kerski jog implementation effectiveness

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The Implementation and Effectiveness oGeographic Information Systems Technology an

Methods in Secondary EducationJosephJ. Kers

ABSTRACTGeographic information systems(GIS) technology and methods have trans-formed decision-making in society bybringing geographic analysis to the desk-top computer. Although some educatorsconsider GIS to be a promnising means forimplementing reform, it has been adoptedby less than 2 percent of American highschools. The reasons behind the interestin GIS, its slow implementation, and itseffectiveness in teaching and learning areunclear. To address these concerns, thisresearch describes the extent to which GISis being implemented in American sec-ondary education and assesses the effec-tiveness of lessons that use GIS. A sur-vey of 1,520 high schools that own GISsoftware, along with experiments and casestudies in three high schools, provided pri-mary data for assessing the implementa-tion and effectiveness of GIS.Key words: Geographic niformationSystens, technology implementation, technolo-gy adoptio'n,effectiveness researclh, surveyresearch

Joseph Kerski serves as educationigeographerat the U.S. Geological Survey's RockyMounitainMappinigCenter in Denver,Colorado, and as GIS instructorat theUniversity ofDenver. He writes lessonsbased on7patialdata and material,supportseducationalpartnershipsamong organizationis,teachzes onlineand hands-on7 GIS courses, andconducts 45 workshzops annuiially in geographyand science edutcation, spatialdata, and in geo-graphic informnation systems for educators,news media, governmentagenicies, NativeAmericans, researchlers,nonprofitorganiza-tio'ns, andprivateenterprise.Journalof Geographly 102: 128-137

THE RESEARCH PROBLEMGeographic information systems (GIS) technology and methods havetransformed decision-making in society-in government, academia, and indus-try. Some educators consider GIS to be one of the most promising means forimplementing educational reform (Barstow 1994). However, GIS technology hbeen adopted by less than 2 percent of American high schools. The reasonsbehind the interest in GIS, its slow implementation, its extent in the curriculumand its effectiveness in teaching and learning are unclear.To address these concerns, this research describes the geographic andcurricular extent to which GIS technology and methods are being implementedin American secondary education. This research explains why and how GIS isbeing implemented and assesses the effects of GIS-based lesson modules onteaching and on the acquisition of standards-based geographic content andskills. The first goal of this study was to describe the extent to which GIS isimplemented in secondary education in the United States. A review of the reled research showed that although GIS and educational reform in geography areach separately in the mainstream of research, the combination of GIS and eduction clearly is on the periphery. Most of the literature on the extent of imple-mentation comes from anecdotal accounts, rather than from national or region

analyses (such as Environmental Systems Research Institute 1998, Fazio andKeranen 1995, Keranen 1996, McGarigle 1997, Ramirez 1996, Robison 1996,Trotter 1998, Walker et al. 2000, Williams 1997) .This study's second goal was to explain why and how GIS is implemened through an analysis of challenges and catalysts. Diffusion research and afew GIS implementation models provided a framework within which to analyzimplementation. The third goal was to assess the effectiveness of GIS on sec-ondary geography teaching and learning. Studies thus far showed mixed resulin a few classrooms scattered across the country. GIS-based lesson modules afew and the technology is largely untested. Th e expansion of GIS as an educa-tional tool, despite its slow diffusion in education compared to business andindustry, far outpaces the associated research in its implementation and effec-tiveness. Research thus far has emphasized teaching about GIS, rather thanteaching with GIS (see Su i 1995). Therefore, it is still unclear how and why GISis being implemented in the high school curriculum both on a national level anwithin individual schools, and what difference it really makes in education.CONNECTING GIS TO TENETS OF EDUCATIONAL REFORMThe unprecedented attention to geography education at all levels since1985 may be strengthened and extended with the aid of properly applied GIStechnology. Th e U.S. Labor Secretary's Commission on Achieving NecessarySkills (SCANS) stated that the most effective way to teach skills is in the conteof an established subject matter (U.S. Department of Labor 1991). The SCANScompetencies include identifying and using resources, working with others,

2003National Council for Geographic Education


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GeographlicInformation Systems Technologyacquiring and using information, and understanding com-plex interrelationships (Hill 1995a, 1995b).Interdisciplinary education, rather than teaching each sub-ject in isolation from the others, may be a more effectivemeans to help students solve problems Jacobs 1989).Implementing GIS into the curriculum may encourage stu-dents to examine data from a variety of fields (Furner andRamirez 1999, Sarnoff 2000).

Since the publication of the first national contentstandards in geography (Geography Education StandardsProject 1994), social studies (National Council for theSocial Studies, National Task Force for Social StudiesStandards 1994), science (National Research Council 1996),and technology (International Society for Technology inEducation 2000), educators nationwide have been progress-ing toward a model of `inquiry-based" instruction thatemphasizes a hands-on, research-based learning experi-ence. Inquiry draws upon learning theory known as con-structivism, which holds that rather than being transferredfrom teacher to student, knowledge is construicted by thelearner based on his or her own experiences and makingconnections (Driver et al. 1994).

The national geography standards state that "thepower of a GIS is that it allows us to ask questions of data."Students using this inquiry approach form research ques-tions, develop a methodology, gather and analyze data, anddraw conclusions (Geography Education Standards Project1994).

A lack of research on the effectiveness of geo-graphic technology identified in a 1967 National Councilfor Geographic Education study is still the case nearly 40years after its publication: "Newer media, such as the over-head projector and the film cartridge, also have been seizedupon by geographers as effective tools in geographic educa-tion. Yet the research-oriented geographer and educatorhave paid scant attention to assessing the effectiveness ofone tool over another" (Gross 1967). The organizers of thefirst conference on educational GIS asked: "What is thelearning that GIS allows that other ways do not?" (Salinger1994). Nothing less than a full answer to the question willsuffice.NATIONAL GIS IN EDUCATION SURVEY

A 33-item survey was mailed to 1,520 high schoolteachers who owned a GIS package, to describe the extentto which GIS technology and methods are being imple-mented in the USA. No assumption was made as towhether the teacher was actually using GIS. The bestapproximation to surveying teachers using GIS in the cur-riculum was a list of teachers who owned a GIS softwarepackage. A listing of teachers owning ArcView, Idrisi, orMaplnfo GIS software was procured and became the sur-vey's sampling frame. Th e national survey revealed thatGIS has not made significant advancements in terms of thenumber of secondary schools using it. Over 500,000 usersof ArcView GIS exist worldwide (Environmental SystemsResearch Institute 1999), but less than 1,500 users were in

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Th e number of high schools owning one of thethree GIS software packages numbered less than 1,900,representing fewer than 5 percent of all U.S. secondaryschools. Even among teachers who own GIS software,nearly half are not using it. To put it another way, the stateof the art is far beyond the state of practice (Means 1994).Only 3 percent of schools in the U.S. are effectively inte-grating technology into all aspects of their educational pro-grams (according to Viadero 1997). Those who are usingGIS do so in a wide variety of settings, in different degrees,and in many ways, ranging from preparing maps to beused as tests and on overhead projectors, to incorporatingit into fieldwork and with global positioning systems(Figure 1). Only 20 percent of teachers using GIS use it inmore than on e lesson in more than one class. GIS is beingimplemented in standard-sized schools and classrooms,primarily by veteran science teachers. Science teachersoutnumbered geography teachers by approximately two toone in the use of GIS. Chemistry teachers were the most-represented single group, primarily through water qualitystudies.

Although technological and administrative supportis lacking, the survey indicated that teachers who haveadopted GIS are enthusiastic and active. Lessons are con-structivist, reformist, and interdisciplinary in nature,emphasizing teaching with GIS in a content area, ratherthan teaching about GIS in a GIS course. Teachers usingArcView GIS tended to use GIS in more ways and coursesthan teachers using the other tw o GIS software packages inthe survey, due most likely to the decade-long training andsupport that ESRI, the manufacturer of ArcView, has pro-vided.

Despite a growth in GIS implementation in educa-tion, the survey revealed several patterns that signifyrestraints on its expansion. These include the lack of timeto develop GIS-based lessons, little support for training

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Figure2. Extent of GIS implementation in the curriculumand implementation, and the perceived complexity of soft-ware. Even more telling of the challenges teachersencounter when implementing GIS is that nearly half of allresponding teachers (45. 1%; n=370) are still not using GISin the curriculum. These include teachers who indicatedthat they are "not yet" using GIS or that they "plan to' useGIS in the future (Figure 2). Considering that those whoadopted GIS are more likely to fill out the survey, it is like-ly that less than half of the total population of secondaryteachers owning GIS software is actually using it.Measuring the time between the date that the software wasobtained and the date that the teachers began using it inthe curriculum indicates that implementation challengesexist. In less than half of the cases (44.4%, n=351) did theteacher obtain and begin using GIS in the same academicyear. In 35.9 percent of cases, a one- to two-year delayoccurred, and in nearly one out of every five schools (19.7percent) at least three years' delay took place. In 17schools, the delay was over five years. The software mightwell be in a new version before the teacher implements it,making it even more difficult for teachers to implementwhat they learned in a training event.Teachers are first trained in GIS largely throughinservice opportunities. Preservice teachers have littleopportunity to learn about GIS. Teachers felt positiveabout GIS in terms of its benefits to their teaching, but list-ed more negative factors when it came to their ow n learn-ing and implementation. A lack of training geared to edu-cators, time to prepare lessons, and the complexity of thesoftware were cited as the chief challenges to implement-ing GIS. Providing real-world relevance, integration of dif-ferent subjects, providing an exploratory skill, andenhanced learning and motivation are cited as the mainbenefits. Teachers were asked, "To what extent will you useGIS next year compared with this year?" They could choose

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Figutre 3. Teacher's plans or fihtre use of GISamong decreasing use, maintaining present use, or increaing their use. Even though GIS cannot be quickly mas-tered and implemented, teachers are apparently willing tinvest in making it a success. Indeed, the teachers wereenthusiastic about the technology. Nearly three out of foteachers (71.9%; n=327) planned to increase their use of tsoftware; only 4.3 percent planned to decrease their use(Figure 3).

Th e large amount of time teachers spend with GIindicates both their enthusiasm with the tool and also thtime-intensive nature of mastering and using it in the curriculum. Most teachers are so enthusiastic about this tecnology that they invest their own time to learn it. Over 6percent of teachers said that they spent at least one hourper week outside of class time with GIS. Over 21 percenof teachers using GIS were using the tool at home.Teachers, already under pressure to perform a host of othtasks each semester, were willing to invest their personaland professional lives in this tool. The fact that most ofthese teachers have been in the profession at least 20 yeaadds significance to this finding: they are more likely tocarefully consider the advantages and disadvantages toGIS, rather than "jumping on the bandwagon" of technology. Their acceptance of the tool encourages others toadopt it, rather than to dismiss it as a fad.

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D GIS Makes a Significant Contribution to LearningFigutre 4. Teachers' beliefs about the contributionsof GIS tolearning

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Geographic nformation Systems Technology

Most teachers (88%; n=342) believed that the useof GIS makes a significant contribution to learning (Figure4). Part of the explanation for the overwhelming support isbecause the surveys were sent to teachers who had origi-nally expressed an interest in GIS software. There is also anatural reluctance to disclose that something a person hasinvested in is not worth the effort that was spent. Still, theevidence is clear that teachers, despite the challenges,believe that GIS is worth it.No mandate requiring the use of GIS in the educa-tional curriculum exists. However, a small percentage ofteachers nationwide have taken it upon themselves to solveproblems and conduct workshops to promote its imple-mentation. Convinced of its benefits, these teachersamount to about 15 percent of survey respondents, andspend a great deal of personal time with GIS.GIS implementation was examined through amodel by Audet and Paris (1997), through Rogers' (1995)diffusion of innovations model, and a social interactionismmodel. Predictors of GIS implementation in educationinclude good computer file management and databaseskills, and comfort in giving students the freedom toexplore in class. Spatial thinking and the existence of animplementable project should be added to these predictors.Th e survey showed that the best predictor of a teacherusing GIS is if more than one teacher in the school is usingit, followed by the number of hours spent in GIS training.Because GIS is being implemented largely by indi-vidual teachers, there may be instructional materials devel-opment principles that are not being incorporated intopreparing curricula. Most GIS-based lessons are not wide-ly available or easily used, inhibiting the speed of GIS dif-

fusion throughout secondary education.One teacher conducting a peer training session

commented that at the end of the training, a teacher asked,"Can I print out blank outline maps with this program?"This indicates that some teachers view GIS as nothingmore than a computerized atlas. Thinking in a differentway is perhaps the one factor that most hinders GIS imple-mentation in schools. With advances in accessibility ofhardware, software, and data, learning is increasinglydependent on the adaptability of teachers more than acces-sibility of technology. Powell (1999) found that althoughinnovative science curriculum materials do influence teach-ers' practice, even more important is whether a teacher'sbeliefs are aligned with the philosophv of these curriculummaterials. Th e implication for GIS is that only those teach-ers who value an open-ended, exploratory approach tolearning will adopt it.Teachers felt that the lack of time to develop GIS-based lesson plans was the chief challenge to implement-ing it in the classroom (Figure 5). This suggests that orga-nizations interested in the spread of GIS might maximizetheir impact on implementation by committing resourcestoward building these GIS-based lessons. Indeed, moreteachers were using GIS by 2002 in part due to the arrivalof the first textbook of GIS-based lessons, Mapping OutrWorld (Malone, Palmer, and Voigt 2002).Clearly, GIS is not the type of tool that a teachercan implement into the curriculum as soon as it isobtained, nor can it be easily expanded in the curriculum.This is the irony of GIS-if it were "plug and play," moreteachers would use it, but much of the functionality andflexibility would have to be removed. The tool itself has no

Constraint to GI S Implementation Degree of Constraint VeryNone Some Much

(D 1 2 3 4 5Complexity of software. 3.69 1.01 'Cost of hardware and software. 3.13 1.34 (rComputers not accessible to my students. 3.17 1.52Computers not capable of handling GIS. 3.03 1.49Lack of time to develop lessons incorporating GIS. 4.00 1.14Little administrative support for training. 3.07 1.43Little technical support for training. 3.24 1.36Class periods too short to work on GIS-based projects. 2.49 1.35Lack of useful or usable data. 2.42 1.22Lack of geographic skills among students. 2.54 1.09Variable skill levels among students. 2.88 1.14

Figure5. Perceived constraintson GIS implementation

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132answers-these come from human investigators.Th e integration of any technology is driven by avariety of factors, such as the existence of a district or statetechnology plan, accreditation, peer expectations, studentexpectations, training, and whether teachers are evaluatedon how they use technology. Motivation and perceivedbenefit are linked. Teachers decide to implement GIS mostoften because they want their students to understand data,the relationships among data, and to be able to performspatial analysis with those data (59 respondents). "Some ofour science projects are much more understandable whenthe data is [sic] analyzed spatially," wrote one teacher.

Next most often, because GIS is a tool developedand used in the professional world, teachers feel obligatedto use it (55 respondents). They write as if they have nochoice; that the advancements in technology require themto use GIS. Comments such as "it is worth the pain andsuffering because it has a fantastic potential and the futureapplications are tremendous" show two things. First, thewords "pain" and "suffering" show that GIS is perceived astruly difficult, but also, teachers are willing to workthrough challenges to implement it. It must be remem-bered that most teachers responding to the survey are notusing GIS. If most teachers who have seen demonstrationsof the tool are using GIS, it follows that many nonadoptersmight implement GIS if they could see a live demonstra-tion of it. This has implications for the amount and type oftraining that should take place for implementation toincrease.Teachers often mentioned that they are using GISbecause they had a specific task that they thought GIScould accomplish. GIS meets their need, whether it is ana-lyzing local wetlands or global demographics. The visualcapabilities of GIS were often mentioned. Specific job

opportunity skills fostered by GIS impelled some teacherto implement it.Only one teacher decided to implement GISbecause of the educational content standards. If teacherdo not believe GIS can help them teach the standards, anare increasingly required to teach standards-based lessonthis reveals an important constraint on GIS implementa-

tion. Teachers felt that the most important benefit thatGIS brings is real-world relevance to curricular areas(mean=4.14)(Figure 6), with repeated mention of specificprojects based on local areas.

Multiple regression with the degree of GIS implementation as the dependent variable was run to determinthe effect that independent variables had on implementation. Th e number of training hours, the number of yearsteacher had been teaching, the number of teachers usingGIS in the school, the amount of technical and administrtive support, and the number of conferences the respon-dent attended each year were used as independent vari-ables in the model. The R-squared value was .3030. Themodel explained about one-third of the degree of GIS us(Figure 7). Th e number of teachers using GIS in a schoolhad the highest t value, indicating that one can have morconfidence that this variable affects the amount of GIS uin a school more than any other. The implication for traiing is that GIS will more likely be institutionalized in aschool if teams of teachers from the same school aretrained at the same time.Because time spent in GIS training was the nextmost influential variable, training programs are critical ifteachers are going to use this technology. After teachersare trained, technical support in the school is a significanfactor. Administrative support was insignificant in deter-mining implementation-these teachers use GIS regardles

Benefit to GIS Implementation Degree of BenefitVery

None Some MuchCYa 1 2 3 4 5Helps teach national, state, or district standards. 3.05 1.35 1ssEnhances Learning. 3.97 1.07Provides exploratory tool for data analysis. 4.06 1.17Provides employment skills. 3.32 1.34 BfOffers team learning environment. 3.58 1.25Provides real-world relevance to subject. 4.14 1.13Provides integration of different subjects. 3.72 1.17Provides opportunities to partner with community. 3.46 1.41 11Enhances motivation and student interest. 3.95 1.13

Figure 6. Perceived benefits of GIS implementation

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134 Keconsidering all schools together. Spatial analysis testscores either did not change or declined between the begin-ning and end of the semester. Declining student perfor-mance suggests inadequacies with the spatial analysis testand a disincentive for students to thoughtfully complete itat the end of the semester. If a teacher uses GIS, he or sheis not able to spend as much time on "testable" contentthat would appear on a standardized test. GIS did not typi-cally appear to affect the stagnant or downward trend inspatial analysis scores. However, linear and non-linearregression models considering all schools showed that GISdid make a difference in the relationship between GIS andthe difference in test scores from the beginning to the endof the semester. Tests on GIS on final course grades sug-gest that average and below-average students improve morewith GIS than above-average students.GIS did have a significant effect on student perfor-mance on the lessons themselves. In four out of nine tests,students using GIS scored significantly higher than theircounterparts who were using traditional methods, anddemonstrated a better ability to synthesize, identify, anddescribe reasons for human and physical patterns. GISappears to improve learning of geographic content, not justskills. Furthermore, GIS fostered higher-order analyticaland synthetic thinking, and increased students' knowledgeof absolute and relative locations of places across theglobe. GIS appeared to affect performance by gender inonly 4 of 26 tests.Case Studies

Some evidence exists for the effectiveness of GIS,but the evidence is spotty. Standardized and spatial analy-sis tests did not fully assess the skills that the research lit-erature revealed that students are gaining with GIS. Th estandardized test was a typical geography test involvinggeographic facts and some spatial reasoning. Although thespatial analysis test was created to provide a tool that couldmore completely assess the skills covered by the GISlessons, it too was insufficient. To more fully understandthe effectiveness, case studies were needed. Case studiestook place at the same time as the experiments, so controlgroups and experimental groups could be observed. Casestudies relied on personal interviews with teachers and stu-dents, written and oral end-of-semester surveys, and partic-ipant observation over an entire academic year.Th e case studies hinted that GIS software allowsfor more creativity, but students may be more creative tobegin with on the computer. Computers have been a partof their world during their entire school careers. BecauseGIS requires the manipulation of graphics, charts, maps,and (especially) data, it gives students a fuller practice ofthe array of computer tools than spreadsheet, presentation,or desktop publishing software alone. Because it involvesaerial photographs, field data, satellite images, and maps ina real-world problem-solving environment, it provides stu-dents with an idea of the complexities of the world inwhich they live, and usually of their own communities.

Students wrestled with data relevance and data quality,identifying relationships and drawing interpretations.Case study teachers adopted GIS because it introduces technology to the students and to geography, pro-vides a way to address the geography standards, andmatches their constructivist teaching style. GIS increasethe teachers' ties to the surrounding community and totheir own professional community. Teachers use technolgy, including GIS, in many different ways. Inquiry-oriented learning with GIS can be difficult and time intensive.Although the computer lab manager's involvement wasfound to be critical, overall computer issues were sec-ondary to the time required to create and maintain lessonand data, structure of the school day, school politics, andspatial thinking.

GIS increased student motivation for geography,altered communication patterns with fellow students andwith teachers, stimulated students who learn visually, andreached students who are not traditional learners. Inquiroriented learning through GIS requires teachers and stu-dents to tolerate uncertainty, take risks, and to changetheir traditional roles. Studies of human cognition indicathat broad, well-organized knowledge is crucial for buildion what has already been learned and for problem solvin(Glaser 1984). Th e case studies showed that one of thechief constraints on GIS learning is not hardware or soft-ware, but the spatial perspective of teachers and studentsMost students lacked this spatial perspective and wereuncomfortable with the problem-solving style of learningof which GIS takes advantage.Summary

Teaching with GIS provides the opportunity fo rissues-based, student-centered, standards-based, inquiry-oriented education, but its effectiveness is limited primarby social and structural barriers. Technological barriers tthe adoption of GIS, such as limited hardware and soft-ware, were found to be less significant than time requiredto develop GIS-based lesson modules, inadequate studentaccess to computers, inadequate training, and pressure toteach a given amount of content during each term. GIS isbeing implemented primarily by veteran science teacherspublic high schools who perceive that GIS provides real-world relevance, provides interdisciplinary education, andincreases student interest. These teachers persist in developing and implementing inquiry-based GIS-based lessonmodules despite perceived lack of time and training.Results of experiments with standardized and spatialanalysis tests were mixed, although students using GISperformed significantly better on their assignments thanthose using traditional methods. Case studies showed thaGIS changes teacher and student roles, communication,and methods of teaching and learning.Research results supported six of the original ninhypotheses. First, social, educational,and politicalfactorswefound to be more important nfluences on implementing GIStechnology in education than technologicalfactors. Second,


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Geograplhic nformzationi Systems Technologyitmplemnenting GIS tools in high school curriculafundamentallyalters the manner of teaching in the classroom. Teachers whofavor the analytical, problem-solving style using a variety ofmedia are attracted to GIS. Third, implementing GIS altersthe manlnerof learning, where students grapple with thesame issues using the same tools as those in governmentand industry. Fourth, although their teaching philosophyand style usually did not change, instrictionzal methods thatteachers use with GIS are more closely aligned with the tenets ofnodern educationalreforn than methods the teachers usedbefore the introductionof GIS. Certainly, teachers can usereformist methods without GIS, but GIS requires teachersto deal with unknown results in an environment where theteacher is a facilitator of knowledge. Fifth, GIS technologyand methods are implemented in the secondary curriculumnpri-marily through the efforts of individual teachers, rather ha n viaa systematic, nationaleducational agenda. Sixth, a greateramount of professionaldevelopment and contact with the localcommnunzity is associated with teachers usin1g GIS than withteacherswho do not use GIS.

Tw o of the nine hypotheses were not supported,and one was supported only in part. First, the introductionof inquiry-orientedlessons that use GIS tools and methods didnot consistently increase the geographicskills as measured bythe nationalgeography standardsof secondary-schoolgeographystudents to a greaterextent than did the same lessons that didnot include GIS. Of the 87 tests conducted, only 18 showedthat GIS made a significant difference. Second,female stu-dents usi11g GIS did not demnonstrate a greater ncrease in skillsover the course of a semester than did male students Usinlg thesame technology and lessons. Rather, few gender differenceswere noted. Third, the use of GIS strengthensinquiry-orient-ed, problem-solving skills, but also strengthenied traditionalplace-namne geographic skills and knowledge. GIS does strengthenstandards-based skills and encourage spatial analysis, butGIS also increased geographic knowledge about locations.Implications of This StudyTeaching with GIS has not become institutional-ized; it relies on a teacher to act as the driving force. Mostteachers have not even reached the awareness stage inBinko's (1989) four stages to learning. This study's resultsimply that preservice education should include technology,geography, and GIS. Bednarz (1999) recommended thatteachers be taught with GIS in the same manner as theywill teach their students, with real-world problems to expe-rience how this model of learning works. Geography as awhole suffers from a lack of preservice training (Boehm etal. 1994). Bednarz and Audet (1999) went so far as to statethat "until consensus is reached that GIS has a role, thenwe will continue to see a directionless patchwork of[teacher training] programs" (p. 66). Without an effectivepreservice component, GIS implementation will be con-fined largely to inservice training, slowing the implementa-tion rate.

The predominance of science teachers' use of GISover geography teachers implies that geography teachers

have less computer access and training and that their train-ing is less constructivist in nature than their science-teacher counterparts. Preservice and in-service training forgeography teachers needs to be strengthened so that geog-raphy teachers feel confident that they can employ anopen-ended, computerized tools in the classroom.

Learning with GIS implies that the teachers' role isstill critical to learning, to provide goals and guidance.Otherwise, untargeted tinkering with the system is likelyto increase computer and data skills, rather than meetingcontent goals. GIS has the power to help teachers withouta geography background to teach the subject because ofthe difficulty of developing spatial analysis-based lessonswith paper and pencil. Th e finding that GIS benefitsbelow-average students implies that it should not be con-fined to the best students.

This research showed that GIS does not appear toenhance the inequities in schools found by authors exam-ining other computer-based instruction (Pisapia 1994).However, GIS may narrow the types of skills necessary forsuccess because it forces students to use graphics and com-puter technology. Rogers (1995) grouped individualadopters into five categories regarding their innovativeness:innovators, early adopters, early majority, late majority, andlaggards. Socioeconomic status, personality variables, andcommunication behavior influence the appropriate catego-ry. Teachers using GIS today are all innovators.This study implies that GIS implementation cannot beeffective without reform, and that reform can be expeditedby GIS implementation. Technology is a key component ofreform. Th e renaissance of geography education impliesthat as geography skills among both students and teachersimprove, the use of GIS will become more effective.Recommendations and Final Considerations

Insight could be gained by conducting a longitudi-nal study of the same schools, a national resurvey, theinclusion of K-8 and university instructors, learning styles,better assessments, and an affective analysis. Curriculummaterials need to be developed with an easy-to-use GISpackage capable of performing robust spatial analysis andproblem solving. I believe that the geographic perspectiveis in high demand partly because of the success that GISusers have had in solving problems. I recommend thatteaching with GIS be used as the primary method of inte-grating geographic thinking into other disciplines. Finallyand perhaps most importantly, I recommend that theapproach to GIS should not be, "How can we get GIS intothe curriculum?" but "How can GIS help meet curriculargoals?"

This study was entitled "The Implementation andEffectiveness of Geographic Information SystemsTechnology and Methods in Secondary Education, becauseGIS was found to be not just a technology, but also amethod. Th e methods that GIS uses to understand theworld make GIS attractive to those advocating educationalreform. These same methods, more than the tools, make

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KersGIS difficult to implement. GIS allows students to do geo-graphic -and scientific analysis, not just read about theresults of what others have done. Fo r GIS to be effective,schools must build an environment of curiosity aboutinvestigating the world. Downs (1994) advocated an empir-ically and theoretically sound, practical, relevant base ofknowledge for geography education. This research pro-vides lesson modules that teachers can test in their ow nclassrooms. It is hoped that this study will encourage oth-ers to pursue avenues of research and development to takeadvantage of GIS technology and methods to improve thequality of education.

REFERENCESAudet, Richard H., and Joshua Paris. 1997. GIS

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Bednarz, Sarah Witham. 1999. Impact and success:Evaluating a GIS training institute. Proceedings,19th Annual ESRI User Conference. San Diego,California. July. http://gis.esri.com/library/user-conf/proc99/proceed/papers/pap895/p895.htm.Last visited August 30, 2002.

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TITLE: The Implementation and Effectiveness of Geographic

Information Systems Technology and Methods in

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