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'll) 2 I I’pf-r WAX :22" 107063519 MICHIGAN STATE ENU II II III III III IIIIIIIIIIIIIIIIIIIIII II 00533 8656 3U!:.’ZARY Michigan State University II This is to certify that the thesis entitled ENERGY EDUCATION: PUBLIC UTILITY COMPANIES' PERCEIVED ROLES IN THE CLASSROOM BASED ON SIZE AND TYPE OF UTILITY COMPANY IN A NINE STATE MIDWESTERN REGION presented by Annette M. Schepper has been accepted towards fulfillment of the requirements for Master of Arts degree 1nHuman Shelter and Interior Design 2M4 gm Major professor Date ,7 22/” 07639 MS U is an Affirmative Action/Equal Opportunity Institution MSU RETURNI [Q*M_AI_E‘ML§: Place in book drop to LIBRARIES remove this checkout from w your record. FJELEE W‘III be charged if book is returned after the date stamped below. _ .__~ .. —. - w . ._--‘1F—-—..—-- —_..-... .____.‘[_ _——..—._.—..__——.._~ — ENERGY EDUCATION: PUBLIC UTILITY COMPANIES’ PERCEIVED ROLES IN THE CLASSROOM BASED ON SIZE AND TYPE OF UTILITY COMPANY IN A NINE STATE MIDWESTERN REGION BY Annette M. Schepper A THESIS Submitted to Michigan State University in partial fulfillment of the requirements for the degree of MASTER OF ARTS Department of Human Environment and Design 1988 / 1" l war I ABS TRACT ENERGY EDUCATION: PUBLIC UTILITY COMPANIES' PERCEIVED ROLES IN THE CLASSROOM BASED ON SIZE AND TYPE OF UTILITY COMPANY IN A NINE STATE MIDWESTERN REGION BY Annette M. Schepper The perceived roles in classroom-based energy education of utility companies in a nine-state midwestern region were the focus of this study. The following characteristics of public utility companies were explored: the location, type and size of utility, the types and extent of energy education provided by the utility, the major characteristics of the educational institutions served by the utility, and the methods by which the educational materials were disbursed. From this study it was found that: 1) 38.5% of the responding companies had a current, written energy education policy, 2) although more than one-half of the respondents indicated no current policy, over one-half employed personnel whose job description emphasized energy education, and 3) early school years and post-high school years are not receiving a comparable amount of energy education as grades 4-12. Copyright by Annette M. Schepper 1988 ACKNOWLEDGEMENTS Many people have directly or indirectly contributed in a variety of ways throughout my graduate studies and to this research project. I wish to recognize the following: Dr. Joanne Keith, as my thesis adviser, for her professional guidance and patience throughout the completion of this study. Mr. Richard Graham, as my committee chairperson, for his support and interest in my graduate program and for his friendship. Dr. Marty Hetherington, a member of my graduate committee, for his time and interest in this study and for his special knowledge and recognition of my professional background. Cynthia Fridgen, a committee member, for participating on the committee during the initial drafts of this project. Many friends, both professional and personal, who gave of themselves when times were tough; friends who didn’t feel slighted when my time was short and couldn’t be given and they, in turn, gave the time for me. Dr. Frederica Kramer, Indiana State University professor, colleague, and very good friend, for her genuine iv interest in me throughout my undergraduate, graduate,and professional work: for realizing a potential in me that I couldn't always acknowledge and for inspiring me to strive for things to make my life better. Dr. Tim Mulkey, my "computer expert," Indiana State University, for setting no limitations on what I asked of him: for cooperating in an endless fashion and contributing time, patience and encouragement; for a boundless willingness to help. The late "Uncle Linc" Stearley, Aunt Ann, David and Karen Stearley, for endless emotional support, for serving as a "sounding board," for providing a roof over my head and financial support; special thanks for their true under- standing of what a graduate program entails. Jeanette Schepper and Marty Vaughan, my younger sister and her fiance’, and Jeanine and "Pete" Peterson, my older sister and her husband for their individual contributions. Marty, for long distance phone calls to give me a lift, for telling me to stick with it and get it done, for seeing "fun" in any situation. "Pete", for "giving" of Jeanine and her time away from him, for offering words of encouragement and praise and for making me laugh when laughter was needed. Jeanette, for computer time, research and financial assistance, for many late evenings of putting up with one another, for realizing that all projects involve "give and take." Jeanine, for time, writing and editing skills and serving as my "in house" grammarian; for always seeing a light at the end of the tunnel; for devoting special "work weekends" in a variety of locations. Alva and Nadine Schepper, my parents, for guiding me throughout the years; for letting me grow at my own pace and in my own way: for acknowledging my decisions as mine, when such didn’t always comply with their wishes: for financial support: for setting high standards to result in a bright future for their children. vi TABLE OF CONTENTS LIST OF TABLES O O O O O O O O O O O O 0 LIST OF FIGURES . . . . . . . . . . . . Chapter I 0 INTRODUCTION 0 O O O O O O O O 0 Introduction . . . . . . . . . Purpose and Significance . . . Definition of Energy Education II. REVIEW OF LITERATURE . . . . . . . Energy 0 O I O O O O O O O O 0 Energy Education . . . . . . . Theoretical Framework . . . . . III. METHODOLOGY . . . . . . . . . . . Research Design . . . . . . . . Sample Selection . . . . . . . . Survey Research Method . . . . . Collection of Data . . . . . . Analysis of Data . . . . . . . . Independent Variables . . . . Test Variables . . . . . . . Assumptions . . . . . . . . . Limitations . . . . . . . . . Research Questions . . . . . . Statistical Analysis . . . . . IV. FINDINGS AND DISCUSSION . . . . . Sample Description . . . . . . Potential Factors Affecting Energy Education by Utility Companies . vii Page ix award H x) 12 17 24 24 24 25 25 26 26 27 28 28 29 29 31 31 53 V. CONCLUSIONS AND IMPLICATIONS . . . . . . . Conclusions . . . . . . . . . . . . . . . Implications . . . . . . . . . . . . . . . APPENDIX A. Questionnaire . . . . . . . . . . . . APPENDIX B. Questionnaire Cover Letter . . . . . APPENDIX C. Questionnaire Initial Follow-Up letter O O O I O O O O O O O O O O O O O 0 APPENDIX D. Questionnaire Final Follow-Up Letter APPENDIX E. Majors Acceptable For Post-High School Graduate . . . . . . . . . . . . . . . . . APPENDIX F. Energy-Related Training For Energy Education Employee . . . . . . . . . . . . APPENDIX G. Average Number of Contacts to Institutions . . . . . . . . . . . . . . . APPENDIX H. Educational Institutions' District meations O O O O O I O O O O O O O O O 0 APPENDIX I. Educational Institutions’ Enrollment APPENDIX J. Energy-Related Educational Materials APPENDIX K. Topics Addressed in Energy-Related Materials . . . . . . . . . . . . . . . . APPENDIX L. Types of Energy-Related Materials . . REFERENCES CITED . . . . . . . . . . . . . . . . . viii 57 61 68 69 70 71 72 73 74 75 76 77 78 79 LIST OF TABLES Number of Participating Companies by State Location of Main Office . . . . . . Size of Utility Company Compared to Type of Service . . . . . . . . . . . . . . . Current Energy Education Policy Based on Size of Company . . . . . . . . . . Current Energy Education Policy Based on Type of Service . . . . . . . . . . Energy Education Since 1970 . . . . . . . . . Method of Contacting Educational Institutions Sources of Energy Education Materials . . . . Cost of Energy Impact on Educational Materials . . . . . . . . . . . . . . . . . . ix Page 33 37 42 43 45 49 52 55 LIST OF FIGURES Figure 1. 2. 3. 4. 5. 10. 11. 12. 13. The Human Ecosystem . . . . . . . . . . . . . . Cybernetic-Decisional Model of Social Change . The Remodeled Human Ecosystem/Social Change Version . . . . . . . . . . . . . . . . Nine State Midwestern Region . . . . . . . . . Size of Utility Company Based on Number of Counties Served . . . . . . . . . . . . . . Type of Service Provided by Utility Company . . Percent of Companies with Current Written Energy Education Policy . . . . . . . . . . . . Percent of Companies Not Having Current Energy Education Policy (n=31) by Presence or Absence of Energy Education Policy in the Past . . . . Percent of Companies Not Having Current Energy Education Policy (n=31) by Plans for Future Energy Education Policy . . . . . . . . . . . . Energy-Related Activities by Date . . . . . . . Educational Background of Energy Education Employees . . . . . . . . . . . . . . Financial Difficulties of Company . . . . . . . Energy Condition Systems Model . . . . . . . . Page 19 21 22 32 35 36 39 40 41 44 47 54 6O CHAPTER I INTRODUCTION Time is a force in the lives of all. Time involves aging, growing, changing. Aging is inevitiable, growing occurs physically and emotionally, and changing is often undesired though necessitated. Some changes are positive and others are negative. Time and factors created over time caused changes in the production, use, and expenditure of energy -- specifically energy created through the use of fossil fuels. Early in the 1970’s many people began to acknowledge what a few had said as many as 20 years earlier -- that indeed, the world, and specifically, the United States, was in an energy crisis. The United States had hit its peak in production of oil and natural gas and production of these sources of energy would decline in succeeding years. The country was no longer a net exporter of fuels, but net importer and foreign countries were pushing the United States into a very difficult position by raising prices. Energy was an everyday word in the lives of all and an issue to be addressed immediately. Just as passed time could never be returned, neither would consumed sources of energy be replenished. In the 2 lives of all, time is finite and the issue of energy had finite boundaries. Time was not an ally and change was no longer a choice. Across the United States, all facets of humanity were forced to deal with the issue of energy. No life was untouched by the situation and many felt the energy crisis in terms of constraints or inconvenience -— gasoline prices escalating and limited mobility for many: some lost jobs: prices for consumer goods raised. Lifestyles were affected and the alarms were sounded for aid. Demand was made for public gas and electric utilities to come to the rescue. They were the providers of forms of energy used by everyone in some aspect of daily living and they were a visible target for consumers. Gas and electric utility companies were charged with making changes and helping their customers to understand and accept change. With the issue of energy and with gas and electric utility companies feeling the demand for solutions, the question of how to solve the problem came to the forefront. Many paths to solutions were suggested and one of these was energy education. The generally accepted definition of energy as "the ability to do work" coupled with the definition of education as "the imparting or acquiring of general knowledge and development of powers of reasoning and judgment," gave meaning to the term energy education. Utility companies targeted a part of the population they served to receive specific energy education, "the imparting or acquiring of specific knowledge concerning various 3 aspects of energy." This was to include energy conservation, economics, environmental interaction, production and resources, social and political issues, scientific concepts, history, careers, and safety. Just as health officials today are educating to "Just Say No to Drugs" and educating that "What You Don't Know About AIDS Can Kill You," so utility companies chose to educate about various aspects of energy. Education of students, at any level of formal education, was targeted and supported because students would be future adult decision-makers, because students could influence peers and because the thoughts of students could be altered and molded. By educating a targeted population, company officials hoped that the newly educated would spread the word to other consumers. As the issue of energy and energy education was confronted by gas and electric utility companies it became apparent that the institutions of education and business/industry should not seek solutions as separate entities but in a combined approach. This combined approach would focus on a human ecological perspective. A human ecological perspective would focus on the educational system and the business/industry system and their relationships. It would also focus on technology in the settings most critical for human development: the family, home, and community. To resolve the energy issue, gas and electric companies would combine with institutions of education and use a human 4 ecological perspective to initiate a social change related to energy. When social change occurs, society processes information, receives feedback and interacts between information and action. Changes occur within a social system because of adoption or rejection of new ideas and information. That adoption or rejection has an effect on society. Social change is a result of communication. Communication is education and education is communciation. magnificence The purpose of this study was to investigate public utility companies' perceived roles in energy education in the classrooms in nine midwestern states. In 1983, a study by Janet White and John M. Fowler, as a project for the National Science Teachers Association, entitled "Energy Education in Schools: Results of a Survey of the Penetration of Energy Education into the Classroom," was conducted to determine the content and extent of energy education into the classroom. The results of this study indicated that energy education in the classroom was considerable and extensive. Additionally, the survey noted that most educators who taught energy did so from a personal belief and not so because of a formal directive. Materials used by these educators were most frequently self-produced: other materials were cited, including those produced by business/industry (specific business/industries not noted); however, the business/industries materials seemed geared for 5 secondary vs. primary level. Nowhere within this study was a direct involvement of utility companies in energy education addressed. From that study and using it to provide a preliminary basis for this research, this study involving utility companies and their perceived roles in energy education seemed to be a topic worthy of consideration and examination. We Education as defined by the Random House College Dictionary, is "the act or process of imparting or acquiring general knowledge and developing the powers of reasoning and judgment." The simple definition of energy is "the ability to do work.” Energy takes a variety of forms: chemical, electrical, mechanical, and thermal. Energy education is the imparting or acquiring of specific knowledge concerning various aspects of energy. This includes energy conservation, economics, environmental interaction, production and resources, social and political issues, scientific concepts, history, careers, and safety. While energy education is meaningful for all ages, it is imperative for learners during their years of formal education. The educating about energy should be continual, with each succeeding year building on the preceeding years of knowledge. 6 Providers of this education should be accepted sources of the facts: educators, researchers, public utility companies, and government agencies. The use of these providers should avoid bias and enable a broad based presentation. The outcome of the specific knowledge gained by the learner should be learning to use energy in ways that have the least possible impact on the earth, to practice conservation and to discover new energies for the future. Education concerning energy involves making choices, meeting challenges, applying critical thinking and stimulating creativity. Energy education involves addressing lifestyles to the realization that where there is life, there is energy, but where there is energy there may be life. Energy education recalls past policies and practices, affirms the present, and foresees the future. This education provides a positive outlook for the future. It needs to be all-inclusive in nature, have content which is precise and be geared toward enabling consumers to make sensible decisions about their futures and lives. CHAPTER II REVIEW OF LITERATURE 322:9! In the field of medicine, a large amount of attention is directed toward heart disease, heart problems, and heart conditions. Cardiac patients deal with their condition for their lifetime. If they do not adjust (or modify) their lifestyles to meet their physical problem, their life span may be shortened needlessly. This medical condition can be likened to what this researcher chooses to refer to as an energy condition. Consumers must adjust their energy lifestyles to the ramifications of the energy condition. While failure to adjust to the condition will not directly shorten the life span of the individual, such failure could eventually shorten the life span of all individuals. To better understand the energy condition, this researcher believes it is helpful to review the "past" of energy in the United States. The United States' concern about energy is relatively recent. As a country for slightly over 200 years, we have not had the number of years that Old World countries have 8 had to be concerned about depletion of non-renewable resources. As a result of not having the many years of depletion the United States has also not had the years to sit and ponder how to do without certain resources and to develop alternate means. According to a chronology published by National Geographic in its special report in the public interest ”Energy" (National Geographic, 1981) the first recorded information about energy occurred in 1750. In 1825, natural gas was extracted in the United States, but was for years considered a nuisance and not really used as fuel until 1925. While the oil industry began in 1859, oil did not dominate U.S. energy sources until nearly 100 years later. By the late 1940's the U.S. became a net importer of oil vs. a net exporter and in 1970, the U.S. oil production peaked. Two years later, natural gas production in America was at its top and Arab nations began to embargo oil to the United States. In a six month period in late 1973 and early 1974, world crude oil prices increased four-fold and the United States was involved in what is now called the energy crisis. Norman Metzger, author of Egergy,_1he_§gntinuing_§ri§i§, states that technologies in the United States were developed and molded to fit the use of fossil fuels. More fuels were pumped and mined and more and more technologies consumed those fuels. Plentiful energy . . . was an American birthright . . . Conservation of energy, and harvesting of 9 finite resources, was not considered, thought necessary, or perhaps even wise given the immense resources and industry and the attained standards for living. Metzger, 1977 Those who study and write about the energy condition often refer to exponential growth and doubling time to aid the reader in understanding the phenomenon of how much our usage of energy sources has increased over a relatively short amount of time. With exponential growth and doubling time, increases in usages or consumption do not grow at the same amount in the same period of time. Rather, beginning numbers double and that number doubles, and that new number continues to double and double and double. An example of exponential growth that is cited in several writings, but which I have not personally verified, involves 1 grain of wheat on the first square of a chessboard. Square 2 requires 2 grains, square 3, 4 grains, square 4, 8 grains, square 5, 16 grains, square 6, 32 grains and so on until by the 64th square, the number of required grains equaled 500 times the 1976 annual worldwide harvest of wheat (Barlett, 1978). It is obvious that exponential growth can quickly lead to enormous numbers and the increase in doubling is about equal to the total of all previous growth. In discussing electrical usage Barlett notes that "many people find it hard to believe that when the rate of consumption is growing a mere 7% per year, the consumption in one decade exceeds the total of all previous consumption." For consumers who have no ideas about exponential growth, the 10 gravity of the energy condition may seem trivial. For those who do even minimal study on exponential growth and doubling time, the seriousness of the condition is much more pronounced. Yet Barlett notes an equation called EET (exponential expiration time) used to determine the period of time necessary to consume known reserves of a resource and states that "this equation is known to scholars who deal in resource problems but there is little evidence that it is known or understood by political, industrial, business, or labor leaders who deal in energy resources . . ." Considered an expert on world energy resources and predictions of their expected depletions and discovery, Dr. M. King Hubbert, a research geophysicist, teacher, author, and lecturer, was once looked upon with disdain by many, specifically those in the American petroleum industry. In a 1956 address to the Southern District of the American Petroleum Institute, Hubbert stated that the peak of American petroleum production would occur within 10 to 15 years (Pazik, 1976). Dr. Hubbert noted other facts to his audience and his listeners heard him but vehemently denied what he had to say. During his presentation Dr. Hubbert also presented his now famous "Hubbert Production Cycle Curve," a graph showing how a resource, such as oil or natural gas, will be exhausted. The curve illustrated that production of a resource starts slowly, grows gradually for a period, then escalates and grows very rapidly, peaks and never recovers, and slides down and down toward an end. 11 Hubbert also illustrated how increasing the estimates of totals of an exhaustible resource to be produced did not dramatically alter the number of years needed to deplete that resource (exponential growth). The Harmless Little Hubbert Curve had a great effect on the petroleum industry and its signifigance is even greater today. Since the energy crisis of the early 1970's, there have been numerous publications on a variety of aspects of energy. Authors have had their views published in technical and trade publications, as well as in some unlikely places -- for example the article "Our Oil Predicament" by Pazik was published in the November 1976 edition of Fishing Facts. It seems that there is a large amount of information on the subject, but whether the public chooses to educate themselves with this information is questionable. If the adult public is not using the material, that perhaps indicates an even stronger need to formally educate the student public with appropriate subject material. School age people are at an age in which they are forming habits of thought, as well as action. If a new energy ethic is to permeate society, it is our student population who will make it happen. The classroom provides the best opportunity for a more intense consideration of energy issues. Wisconsin Power and Light Company, 1987 There is no doubt that we are in an energy condition. It was apparent to a few as early as when Hubbert delivered his speech in 1956. It is still apparent today. To what extent we control this condition depends on everyone. Our lives have not been totally up-ended by the energy condition. 12 The only SURE way to avoid a catastrophic disruption of our lives is to change from the most wasteful users of energy on earth to one of the stingiest. We need to get off the exponential growth for growth's sake joyride we’ve been on since World War II . . . This means changing our way of life, our national outlook on people. Pazik, 1976 e du 0 We have seen the past and it doesn't work. Dwight David Eisenhower To what reference Dwight Eisenhower made this statement is unknown: however, the quotation could be applied to energy consumption, depletion and conservation and where society stands in its energy survival today. The word energy carries a variety of connotations and invokes a multitude of feelings in people: concern, apathy, fear, ignorance, torment, enticement, abandonment, burn-out. It is this variety of feelings, with no consensus on the subject causing unanimity of action that results in the term energy continuing as vocabulary in our population. The word energy according to Random House, is derived from the late Latin form energia and the Greek form energeia meaning activity or to be active. The word, in our every day usage, has recently meant oil, gas, electricity, solar, nuclear, wind, geothermal power, as used by consumers in daily living, for the necessities and luxuries of life. Writings and thoughts on the realm of energy seemed to have increased greatly since the early 1970's and 13 reflections of the past energy practices, comments on present procedures and predictions for future routines are reviewed and written. When the now renowned energy crisis of 1973-1974 surfaced, everyone was encouraged to join the cause. During the term of Jimmy Carter as President, his statement concerning energy ". . . the greatest challenge our nation will face during our life-time . . . with the exception of preventing war . . ." was being frequently quoted. Articles from variety of experts - scientists, educators, sociologists, psychologists, politicians, energy consultants, and others - highlighted the dilemma America and the world faced; the ultimatum to the public to make drastic changes in its energy lifestyle was issued. John Naisbitt, social forecaster and author of Megatggngs, noted in that publication that everyone uses energy and "perhaps, because it affects more of us individually than any other social issue, it (energy) is a catalyst for local initiative." "While people may not be bothered by transportation, education, or housing concerns energy is used by all." (Naisbitt, 1982) Olsen, in a 1981 publication, remarked that the power of persuasion, via mass media and publications, was used to sway persons to the reality and severity of the energy crisis. Olsen further stated that several studies had shown that general energy attitudes did not seem to initiate conservation practices by consumers but social pressure or 14 belief in a personal duty to do one's part resulted in conservation actions. Cetron and O'Toole (1982), in reviewing how America and her citizens got into the energy crunch refer to a Bottomless Bucket and a Bottomless Thirst. In that bucket with no bottom, Americans could not satisfy their hunger for energy. The use of energy became more financially appealing and resulted in even greater usage with no attention to a future for energy. The belief yielded that things could only get better, never worse. Ignorance in energy was bliss. Use of energy ran rampant and needs and means of conservation were taboo words. There were a few warnings of an impending energy crisis, as early as the late 1950’s, but, those warnings were seen as unfounded like the boy who cried wolf. Everyone blamed everyone else when predication became reality and no one wanted to be held accountable. Essentially, all were to blame for the bind of the energy crisis, and pessimists and optimists alike saw bleak futures in their crystal balls where energy was the topic. Prior to the early 1970’s, little attention was placed on energy - in any realm - or to energy education. When the energy crisis peaked in 1973-1974, some people acknowledged the severity and effects of the problem, both present and long range. The push for energy education was not strong, due to a lack of materials to teach energy education and to public passiveness (Posthuma, 1978). 15 There seems to be a variety of opinion in the literature reviewed as to who should approach the retraining of consumers attitudes, usages and conservations of energy, and as to how these approaches should be made. For whatever discipline one chooses, there is a variety of supportive material in that area. Accordingly, a number of people (many of whom are educators) believe education is vital in the energy situation. Skeptics have come to realize the energy problem is real and will become greater in the future. Posthuma (1978) states that today’s young people must comprehend energy and all of its ramifications. The need is urgent, as lives depend on it. Posthuma (1978) further states in the National Education Association publication, The energy crisis we now face will require not only new technology, but new values and attitudes as well. We must change our habits of consumption. We must approach self indulgence with a new perspective - an understanding that we are members of a human community with a common plight and a common fate . . . Perhaps our schools and colleges need to realize that the energy challenge will confront us all for the rest of our lives, that our environment is shaped by our patterns of energy consumptions and is passed on as a legacy to all of our children . . . Lillian Clinard and Abraham Farkes (1978), of the University of Tennessee, are staunch advocates of behavioral modifications as a result of attitudinal change. These authors believe this approach of attitudinal change as a result of behavioral modification can be addressed in educating the public, specifically students. Education of 16 students is approached and supported because students are tomorrow’s adult decision makers, because students can influence their own peers and because students’ thoughts, attitudes and values are still pliable and moldable, through their daily exposure of educational materials and media. Two more significant points stated by Posthuma (1978) are: l) "The thinking seems to have been that the energy crisis was a temporary inconvenience. But time has taught us that what we call ‘the energy crisis’ is, in reality, a multifaceted and long-term problem. Educational strategies designed to meet the challenge must be created with this fact in mind . . ." 2) "A related point is that an alarmist approach to energy education does more harm than good. Facts learned for the sake of averting a crisis are quickly forgotten when promised disaster fails to erupt on schedule or fails to produce the predicted consequences." If, as Clinard and Farkes (1978) contend, students are to be energy educated, then those who conduct that education must also be educated. Consequently, several articles have supported energy education. Gerald Marker (1980) notes that " . . . most strategies for resolving the energy situation involve long term solutions and education will play an important role in whatever national energy program is finally adopted." Crawford (1981) states that because of the abundance of energy sources, because of the international forces, social 17 attitudes, politics, and economics which effect energy resources, and because of the dynamic situations involving energy use, "educators are frequently reluctant to include energy education in their curriculum . . ." Morris and Jenson (1982) note in their article regarding energy education, that now more than ever energy education is essential and must become part of the school curriculum. In 1983 Allen says that gestures are inadequate responses to the pressing energy crisis and other environmental issues. We stand at a crossroads where what we do and the courses we take will have an enormous impact upon the future. It is also his opinion that our energy problems are not threats to American materialism, but challenges to a better life in a better community of fellows. To meet these challenges for a better life the responsibility of providing energy education should be divided among educators, researchers, public utility companies and government agencies. These providers must acknowledge a variety of consumer learning styles and develop teaching methods to accomodate all consumers. As the energy condition changes, energy education must adjust to reflect those changes. Theoretical Framework The theoretical framework for this research is threefold. First, the proposed study of energy education 18 and public utility companies’ perceived roles in the classroom incorporates the human ecological approach in a significant way. Human ecology focuses on the individual and reciprocal relationships with other individuals and technology in the settings most critical for human develop- ment: the family, home, and community. The use of an ecological framework in this research will strengthen the understanding of the relationship of behavior to environ- mental conditions and interactions between individuals/ families, institutions and organizations (Figure l). The second component of this framework is that of a theory of social change. Sociology is the study of human beings as they function in societies and the social relations and institutions in which they participate. Participation in society frequently involves change. These changes are of both a conscious and unconscious nature. According to Rogers and Shoemaker (1971), social change is the processes by which alteration occurs in the structure and function of a social system. They are as follows: 1) invention -- new ideas are created or developed, 2) diffusion -- process by which these new ideas are communicated to the members of a social system, and 3) consequences -- changes that occur within a social system as a result of the adoption or rejection of the innovation. Dominant in the review of literature on social change is the theory expressed by Bell and Mau (1971). These professors of sociology express social change within a l9 Natural Environment Space-Time / \. Physical 4—» Biological Human Environed , Socio Biophysical , ' U'm ~~ physical f X Socio Socio Social 6—0 Psychological biological H cultural .a Human Behavioral Environment Human Constructed Environment Figure 1.--The Human Ecosystem 20 "cybernetic-decisional model" (Figure 2). This model is an attempt to convey society as a process, with feedback as a fundamental interaction between information and action. Decisions within the model may be made by any individuals of small or large groups. Highly important within the model are images about the future. This model is perpetual and factors from past and present influence and formulate the future. The scope of an individual and that individual’s beliefs and values are paramount in the model. Within this model, feedback is continually evaluated, reevaluated and applied. As stated by Kauffman (1976), The difference between human and natural systems stems from the unique human capacity for imagining the future. A thermostat can only react to what is happening at the moment; human beings can pre-react to what they think will or might happen. This introduces a new crucial element to the system, a new kind of loop which depends on feed-forward instead of feedback. This researcher developed an integration of the human ecosystem model and cybernetic-decisional model to generate a third perspective - The Remodeled Human Ecosystem/Social Change Version. This version illustrates that it is necessary to travel through all stages of the cybernetic-decisional model but each stage is influenced by values and governed by the human ecosystem (Figure 3). Change occurs when a new idea’s use or rejection has an effect. Social change is therefore an effect of communication. Communication is education and education is communication. 21 EXOGENOUS FACTORS {moi and toe-oil (A) BELIEFS ABOUT THE PAST HUMAN BIOLOGY z 'c THE POPULATION E I/ + THEECOSYSTEM I T O l (8) 82:02:53 RESOURCES g ’ gamers THE ORGANIZATIONAL Z PRESENT SETTINGS: familial.“ ‘\ MM” ”W educational. religious. ‘\ «coll comm protective. political, \\ + ”Wt economic. social. etc. BELIEFS ABOUT CAUSES AND EFFECTS <._.._..-. monéIFoUAL VALUES COLLECTIVE """..":.':.'..“..‘:""“" ACTION “ “mm... “OM I l DECISION-MAKING IMAGES PROCESS OF THE FUTURE Inn-q...“ end when. soot-u- (oonioimor We“: in count; who 05 Icon-loam about mine-I hm. bond or our». m «and: value and emu) M or long no...) > Product but, doc-cum Queen. ............. + cum ‘0’.“ m. ‘Hoomtd m .4 «m Figure 2.--Cybernetic Decisional Model of Social Change fl «mono: mwcncu Hmwoom\Eoum>moum amps: Coamoosom m5. lam ouzwfl I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I I _I F_—___--_——__-—______——-__ 629305 COED: mo:_o> 368$ .m.uo:m\3maou poo .Eomoi Son 3030 £023 22:“. of Io memos; 303.300 cozu< 92:“. IIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIIII L 23 Further review of the literature notes the following. The second half of the 20th century is different from any other period in the history of the human race, different in ways that have important implications for education. There are the ”. . . multiple threats to the survival of the entire human species," (Kahn and Weiner, 1967), ". . . the sharp increase in the rate of social change, both in the U.S. and globally . . ." (Wolsy and McElroy, 1975), ". . . the sheer complexity of society . . . resulting in there no longer being . . . any simple decisions" (McHale, 1969), and ". . . a major increase in the need for anticipatory solutions" (Tugwell, 1973). According to Kauffman (1976) all of this is particularly a problem for a society like that of the United States, which has been accustomed throughout its history to ignore problems until they reach a crisis point and then react to them with great efficiency. This makes sense, as long as the crises are not severe enough to destroy the entire society. Unfortunately, many of the problems we face today -- such as resource depletion, population growth, famine, environmental disruption, and nuclear proliferation - have a fatal combination of two characteristics: the cost of a full-blown crisis is unacceptably high and, in each case, the point of no return is passed before, sometimes long before, the crisis point is reached. CHAPTER III METHODOLOGY 5 ar s' This study is comparable to the 1983 study by the National Science Teachers Association. The present study was applied and exploratory in nature. It was non-experimental research with the purpose of investigating energy education and the public utility companies’ perceived roles in the classroom of nine midwestern states. The states included were Illinois, Indiana, Iowa, Michigan, Minnesota, North Dakota, Ohio, South Dakota, and Wisconsin. The research setting was natural. The unit of analysis for this study was a utility company as reported by management and/or educational service personnel. The time dimension was cross-sectional. Within this chapter, the discussion will center on the following points: sample description, survey research method, analysis of data, assumptions, limitations, research questions, and statistical analysis. Sample Selection The sample was selected from a nine state midwestern region. The states included were Illinois, Indiana, Iowa, 24 25 Michigan, Minnesota, North Dakota, Ohio, South Dakota, and Wisconsin. The utility companies selected were derived from lists made available by The Edison Electric Institute and The American Gas Association, whose objectives are to provide energy information to schools, business, industry, and community agencies. A random sampling would have been implemented if greater than 100 public utility companies had been listed. A method of random sampling was not required due to receiving fewer than 100 names on the lists. All public utility companies were sent a preliminary letter concerning their energy education policy in the past, present, and future. The response to the letter aided in determining the contents of the questionnaire and feasibility of the study. The research method was based on works by Dillman (1978). rve esea c ethod o ata Because procedures for conducting mail surveys have limitations, the response rate is sometimes low and confidentiality of the results is often questionable. Dillman proposed the Total Design Method (TDM) which scrutinizes all aspects of the topic in question and of the administrative detail that might affect response behavior. Basic considerations using TDM were: construction of questions, ordering of questions, booklet format, printing procedures, cover letter, follow-up mailings, postage, total costs, and time frame. 26 The data were collected the months of August and September, 1987. The collection consisted of a preliminary letter, administering of a questionnaire, and follow-up mailings. The data collection material used in this study are included in Appendices 1, 2, 3, 4. Waste Energy education is defined as the imparting or acquiring of specific knowledge concerning various aspects of energy. This includes energy conservation, economics, environmental interaction, production and resources, social and political issues, scientific concepts, history, careers, and safety. Several variables related to energy education were included in this study. The following discussion operationally defines the variables for the purposes of this study. WM 1. State.-- A territory defined by a set of boundaries which are determined geographically or by law. 2. Size.-- The number of counties in a given state served by a public utility. 3. Type.-- The service provided by each public utility company surveyed: gas, electric, and gas/electric. 27 W 1. Energy Education Policy.-- A procedure or program that directly emphasizes energy education in educational institutions. 2. Energy-Related Activitieu.-- Functions that stress the topic of energy and its importance. Example of these include science and/or energy fairs, workshops for teachers, National Energy Education Day programs, energy-related assemblies, energy-related field trips, career days, Science Olympiad, and teacher panels to aid in development of educational materials. 3. Energy Education Employee.-- One whose job responsibilities are or include administering energy education to educational institutions. 4. Energy Education Institution.-- An educational establishment that is served by a public utility company’s energy education employee. 5. Energy Topics.-- Materials that address the subject of energy. These include conservation, economics, environmental interaction, production and resources, social and political issues, scientific concepts, history, careers, and safety. 6. Energy Material Source.-- Suppliers of energy-related items which include in-house development, trade organizations, and outside contractors. 7. Materials.-- Types of energy-related items provided by public utility companies. Examples are slides, films, 28 filmstrips, overhead transparencies, audio tapes, computer software, teachers’ guides, curriculum guides, and evaluation instruments. After the data collection period, the raw data were compiled and transferred to coding sheets. With the assistance of a statistician, the data were analyzed using the Statistical Package for Social Sciences (SPSS). Assumptions 1. Survey research is a valid method of obtaining information from a sample of respondents in an exploratory study. 2. The Edison Electric Institute and American Gas Association are reliable sources for listings of public utility companies. 3. The survey respondents (management and/or educational services personnel) are assumed to be representative spokespersons of the public utilities. 4. The survey was designed so that respondents would be able to record the requested information accurately. im' a ' s As with any project, limitations in this research have been suggested. Each of these limitations could have influenced the data obtained. These limitations are: 1) Length of employment in the public utility by respondent of questionnaire. 29 2) Effect of time frame of the mailings of questionnaires is not known. Perhaps a time early or late in the school year, when public utility companies would be gearing up or winding down their energy education programs would have been more appropriate. 3) The socio-economic area of the companies and the populations they served were not fully explored. Affluent areas, where education in general receives higher priority, might place more emphasis on energy education. 4) Accuracy of response may be affected by questionnaires not returned and/or questionnaires returned but not answered completely. esea c ues ' 5 Question I. Is energy education provided to schools by public utility companies? Question II. To what extent do public utility companies provide energy education? Question III. What are the major characteristics of the educational institutions served by the public utility companies? Question IV. What types of energy education do public utility companies provide? Statistical Analysis Statistics should aid the researcher in discerning the meaning of the data. Historically, statistics have been a 30 result of classifying, summarizing, and communicating methods and techniques (Steel and Torrie, 1960). Descriptive statistics involves the collecting and manipulating of data and formulates quanitative information referring directly to samples and indirectly to populations. These procedures effectively lead to a complete description of the data and gives the researcher an accurate foundation from which to make the transformation from samples to populations. Therefore the term descriptive statistics defines the type of statistical analysis in this study. CHAPTER IV FINDINGS AND DISCUSSION This chapter contains the sample description and the results of analysis of the data. Each research question is stated and then followed by the findings and discussion. Sample Description The sample was selected from nine states in the midwestern United States. The states were Illinois, Indiana, Iowa, Michigan, Minnesota, North Dakota, Ohio, South Dakota, and Wisconsin (Figure 4). A total of 77 research questionnaires were distributed to utility companies throughout this region. This selection was based on information from the Edison Electric Institute and The American Gas Association whose objectives are to provide energy information to schools, business, industry, and community agencies. Some overlap existed concerning the service area of the utility companies. Seventy-seven questionnaires were distributed. The overall number of questionnaires returned was 54 for a total response rate of 70% (Table 1). However, nine of the fifty-four questionnaires represented utilities which served in more than one state. 31 32 :onwm cuoomozoflz ounum wowzai.q ouswam 33 mm 0.05 cm 8E3 mm 82358 32:: 8 mocmosoamom moufimccofiumooo ucom moufioscofiummsc mo ucmouom mo nonssz HmBOH mo umneoz HMBOH wm<222m mamfiooom oumum mo unmouom do “352 mowcnaeou mo nonesz ooflmmo sflmz mo coflumooq oumum >9 newsmasoo wcHumafiofluunm mo HonESZII.H mqm60 Counties n=2 n=3 n=5 38 Currently 38.8% of the utility companies have an energy education policy. The states showing a stronger commitment to energy education were Wisconsin, Ohio, Illinois, and Iowa. Of the respondents answering no to having a current policy 80.7% did not have a policy in the past and 70.9% are not planning a policy in the future (Figures 7, 8, 9). Having a policy does appear to be related to company size: an increasing trend from small to large companies is noted. (21.7%, 42.8% and 77.7% respectively). However, the extra large companies falls dramatically to 40% (Table 3). The electric utility companies have the largest percentage (62.5%) which have a energy education policy versus 38.8% for gas/electric and 16.6% for the gas utilities (Table 4). Science/energy fairs, workshops, field trips, and careers days are the energy-related activities most often provided. The activities which have been increasing since 1971 are science fairs, workshops, field trips, career days, and teacher panels. National Energy Day and assemblies show an oscillating pattern. The activity in which there has been no interest is Science Olympiad (Figure 10). As an overall measure the respondents were asked about the amount of energy education provided since 1970: 63.3% noted an increase. Times of highs and lows were experienced by 17.9%. A total of 5.8% indicated a decrease and 13.5% remained unchanged (Table 5). Research Question II: To what extent do public utility companies provide energy education? 41 >0waom coHumooom xwuocm ouousm.uom mamam >2 AHmncv soHHom :oflumooom >woocm ucwuusu wsw>mz uoz mowcmdsou uo ucooummii.m wuowflm 9“de ANNIS oz 0.33 9ch age 02 42 TABLE.3.--Current Energy Education Policy Based on Size of Company Total Number Number of Companies Percent of Size of Companies with Policy Total Small 23 S 21.7 Medium 14 6 42.8 Large 9 7 77.7 Extra Large 5 2 40.0 No Response 3 ——__ __-_ 43 TABLE 4---Current Energy Education Policy Based on Type of Service Total Number Number of Companies Percent of Type of Companies with Policy Total Electric 16 10 62.5 Gas 18 3 16.6 Gas/Electric 18 7 38.8 No Response 2 —-—— _-__ hmlmmm— m~o=nm nozomoh .m 2 unwassso oocowom h muoosmo m mono >3 mowuw>fiuo< Umumfiomixwuwcmii.ofi wuswwm nml 53 NB mowgnaomm< an: awuocm mamas u_waa amuosm n. xwuocm .q omlmnmp a docomumz 0. awesome? mnozmxuoz N. main? WN— muflwm awuocu \oocoflom p (D d’ “I IS NF ép mp mp LON NM" ¢N mm mm. On. .Nn sowsdwoo bugpuodsol lo 1:: 45 TABLE 5. --Energy Education Since 1970 Amount of Number of Percent of Energy Education Companies Responding Total Increase 33 63.5 Decrease 3 5.8 Unchanged 7 13.5 Times of Highs and Lows 9 17.2 Total 52 100.0 46 The majority (63%) of the respondents indicated that their company has employees whose jobs are energy education. Less than half (37%) of the respondents do not have specific positions for energy education personnel. Of those companies having energy education employees 92% had fewer than five. Total number of respondents reporting were 52. One half of the energy education employees had a four year college degree. Seventeen percent had an advanced degree while 19.2% employed high school graduates. Other degrees such as vocational/technical and two year college graduates are also accepted with a combined total of 13.4% of the companies responding in this area (Figure 11). Liberal arts ranked high (56.1%) among the acceptable majors for the post high school graduate. Second highest ranked major was communications at 17.1%, science followed with 12.2% of the respondents. Business and technology were also mentioned as accepted majors with 9.8% and 4.9% respective response rates (Appendix E). In response to an open ended question regarding energy-related training, over half of the companies (64.7%) offered training for their energy education employees. Conferences and seminars were the most frequently mentioned training activities utilized by companies with a combined total of 75%. Another activity used by 25% of the companies offering training was special training programs. Specific training topics were not named (Appendix F). oohodosm :0wumooom xmuocm mo oesoumxoom Hmsowumooomii.- mesmflm 48 The levels of institutions in which the energy education employee served were categorized as K-3, 4-6, 7-8, 9-12, vocational schools, junior colleges, and colleges/uni- versities. The average number of institutions served by each education employee was 28 or more for levels K-12. The small decrease to 22 institutions was noted for the vocational/technical, junior college and college/university categories (Appendix G). How these institutions were served was also examined. The majority of the contacts were made through the mail or as a result of outside requests (61% for each). Visits to the institutions were made by 42.6% and phone contacts were 35.2% (Table 6). Research Question III: What are the major characteristics of the educational institutions served by the public utility companies? The utility companies provide energy education to the educational institutions of grade levels K through 12 and the higher levels of education including vocational/tech- nical schools, junior colleges, and colleges/universities. The type of educational institutions served were categorized by location: urban, suburban, small town, and rural. More than half of the utilities served educational districts that were in small towns (61.1%) or rural (55.6%); 44.4% of the utilities served urban or suburban areas (Appendix H). The enrollment for the schools which were served by the public utility companies was 999 or less for elementary and 49 TABLE 6.--Method of Contacting Educational Institutions Method of Number of Percent Contact Companies Responding of Total Mail 33 61.1 Outside Requests 33 61.1 Visit Institution 23 42.6 Phone 19 35.2 Total 54 100.0 50 middle school. The elementary enrollment was 77% and middle school enrollment was 73%. The majority of the service to the high schools was to schools of enrollments of 1,000 to 4,999 less (44%) and 999 or less (36%). Due to the large non-response rate, these findings should be read with caution (Appendix I). Research Question IV: What types of energy education do public utility companies provide? The survey participants were asked if their utility company provided energy-related classroom materials and 87.0% responded yes. None of these companies indicated that there was any charge for the materials. The remaining 13.0% did not respond (Appendix J). The topics which the materials addressed were compared individually as to what grades used the material as well as what topic was provided within the particular grade levels (Appendix K). Energy conservation was provided at all grade levels. However, there was a decreased noted 72.2% at K-3 and 70.3% at 4-6 to 66.7% at 7-8 and 68.5% at 9-12 and finally 50% at the higher education levels. Conventional energy was provided at levels 7-8 (66.7%) and at 9-12 (68.5%). This topic was also provided at K-3 with a 46.2% response rate. Energy safety was addressed at all levels, but was most often provided at 4-6 (72.2%) and 7-8 (70.3%). Overall the types of energy-related materials available for the classroom varied (Appendix L). The most frequently 51 provided materials at all grade levels were films, pamphlets, booklets and posters. These materials on the average ranked at 70% usage with the exception of the grade levels above 12 which were ranked at an average of 55% usage. Teacher guides also ranked high in usage. The grade levels of K-3 and levels above 12 did not use the guides as extensively (59.2% and 33.3%, respectively) as in the levels of 4-12 which 67.0% reported using the guides. The usage of video tapes increases from K-3 (46.3%) to 9-12 (64.8%). The usage decreases slightly (55.5%) at levels above 12. The utility companies obtain their energy-related educational materials through several sources. The majority, 40.7% of the utility companies obtain their materials by in-house sources. Trade organizations provide 22.2% of the materials. A combination of trade organi- zations and outside contractors provided 16.7% of the materials for energy education. The remaining sources were in-house/trade (5.6%), contractor (3.7%) and in-house/ contractor (1.9%) (Table 7). Potsnplal Eacpozs Affecplng Epezgy Edusstlop By upllity Cpmpanles Several factors were listed by the respondents as affecting the company’s pattern of an energy education program: financial concerns, management (administration), 52 TABLE 7.--Sources of Energy Education Materials Number of Companies Percent of Sources of Materials Responding Tetal In-House 22 40.7 Trade 12 22.2 Contractor 2 3.7 In-House/ Trade 3 5.6 Trade/Contractor 9 16.7 In-House/Contractor l 1.9 No Response 5 9.3 Total 54 100.0 53 company (corporate) policy, switching to nuclear power or the failure to do so, and interest expressed by educators. A question was asked about the financial status of the company and the financial difficulties encountered. Of those responding, 31.4% indicated no difficulty and 31.4% indicated mild difficulty. Moderate difficulty was experienced by 23.5% while 7.8% experienced severe difficulty. Approximately 6.0% indicated that they could not answer the question accurately (Figure 12). The impact of the financial position of the utility companies is described in Table 8. The majority (69.4%) indicated no impact regarding the cost of energy and its affect on the company’s ability to provide for energy education materials in the schools. In fact, a small percentage (12.2%) indicated that a significant impact occurred regarding this matter. Although several factors were cited as to being a determining factor in the utility companies’ role in energy education, the financial status is not perceived as the major influence in the present or absence of an energy education program. 55 TABLE 8.--Cost of Energy Impact on Educational Materials Number of Companies Percent of Degree of Impact Responding Total Significant Impact 6 12.2 Minor Impact 9 18.4 No Impact 34 69.4 Tbtal 49 100.0 CHAPTER V CONCLUSIONS AND IMPLICATIONS Conclusions This research has attempted to add dimension to the study of energy education, that of public utility companies’ perceived roles in the classroom. The purpose was to determine to what extent public utility companies participate in energy education and how those companies disburse and promote energy education. Responses to questions proposed for this research are the basis for the following conclusions. Energy education is not provided to schools by a large percentage of public utility companies. Only 38.8% of the responding companies had an energy education policy. Of the companies which responded negatively to a current policy on energy education, 80.6% had no previous policy and 70.9% have no future goals for an energy education policy. Consequently, it is concluded that energy education has a minor emphasis in the perspectives of most utility companies. Although more than one half of the respondents indicated no current written energy education policy, over one-half 56 57 responding did indicate employment of personnel whose job description emphasized energy education. It is concluded that companies attempt to provide energy education with employees who have no written goals or objectives to facilitate implementation of energy education. Findings from the questionnaire imply that early school years and post high school years are not receiving a comparable amount of energy education as grades 4-12. It is concluded that possibly formal energy education is initiated too late in a child’s school career and diminishes prematurely for those who continue their formal education past high school. For those utility companies responding positively to an energy education policy, it appears that those companies predominantly have a passive involvement in the education, through use of filmstrips, books, pamphlets, etc. Active involvement in the educational process, using a hands on approach ranks low in the companies’ priorities. Implications The analysis of the results of this study implies that a clear focus for energy education has not been established to date. Several factors are involved in developing the optimal written energy education policy. Each of these factors would provide a basis for future research. Government - Federal, State, Local. -- A policy to accommodate each state or region and relating climate, population, and availability of energy source needs to be 58 government mandated at all levels for written energy education policies. Provisions for regulating, monitoring, and verifying compliance with the written energy education policies need to be established and maintained. Public Utility Companies. -- To achieve compliance with government mandates, public utility companies have several opportunities for strengthening their position. The companies should study and promote the many facets of energy on an equal basis. To promote energy education the utility company should function as a liason between itself and educational institutions. This relationship can be fostered with the company’s knowledge of the emphasis and time-frame of energy education in the state’s education curriculum and aided by employment of educators who would function to develop and direct a more active approach to energy education. Related to this would be the company’s involvement on teacher panels to explore energy education and company attempts to provide information and updates on energy to the general public, as in a monthly newsletter. Educational Institutions. -- The role of educational institutions in providing effective energy education across all levels may be enhanced by governmental direction and cooperation with resources outside the educational institution. This would necessitate involvement of public utility companies with the educators and cooperation from both factions to achieve required goals. Educational institutions would also function as a liason between 59 students and families, providing direction and resources to further energy education beyond the classroom. Individuals/Families. -- As a result of the structured energy education provided by governments, public utility companies and educational institutions, energy knowledge at an individual or familial level would be improved. The role of the family unit continues to change in society and the adoption of energy attitudes will affect lifestyles. Each of these factors would provide a basis for future research. Although each is a separate area in need of study and development, it is the culmination of their interaction that will result in an optimal written energy education policy (Figure 13). 6O Homo: msmumxm :ofluflccou swuwcm II.MH wuowwm cofiuwpcou xwuosm eunuch APPENDICES APPENDIX A Questionnaire APPENDIX A Ques tionnaire ENERGY EDUCATION: PUBLIC UTILITY COMPANIES' PERCEIVED ROLES IN THE CLASSROOM part oi nan's being has been and is his interaction with his environ-ant. In recent years nan's attention has been narrowed to critical energy issues. Environeental consumers have an onooing need ior energy education. Hhat role do gas and electric utility companies have in this energy education? An integral This study is constructed to evaluate the current status of energy education. Please answer all oi the questions. Ii you wish to consent on any question or oualiiy your answers, please use the oargins or a separate sheet oi paper. Return this questionnaire to: Annette Schepper 1628 South Filth Street Terre Haute, Indiana 47802 61 62 llI'VOCIII"UIIIOI|I"|-IllulIOI "»uzw=au¢u .................................... «um». ..u.ooho_aae .o oc.c.~.. no.a.--mocwoa umu.»o»a acaQaOU ma.cUaao omao_& nae» __ T u ‘ mm» c a: ._ .cuxmea coco .o condo: o4. o.u..u. w.m.aacu.aau co..~u:vu >o.»;o _=am Cu. o;.:.m.. no.n_u.-bo.aca onuzo.a homa-oo .zo. «use .3..ow1m «mam—g. wmdmzasco .oazua :o.: “mom .0. o.aa.uuuua mCm «Loan: .u;: wwxmwa auuz<>a¢ .n w—¢=a¢¢u wewauau «cw» o .v w—caaczm wwwadau «cm» a .n m_c:a¢¢w dooxuw 4a:a_—¢uo> .u w—¢:;¢¢u doozum :o_: .- .>_qqm «as. aboaaac __a u.u..u. w.n.mwbo.adm =c..au:uu Locwcm .:o> .o sczacoaoaa as. ama.~omau .maa oa‘ro__o_ us. .a a..;2 cagozc a..uo.m n. co._mo=: a. ;_dm "mop ._ no: ._ + r» a fil‘ mu» .n a: .- .mea:a can» .u cases: an. o_u~.u. eco_.ao:e~ xococu u. no. smog: .a.ooxo_aaa co o>ac >¢maaoo .30» «won .0 .>_.o~an Luau—a. aux—o .w md¢_«w—az dqzo._¢u:au «adufiwa haw—>wz o- gaze; auzuqu— .m n¢—mnpao wu:w_um .m .m¢uu¢¢u hmmuzu @2-53du2_. m,¢o «wuceu .a mg.¢— cam—u aw_¢4u¢-.u¢u:w .n u-aLuuwma aw—«4w¢-_o¢uzu .v z<¢¢o¢m pqa _—...u:au 7.3:”; 7.2.:73; .w. mama—3...: 33‘ m3:m 2:... r ¢_”_g+ ;u_«ow¢.ogcu;w MW, .9; no, or; m.,. am no, :; “mo_-n¢o. nm¢_-_ao. 5mg.-.mw“ nm¢_._hu_ cc_cwc ma.— .o.c;.o.__aa «c~.¢0o .30. 9.9 mu...>..u~ u..~_oc-hocucu o;_xo_.o. 0;. .o ;U.c: a. mu; .m c: ._ cmc:.:. mg. a. mac o:_cc~_a so) «.4 mu» .m 9.. .— ndqcoocm a zoom on: >.a:o.;wcg so; can: no: .— mu» 9 oz .— _caxuca Lac» .0 gonna: as. -oC.u. mace..:.iumc. .aco..~u:nu :. co..~o:nu >o.~:~ o:...oaa:a >u..oa co...un a u>~c xcmaaoo .30» «won 63 mm_—_m«w>_=:\mwumdd0u .n mwowaaou 16.2:a .o mdoczum d¢=:_—duaa .a u_-o .v o.~ .m a.. .u m-_ .- m=D_.:—_—mz. ax=o__zu:aw a. ¢w>= 5_-o m-~ «in o-m m-. a m_u:_zcu ma «Hafiz: «QUMN dud muoa.:._.mc_ .aco..~u:um 2..) .u~.;oo some .a.umho_aaa :o..nunno bounce us. «can :u..o :o: filnlil .>..uu3a mono... «who «a sou.eu .« oau.¢_-aau.n. .n il Tlllvcl'il'li‘l till wow....aa°.o_ .. o¢¢.¢-oac.u .n owo..-uoo.. .u .IIII'I'II'I-A lit 1 III two zax— wmma .— m—zwua—m mo xwgcaz .910- I'ilttllvlll.| ’iItiulil. douxum :u_: .mo; doazum :o_z wdaa_: >¢¢_zw:w4m m:o__:__—m=_ acza__¢u:au n.n.ou»o_auu co..~u:uo sococo one» up nou.>.om «co..:...ac. .aco..~o:no 3:. .o .zoa__o.co oo-o>~ as. a. .aa: m¢u=u¢wp mo ~mw=Qw¢ p» a. hue—zou m—uc—zou d-4: mu—¢_—_2— unuodgcu m—uepzou wnazu mw—¢_—_:_ uu»adguw oz_—_um dcza——¢u=aw m—_m_> uu>aastu 9!”. .»_ss. .&4. «codes: as. __~ o_u..u. naacoo.a :o_.~o:uu uocmco mg. a.m..~:. e. um: .m.m~»a.aau =o..au:uu moCmao one“ «was muo;.ua ma..m.caa .a;: .143; .v 236— adocucu cos. >4 vuu.acoo use ace..:...u;_ co‘.au:eu >oce:o usae 2o: 64 ~ .h....aa a..a_a. m¢u=_o .n. m.2~n=¢_m:_ :o._¢=oc>w .u mua_=u 2=o=u_‘¢:u ._. mun—:u .m¢u=u¢w— .e. “emu—Lem ¢u_:g=au .v mug“. oua_> .o n.2uu_¢uc.w «a. mo«_¢u_¢z .29 mazez. .. mzu.mo¢ .m_wo‘oom .m_wdzgzq¢ .o mum¢_ c.a:a .n mw_u=u¢qum:~ ohm m.~..u.au u~.~.o.->ocaco oc.zo__o. mg. .0 ao.cu mac—u¢¢_=ou uo_m_:o >a awe—301$ mac—«w—ec .m m=o__¢~_=¢m¢o uocxp :m:O¢z— Qua—>cxm m;¢-¢u—¢: .m ww:c:-z_ aumadu>uo mac—dupe: .. .>.aa~ .as. «cases: __a o.u..u. «u.~.co.~e .~:o_.~uauo noda.oo-»osoco smudge xcnauou can» «not .u.uu.:oa dag: gone»:— .v. .»..ouao .maang. mzuz.c .m. >~um¢m xuauzu ._. mauu¢¢u poxwzw .o. a¢=_m_z oza paxuzu .e lillilc ~u¢w2u Ca m_$wuzcu u_m_—=u_um .m muzmm_ dc“...oa. x2¢ 4¢.uam ou—cdux-»a¢uzu .~ muuzaamua .34 :c.—u:;O¢. .u¢w:u ou=a__=wpzcu .o f mwuznomw‘ an: :c_.unao¢. aw¢w2u waacnuzuu .n :o_—ux¢u_2_ _:uu:a¢_h=u»pumu=u .v .¢wn:m=au a. u¢:_u=¢_m w.4¢. pazuzm ma mu.2:=on .m .duau mo —mou. xocuzu mo mu.:o:ouu .m 2o__<>guwzau banana .— 7- ...... ili u. was»; n.-w a-~ 0-. n-. mu_&o_ du>ud uox¢o .>.aa~ «as. __a bow;u. .owmawcuua .a.ce.aa one) mu.ao. Lo.ecw .0 «on». eaau.uc_ a. co..»u:e a. a... no: .— 1 9 mm» .n 6.. .. .cozoca 5:0; .6 canes: on. o_uc.u. o¢.¢ou:un ace uco.~u:uu coocmua.u so. .4..o.ac .aancog us.a.-.>ococ~ uv.soca noun-cu .30» «no: .m— .m— 65 mzcd azc m=w_= ma mun—— awuzczuza ou2_¢cu¢ aum:aaaou Can; .wu.«:au _u¢32_ cox—n _u«;=_ .2xu.m_zo_m uuco >.:o gums» ammo.q .wg. .. . + mu, .m o: .— ..mx.ca can» .0 cognac as. 9....u. c«_oogoa c. a.~.cm.~a co..ao:uw no.aco co. yo.»ng o. b.~..a~ m >cxa40o baa» n~.u~..m >_.w.oaun bococc .o .uou us. «a: muum xwzu¢u_ I‘ll- muuu ac—zuz wu_¢m umcxucam 4¢_o— a».aao .o:. ..a mango oaao.s .uu» .— w mu» .n a: .. en.~..u.mo s....~.-»o.oco co. necagu peas—cu can» noon .nu.uu:cu. ._ «an.. as. :caao. new «.mOu .oa» wmcaaw.oc o. oc....z ca _ .uaam._ :0» m.m.~o.aa o>_. on. .o «y‘aoo an o. abax.o. tune—a .uop .- e a: .. a? .n no.4..a.~a a~.a_oc->a.ac~ u».. mane. .o «9.30“ o».~uwc _ La: .r. ¢o—¢2nm_¢o uqamscg mm“, mm. sum: mw:_~ u: «wags: zo_>z:u; uc:_.—_< wmuzuzazcxuuau‘acz. w c m u _ .uwum: .m. «meta: d4_¢u_«= u_~.ca.au no.c_o.-go.o=a cusm he. co..~w.o.c. oc.zo_.o. as. mn.uoca gnaw—m .v .m .~ .— .»caaa0u one; coaoccu ¢_aa..~>a .s. «.m‘oo.~c so.a.uc->o.o¢o new: >..cm:co.. .uoc ~>_. ac. .u.d .0— 66 one. .o .oga:; «g. m_o..u. u_¢—uudu “a m...: .oso; ._. ....... .L..oaam am~m_g. 56— «Who 0% n 90 0Q i am an I ON 90 . 06 Con.:c 0:. u_u..u. wabfiu—usu- eu-fikwm h: a; :— OCJ ....uwam « amt—m. can.” cope .5 ¢:¢._ - 395.. .a wou._ . as... .n no“. - as... .. owg.. - gum .m we“ - gun .n ow. :::_ mags ._ .uw:m¢w _ho_gau hcomsoo .20. “you 9.4ow4 gone 29: litill||iit smda-w:u hcmu to: on . v 0' - so an i n on a n o. - a. w :5: mmu._ . “Pdn'h‘n .cmxnca can» .0 «coca no.>c~a .30» :. nova-o:_ ecu no..::ou xcna to: omccasOU o. ca~.>.mm bcmaaao .cwxmcm ouch .3o» .0 o0...:u....u _M.o;m:.. wgv no.5.mwn no» v.36: :o: .x..uaam «www.m- wawbwm w—cxwac: cd_t . no... .20; woou .m.c.4_w ;V.Jx ‘Hv “‘1 .0 hmauné Ouu w.u;—u. naacoocq xacmcw ca .o c.~..aa u.>:a¢aoo use» u~.uo._a u>4c .ag. «Ca.ua_ Coqau 0:. o.a .agz ‘ u‘ 67 .oo» o. «.3. ..~I ._.x _ ..u..~cco..mm:e «.4. :o .c:. =ao.a.=m c.:.a. an. .o .una 05. co umw.bv~ 6;: .ac: .za. .=..Q ease—a .a..:uu. .o ..m¢u:m a a... 9.20: :o. .. .um.¢.ue.zmv ._.4o.a m. ..o..o a... o. ca..=a...=o. .ao. .ua.aa:ao. .. aao.. :.:.m. nos m.m0u .zo. oucaaw.a. u. o;.__.: as . .uo.a.. so» a.a..o.aa u>.. oz. .o aa.aou on o. ucsxoo. gage—n .uo. o. m.» nacaxmco so. .— «.92.:ux APPENDIX B Questionnaire Cover Letter 1620 South Fifth Street Terre Haute, Indiana 47802 August 25, 1987 Issues concerning the environment have increased in recent years. Daily reports of environmental damage, misuse, and depletion are presented by the media. Depletion of sources Of energy and alternatives for future resources are frequently discussed. Awareness of environmental issues is not sufficient for today’ s consumer - - the education of consumers on the topic of energy is fundamental in facilitating change. This education can be provided from several sources, including gas and electric utility companies. Your company is one of a number of gas and/or electric utility companies in a nine state midwestern region. Companies selected are being asked to respond to questions concerning your company’ s perceived roles in energy education in classrooms. So the results will indicate a true regional sampling, your completing and returning this questionnaire is warranted. Your responses will remain confidential. An identification number on your questionnaire is for mailing purposes only. This allows check off of your name on the mailing list when you return the questionnaire. Your name will not be placed on the questionnaire. The results of this research will be made available to gas and electric utility companies in the United States, educators, and interested citizens. You may receive a summary of results by writing "copy of results requested" on the back of the return envelope and printing your name and address below it. Please do not put this information on the questionnaire itself. Should you have any questions, I would be most happy to answer them. Please write or call. The telephone number is (812) 234-0580. Thank you for your assistance. Sincerely, Annette M. Schepper Master's Degree Candidate Michigan State Univeristy 68 APPENDIX C Questionnaire Initial Follow-Up Letter APPENDIX‘C 0 Initial Follow-Up Letter September 14 1987 Two weeks ago a questionnaire seeking your opinion and expertise about your company's perceived role of energy education in the classroom was mailed to you. Your name was selected from a nine state region in the midwestern United States. If you have already completed and returned it to me please accept my sincere thanks. If not, please do so today. Because it has been sent to only a small but representative sample of public utility companies, it is extremely important that yours also be included in the study if the results are to accurately represent the utility companies of this region. .If by some chance you did not receive the questionnaire, or it has been misplaced, please call me immediately , collect (812-234-0680) and I will get another one in the mail to you today. Sincerely, Annette Schepper Master’s Degree Candidate Michigan State University 69 APPENDIX D Questionnaire Final Follow-Up Letter Questionnaire Final Follow-Up Letter September 24, 1987 In the latter part of August I wrote to you seeking your opinion and expertise regarding your public utility company’s perceived role in energy education in the classroom. As of today I have not received your completed questionnaire. My research topic, energy education in the classroom, was undertaken because of my professional experience with public utility company and because of the need for continued energy education if we as a nation are going to survive and overcome the energy problems. I am writing to you again because of the significance each questionnaire has to the usefulness of this study. Your company was selected from a nine state region in the midwestern United States. In order for the results of this study to be truly representative of the opinions of the nine state region, it is essential that each person in the sample return the questionnaire. In the event that your questionnaire has been misplaced, a duplicate is enclosed. Your cooperation is greatly appreciated. Sincerely, Annette Schepper Master’s Degree Candidate Michigan State University 70 APPENDIX E Majors Acceptable For Post-High School Graduate APPENDIX.E Majors Acceptable for Post High school Graduates Number of Percent of Majors Companies Responding Total Liberal Arts 23 56.1 Communications 7 17.1 Business 4 9.8 Sciences 5 12.2 Technology 2 4.9 Total 41 100.7 71 APPENDIX F Energy-Related Training For Energy Education Employee APPENDIX F Energy-Related Training For Energy Education Employee Number of Percent of Company Response Companies Responding Total Yes 22 64.7 No 12 35.5 Total 34 100.0 Number of Percent of Type of Training Companies Responding Total Conferences 6 37.5 Seminars 6 37.5 Special Training Programs 4 25.0 Total 16 100.0 72 APPENDIX G Average Number of Contacts to Institutions APPENDIX.G Average Number of Contacts to Institutions Number of Average Number Level of Institution Companies Responding of Contacts K-3 30 5.6 4-6 30 5.6 7-8 30 5.6 9-12 28 4.7 Vocational/ Technical 22 2.5 Junior College 22 2.5 College/University 22 2.5 73 APPENDIX H Educational Institutions' District Locations APPENDIX H Educational Institutions Districts Location Number of Percent Type of District Companies Responding of Total Urban 24 44.4 Suburban 24 44.4 Small Town 33 61.1 Rural 30 55.6 Total 54 100.0 74 APPENDIX I Educational Institutions' Enrollment APPENDIX I Educational Institutions Enrollment Elem. Middle High Post High Number of Students School School School School Less than 999 77% 73% 36% 9% n=24 n=l9 n=9 n= 1000 thru 4999 13% 19% 44% 23% =4 n=5 n=11 n=5 5000 thru 9999 0% 0% 4% 27% =0 n=0 n= n=5 10,000 thru 14,999 0% 0% 4% 23% n= n=0 n-l n=5 15,000 thru 19,999 3% 4% 0% 14% n=1 n=1 n=0 n=3 21,000 and over 7% 4% 4% 4% n=2 n=1 n=1 n=1 No Response 23 28 23 22 Total 54 54 54 54 75 APPENDIX J Energy-Related Educational Materials APPENDIX J Energy-Related Educational Materials Number of Percent of Company Response Companies Responding Total Yes 47 87.0 No 5 9.3 No Reponse 2 3.7 Total 54 100.0 Number of Companies Percent of Company Response Responding Total Yes --- --- No 47 100.0 Total 47 100.0 76 APPENDIX K Topics Addressed in Energy-Related Materials APPENDIX K Topics Addressed in Energy-Related Materials Topics Grade Level 19; fl _7-_8_ 9-12 Above 12 Energy Conservation 72.2% 70.3% 66.7% 68.5% 50.0% n=39 n=38 n=36 n=37 n=27 Economics of Energy 9.2% 25.9% 48.0% 7.4% 42.6% Cost of Fuel =5 n=14 n=26 n= n=23 Economics of Energy 3.7% 5.5% 22.2% 46.1% 46.3% Rate Structure =2 =3 n=12 n=26 n=25 Energy/Environment 24.0% 48.0% 55.5% 64.8% 40.7% Interaction n=13 n=26 n=30 n=35 n=22 Renewable Energy 24.0% 46.2% 57.4% 62.9% 40.7% n=l3 n=25 n=31 n=34 =22 Conventional Energy 46.2% 27.7% 66.7% 68.5% 48.0% n=25 n=35 n=36 n=37 n=26 Energy Social/ 1.9% 3.7% 25.9% 53.7% 37.0% Political Issues n=2 n=4 n=14 n=29 n=20 Scientific Concepts 13.0% 16.7% 50.0% 53.7% 37.0% n=11 n=22 n=27 n=29 n=20 Energy and History 13.0% 37.7% 50.0% 46.3% 31.5% ’ n=ll n=20 n=27 n=25 n=17 Energy Careers 9.2% 18.5% 29.6% 50.0% 27.7% n= n=10 n=16 n=27 n=15 Energy Safety 42.6% 72.2% 70.3% 64.8% 46.3% n=37 n=39 n=38 n=35 n=25 77 APPENDIX L Types of Energy-Related Materials APPENDIX L Types of Energy-Related Materials Material Grade Level K—3 4-6 7-8 9-12 Above 12 Slides 29.6% 37.0% 46.3% 53.7% 38.8% n=16 n=20 n=25 n=29 n=21 Films 68.5% 64.8% 68.5% 68.5% 53.7% n=37 n=35 =37 n=37 =29 Filmstrips 50.0% 51.8% 42.6% 35.2% 20.4% n=27 =28 n=23 n=19 n=11 Overhead Transparencies 5.5% 9.3% 12.9% 14.8% 9.3% n=3 n=5 =7 =8 =5 Audio Tapes 22.2% 25.9% 24.1% 22.2% 20.4% n=12 n=14 n=13 n=12 n=11 Pamphlets, Booklets 70.4% 74.1% 74.1% 72.2% 57.4% Posters n=38 =40 n=40 n=39 n=31 "Hands-On" Material 14.8% 29.6% 31.4% 25.9% 12.9% for Experiments n= n=16 n=l7 n=14 =7 Video Tapes 46.3% 55.5% 64.8% 64.8% 55.5% n=25 n=30 n=35 n=35 =30 Computer Software 16.6% 29.6% 38.8% 40.7% 16.6% = 9 n=16 n=21 n=22 n= Teachers' Guides 59.2% 66.7% 68.5% 68.5% 33.3% n=32 n=36 n=37 n=37 n=18 Curriculum Guides 22.2% 22.2% 27.7% 29.6% 14.8% n=12 n=12 n=15 n=16 n=8 Evaluation Instrument 27.7% 29.6% 29.6% 25.9% 12.9% n=15 n=16 n=16 n=14 n=7 78 REFERENCES CITED REFERENCES CITED Allen, Rodney R. 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W t u Cambridge, Massachusetts: Winthrop Publishers, Inc., 1973. Weaver, Kenneth F. "Our Energy Predicament." hational Geegrephie (February 1981) 2-24. White, Janet A., and Fowler, John M. "Energy Education in the Schools: Penetration of Energy Education into the Classroom.” National Science Teacher Association. January 1983.