FEATURE ARTICLEscience. Dissertation Abstracts<strong>International</strong>, 52, 3204A.Childress, V. W. (1996). Does integratingtechnology, science, <strong>and</strong> mathematicsimprove technological problem solving?A quasi experiment. Journal of<strong>Technology</strong> Education, 8(1), 16-26.<strong>International</strong> <strong>Technology</strong> EducationAssociation. (2000, 2002). St<strong>and</strong>ardsfor technological literacy: Content forthe study of technology. Reston, VA:Author.LaPorte, J. E., & S<strong>and</strong>ers, M. E. (1995).Integrating technology, science, <strong>and</strong>mathematics education. In G. E. Martin(Ed.) Foundations for technologyeducation (pp. 179-219). Peoria, IL:Glencoe/McGraw Hill.Loepp, F. (1999). Models of curriculumintegration. The Journal of <strong>Technology</strong>Studies, 25(2), 21-25.Merrill, C. (2002). Integrated learning:Zoetropes in the classroom. The<strong>Technology</strong> Teacher, 61(5), 7-12.National Council of Teachers ofMathematics. (2000). Principles <strong>and</strong>st<strong>and</strong>ards for school mathematics.Reston, VA: Author.Reeves, D. B. (2002). Making st<strong>and</strong>ardswork: How to implement st<strong>and</strong>ardsbasedassessments in the classroom,school, <strong>and</strong> district. Denver, CO:Advanced Learning Press.Wiggins, G., & McTighe, J. (1998).Underst<strong>and</strong>ing by design. Alex<strong>and</strong>ria,VA: Association for Supervision <strong>and</strong>Curriculum Development.that define the stair stringers, treaddepth, riser height, <strong>and</strong> l<strong>and</strong>ing (if any)all constructed to a specific scale.ConclusionFigure 3. Sample student-completed stair stringer.Integrating technology with otherdisciplines does not have to be aforce-fit. The use of mathematicswhen designing stairs is appropriate<strong>and</strong> necessary. <strong>Technology</strong> educationteachers basing their curriculum onst<strong>and</strong>ards <strong>and</strong> benchmarks will readilysee the advantages of using multipledisciplines for students to developenduring underst<strong>and</strong>ing. By integratinga relatively simple technology educationactivity with other disciplines,students will begin to see the“connections or linchpins” thatconnect different fields of learning.ReferencesBrusic, S. A. (1991). Determining effects onfifth-grade students’ achievement <strong>and</strong>curiosity when a technology educationactivity is integrated with a unit inChris Merrill, Ph.D. isan assistant professorin the <strong>Technology</strong>Education Program atIllinois StateUniversity, Normal, IL.He can be reachedvia e-mail at cpmerri@ilstu.edu.Mark Comerford,M.S. is an assistantprofessor inConstructionManagement atIllinois StateUniversity, Normal,IL. He can be reached via e-amil atcomerford@indtech.it.ilstu.edu.10 <strong>October</strong> <strong>2004</strong> • THE TECHNOLOGY TEACHER
Lesson Plan Part 1.Integrated lesson planTitle:Integrated Learning through StairConstructionSubtitle:Stair Design <strong>and</strong> Construction:Mathematics <strong>and</strong> <strong>Technology</strong> inActionSt<strong>and</strong>ards:Technological Literacy –• Students will develop an underst<strong>and</strong>ingof the relationships amongtechnologies <strong>and</strong> the connectionsbetween technology <strong>and</strong> otherfields of study.Mathematics –• Students will recognize <strong>and</strong> applymathematics in contexts outside ofmathematics.• Students will underst<strong>and</strong>measurable attributes of objects<strong>and</strong> the units, systems, <strong>and</strong>processes of measurement.• Students will apply appropriatetechniques, tools, <strong>and</strong> formulas todetermine measurements.Objectives:At the conclusion of this lesson,students should be able to:• Design two different stairways <strong>and</strong>draw them to prescribed scales.• Define individual tread depth <strong>and</strong>riser height, stair slope, <strong>and</strong> stairstringer.• Use tools to construct two differentstair designs (with treads <strong>and</strong>risers) out of cardboard at anappropriate scale, based on a giventotal rise <strong>and</strong> total run.• Search various architecturemagazines <strong>and</strong> the World WideWeb to identify various stairdesigns to assess their purposesfor a given space.•Describe the historical influence ofstair designs by writing a one-pagepaper on the history <strong>and</strong> applicationof a stair design.Equipment/Materials List:Pencil, paper, eraser, architect’s scale,calculator, poster board, cardboard, x-acto knife, word-processing program,access to the World Wide Web,magazines depicting home design<strong>and</strong> construction technologies, localbuilding code book (not required, buthelpful).Introduction:Stairs are a common structure athome, school, <strong>and</strong> in our society.Stairs are of different shapes <strong>and</strong>styles, but the end result is always toprovide a means for movement fromone level to another in residential,commercial, or industrial structures.Stair designs are generally drawn byarchitects who follow building codes<strong>and</strong> requirements that dictate the stairgeometry, including slope of stairway,minimum tread depth, maximumriser height, <strong>and</strong> required overheadclearances. Stairs are built on site byconstruction workers, prefabricated ina manufacturing facility <strong>and</strong> deliveredon site, or are h<strong>and</strong> crafted bycabinetmakers. The design of stairsdoes not happen by chance, but bytechnological <strong>and</strong> mathematicalproblem solving, formulas, <strong>and</strong>theorems.Activity:In this activity, students will be usingmathematical formulas, theorems, <strong>and</strong>technological tools to construct twodifferent stair designs, using twodifferent rise <strong>and</strong> run dimensions. Inaddition, students will have theopportunity to study the history ofstairs <strong>and</strong> the various styles of stairsby creating a display of their work.Assessment:There are several assessments thatare both formative <strong>and</strong> summativethat deal with this lesson <strong>and</strong> can befound in the activity.Enrichment Activity:After completing the stair design <strong>and</strong>construction activities, turn yourattention to roof design <strong>and</strong>construction. Roofs are mathematicallyfigured the same way asstairs, but the construction processis different. Students should beinstructed on roof designs <strong>and</strong>, in turn,can use previously learned knowledge<strong>and</strong> skills.Bibliography:Kicklighter, C. E. (1995). Architecture:Residential drawing <strong>and</strong> design. SouthHoll<strong>and</strong>, IL: Goodheart-Willcox.<strong>International</strong> <strong>Technology</strong> EducationAssociation. (2000, 2002). St<strong>and</strong>ardsfor technological literacy: Content forthe study of technology. Reston, VA:Author.National Council of Teachers ofMathematics. (2000). Principles <strong>and</strong>st<strong>and</strong>ards for school mathematics.Reston, VA: Author.Lesson Plan Part 2.Integrated activityStair Construction: Mathematics<strong>and</strong> <strong>Technology</strong> in ActionOverview:Stairs are a common structure athome, school, <strong>and</strong> in our society.Stairs are of different shapes <strong>and</strong>styles, but the end result is always toprovide a means for movement fromone level to another in residential,commercial, or industrial structures.Stair designs are generally drawn byarchitects who follow building codes<strong>and</strong> requirements that dictate the stairgeometry, including slope of stairway,minimum tread depth, <strong>and</strong> maximumriser height, <strong>and</strong> required overheadclearances. Stairs are built on site byconstruction workers, prefabricated ina manufacturing facility <strong>and</strong> deliveredon site, or are h<strong>and</strong> crafted bycabinetmakers. The design of stairsdoes not happen by chance, but bytechnological <strong>and</strong> mathematicalproblem solving, formulas, <strong>and</strong>theorems.Introduction:In this activity, you will be usingmathematical formulas, theorems, <strong>and</strong>technological tools to construct twodifferent stair designs, using twodifferent rise <strong>and</strong> run dimensions. Inaddition, you will have the opportunityto study the history of stairs <strong>and</strong> thevarious styles of stairs by creating adisplay of your work.Directions Part 1:#1 – Plain Stair DesignAfter receiving the h<strong>and</strong>out from yourteacher, you should:1. Calculate the slope <strong>and</strong> overalllength of the stringer.FEATURE ARTICLETHE TECHNOLOGY TEACHER • <strong>October</strong> <strong>2004</strong> 11