University of Georgia, classrooms with a large amount of window space had students learning up to 26% faster in both reading and math. If windows are able to be opened and are opened on occasion, student learning increased by another 7-8%  (Daylighting in Schools, 1999). In a science classroom, this means that students will be able to see clearly and will take more interest in the activity being conducted.

Figure 8. Test scores show differences with different types of light. (Daylighting in Schools, 1999)

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Classroom Temperature

Starting in the 1930's, there has been significant research on how the atmosphere of the classroom affects students learning. The temperature, air flow, and humidity of a classroom will affect the quality of work produced by students. It is agreed among researchers that a classroom with a temperature above 80 degrees Fahrenheit is a very poor environment for learning. When a classroom is too warm, it induces drowsiness and fatigue, increases respiration, and creates conditions favorable to disease. When the human body is fighting to stay alert and is uncomfortable, it is not concentrating on the academic work at hand. Students make "greater gains in academic achievement  in climate controlled schools as opposed to those students in non-climate controlled schools" (Jago and Tanner, 1999). The ideal climate temperature is proposed to be between 68 and 70 degrees Fahrenheit. To increase student productivity and reduce spread of disease in the classroom, simply monitor the temperature.

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Classroom Efficacy

Displaying student work is great for maintaining classroom efficacy. Art will allow students to feel that the classroom is a space that they belong. Arts can be easily integrated into science by having students draw observations, paint cosmic constellations, or create a mural using items from outdoors. This can give key insights to what students actually took out of a lesson and is fun for students to create. Students have been shown to increase vocabulary skills by applying science concepts to art concepts. For example, in drawing the dragonfly in Figure 9, the teacher may have asked the student to include a head, legs, wings, thorax, and abdomen. Research shows that students who use multiple medias during lessons use more of their brain which increases learning (Betts and Hicks and Fisher, 1994).

Figure 9. Dragonfly Drawing

(Jamieson Associates, 2006)

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Movement in the Classroom

Howard Gardener discovered that people learn in a variety of different ways. While this may seem obvious he was able to identify multiple strengths that people fall back on in order to solve a problem. One way that people learn is through body movement also called kinesthetically. The University of Illinois estimates that about 50% of people are kinesthetic learners and have trouble learning in the traditional classroom setting (Helping Children Succeed..,2008). By incorporating movement into the classroom, a teacher can anchor knowledge through patterns of bodily movements. Using movement creates a procedural memory pathway that students will use in the future. Recent psychology studies identify three main memory pathways including semantic (student remembers numbers and texts), episodic (student remembers where they were when they learned the fact), and procedural (student remembers moving in a pattern when they learned the fact). As movement is becoming recognized as a tool for learning, leaders in the field are emerging.

Check out Jean Blaydes Madigan and her Action Based Learning programs for more research and ideas.

  • Semantic (numbers and words)

 

  • Episodic (where)

 

  • Procedural (muscle memory involving patterns)

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Classroom Diversity

Classroom diversity is now defined as “the incorporation of knowledge about diverse groups” that is taught to student (Affirmative Action, 2003). This means that any classroom can be diverse and studies have shown (Figure 10) that active citizenship and intellectuality increased in students who had been exposed to classroom diversity. In a science curriculum, this can incorporated as awareness of what other countries have done in related experiments or origins of the science concept from an experiment.

Figure 10.  Student Exposure to Classroom Diversity
 (Affirmative Action, 2003).

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President Bush's Policies

In 2001, President Bush passed into law the No Child Left Behind Act. This act has several main goals. Listed from the White House website are the goals and priorities (actual title numbers) of this legislation.
Increase Accountability for Student Performance: States, districts and schools that improve achievement will be rewarded. Failure will be sanctioned. Parents will know how well their child is learning, and that schools are held accountable for their effectiveness with annual state reading and math assessments in grades 3-8.

Focus on What Works: Federal dollars will be spent on effective, research based programs and practices. Funds will be targeted to improve schools and enhance teacher quality.

Reduce Bureaucracy and Increase Flexibility: Additional flexibility will be provided to states and school districts, and flexible funding will be increased at the local level.

Empower Parents: Parents will have more information about the quality of their child's school. Students in persistently low-performing schools will be given choices.

Seven performance based priorities in corresponding titles.

  1. Boosting teacher quality
  2. Moving limited English proficient students to English fluency
  3. Promoting informed parental choice and innovative programs
  4. Encouraging safe schools for the 21st Century
  5. Increasing funding for Impact Aid
  6. Encouraging freedom and accountability

Title II both focuses on quality of teachers and science/ math partnerships in schools. It states that funding will be provided to help elementary schools provide programs with the help of higher education (high schools, technical centers, colleges and universities). By maximizing resource use and getting more involved with other schools in the area, a classroom will have more access to scientific data and equipment.

 

Figure 11. Out of Classroom Experience
(Environmental Science Center, 2008).

 

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Take Action: Letters for Support

Listed below are Vermont community resources that can be useful as an educator. If you are not from VT, many states have similar programs that can be easily found on the web.

The Vermont Institute of Natural Science is great at providing hands on experiences for kids. They have resources that you may not and can provided them at a fairly inexpensive price.

Check out their Hands On Outreach Programs on their website at http://www.vinsweb.org/education/outreach_programs.html.

Local colleges, technical centers, and universities are a wonderful resource too. Bringing your class to a real lab can be fascinating and with a professor's supervision, students can ask questions and learn more about the tools that real scientists use in making new discoveries. If you have a specific idea for a program or are interested to know what programs are offered by professors at your local college, contacting someone in the department is easy to do. Browse the department website (listed below) of your nearest higher education facility and then use the example letter provided to contact them with your idea.

Browse Castleton

Browse Johnson

Browse VT Technical College

Browse Lyndon

Open the door.

Choose one of the links below to go to a letter that you can send to take advantage of your resources. Use the addresses listed to copy and paste into a letter along with your address and send it to people that can make it happen.

 

Higher Education Resource Letters

I would like a professional.

I want to visit.

I need tools.

Vermont Institute of Natural Science Letters

Raptor Encounter      Animal Tales      

Cold Blooded Critters       Bats!       

The Eastern Blue Bird    The Bear Facts     Beavers   

Flight of The Butterflies      Catamounts    

Coyotes in New England    Loon Lore  

The Magnificent Moose       Turkey Tales

 

Contacts

Vermont Institute of Natural  Science
Linda Conrad
VINS/ Quechee
P.O.Box 1281
Quechee, VT 05059

(802) 359-5001 lconrad@vinsweb.org

Johnson State College
Professor Leslie Kanat
Environmental Science Department
337 College Hill
Johnson, VT 05656

(802) 635-1327       les.kanat@jsc.edu

Florence Black Science Center
233 South Street
 Castleton, VT 05735

 

(802) 468-1238

Vermont Institute of Natural Science
Rick LaDue
VINS/ Manchester
P.O.Box 46
Manchester Village, VT 05254

(802) 362-4374   rladue@vinsweb.org

Johnson State College      Professor JohnWrazen
Environmental Science Department
337 College Hill
 Johnson, VT 05656

(802) 635-1337
john.wrazen@jsc.edu

Center for Schools at Castleton
Castleton State College
Castleton, VT 05735

 

(802) 468-1456

Vermont Technical College 
Sally Caldwell
Science Department
P.O. Box 500
Randolph Center, VT 05061

 (802) 442-1707

Vermont Technical College
Science Department 
Carl Brandon
 P.O. Box 500
 Randolph Center, VT 05061

(802) 442-1350

Lyndon State College David S. Conant
Natural Science Department
1001 College Road Lyndonville, VT 05851

David.Conant@Lyndonstate.edu

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Example of Mixed Curriculum Science Lesson Plans

Bouncing Ball

(Science and Math)

Animal Life Cycles

(Natural Science)

Making a Pin Hole Camera

(Science and History)

Jack and the Beanstalk

(Science and Language Arts)

Eat and Run

(Science and Gym)

Gregory, the Terrible Eater

(Science and Health)

Our Environment

(Science and Current Events)

Color My World

(Science and Art)

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References

Affirmative Action and the Degradation of Academic Integrity. 16 February 2003. Retrieved on 13 February 2008 from http://m3peeps.org/aadai.htm.  

Betts, David and Paul Fisher and Sandy Hicks. Arts Integration: Semiotic Transmediation in the Classroom. Universities of Rhode Island and Arizona, 1994. Retrieved on 13 March 2008 from http://www.u.arizona.edu/~bettsj/SemTrans.html.

Brand X Images. Jupiter Images Corporation, 2008. Retrieved on 28 January 2008 from http://www.jupiterimages.com/popup2.aspx?navigationSubType=itemdetails&itemID=23274721.

CEC Lesson Plans. Columbia Education Center, 2008. Retrieved 6 May 2008 from http://www.col-ed.org/cur/index.html.

Daylighting in Schools. California Board for Energy Efficiency. University of Georgia School Design and Planning Laboratory, 1999. Retrieved on 26 March 2008 from http://www.coe.uga.edu/sdpl/research/daylightingstudy.pdf.

Dragonfly Drawing. Jamieson Associates, 2006. Retrieved on 29 March 2008 from http://www.jamiesonassociates.co.uk/project.php?projectid=4.

Environmental Science Center, 2008. Environmental Science Center. Retrieved on 28 January 2008 from http://www.envsciencecenter.org/.

Harris Family Children’s Center, 2007. Preschool Classroom. Retrieved on 13 February 2008 from http://www.designshare.com/index.php/projects/harris-family-childrens-center/images@4344.

Helping Children Succeed in School: Learning Styles. University of Illinois, 2008. Retrieved on 26 March 2008 from http://www.urbanext.uiuc.edu/succeed/04-learningstyles.html.

Jago, Elizabeth and Ken Tanner. Influence of the School Facility on Student Achievement: Thermal Environment. University of Georgia,1999 Retrieved on 29 March 2008 from http://www.coe.uga.edu/sdpl/researchabstracts/thermal.html.

Langford, Dr. Ann; C. Kenneth Tanner, Ed. D., REFP. The Importance of Interior Design Elements as They Relate to Student Outcomes. School Design and Planning Laboratory, University of Georgia, 2002. Retrieved on 13 February 2008 from http://www.coe.uga.edu/sdpl/research/SDPLStudiesInProgress/criann02elem.html.

Madigan, Jean Blades. Action Based Learning, 2007.Retrieved on 3 April 2008 from http://www.actionbasedlearning.com/index.shtml.

No Child Left Behind. The White House, 2008.Retrieved on 6 March 2008 from  http://www.whitehouse.gov/news/reports/no-child-left-behind.html#1.

The Quiet Zone. Noise Pollution Clearinghouse, 2002. Retrieved on 12 February 2008 from http://www.nonoise.org/library/qz3/.

University of Wisconsin, 2008. Conference Room Layout. Retrieved on 12 February 2008 from http://vip.wisc.edu/images/conf-rooms/1106Classroom.GIF.

Worthington, Tom. Net Traveler, 2007. Retrieved on 13 February 2008 from http://www.tomw.net.au/blog/labels/iCampus.html.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

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