robert e. yager
preparation of teachers
robert e. yager
Science has become an important component in the K–12 curriculum in American schools–but less so than reading and mathematics. At the end of the twentieth century reading and mathematics received more attention, government support, and focus for testing. It was assumed that reading and mathematics must be mastered first and that these skills were essential before the study of science and social studies. Science is often not taught daily in elementary schools, does not receive major attention in middle schools, and is often organized around disciplines that emphasize college preparation in high schools.
The Role of Science and Technology Education
As the twentieth century ended, it was clear that science and technology played significant roles in the lives of all people, including future employment and careers, the formulation of societal decisions, general problem solving and reasoning, and the increase of economic productivity. There is consensus that science and technology are central to living, working, leisure, international competitiveness, and resolution of personal and societal problems. Few would eliminate science from the curriculum and yet few would advance it as a curriculum organizer. The basic skills that characterize science and technology remain unknown for most.
As the twenty-first century emerges, many nations around the world are arguing for the merger of science and technology in K–12 schools. Unfortunately many are resisting such a merger, mostly because technology (e.g., manual training, industrial arts, vocational training) is often not seen as an area of study for college-bound students. Further, such courses are rarely parts of collegiate programs for preparing new teachers. Few see the ties between science and technology, whereas they often see ties between science and mathematics. Karen F. Zuga, writing in the 1996 book Science/Technology/Society as Reform in Science Education, outlined the reasons and rationale for and the problems with such a rejoining of science and technology. A brief review of what each entails is important.
Although science is often defined as the information found in textbooks for K–12 and college courses or the content outlined in state frameworks and standards, such definitions omit most essential features of science. Instead, they concentrate wholly on the products of science. Most agree with the facets of science proposed by George G. Simpson in a 1963 article published in the journal Science. These are:
- Asking questions about the natural universe, that is, being curious about the objects and events in nature.
- Trying to answer one's own questions, that is, proposing possible explanations.
- Designing experiments to determine the validity of the explanations offered.
- Collecting evidence from observations of nature, mathematical calculations, and, whenever possible, experiments that could be carried out to establish the validity of the original explanations.
- Communicating evidence to others, who must agree with the interpretation of evidence in order for the explanation to become accepted by the broader community (of scientists).
Technology is defined as focusing on the human-made world–unlike science, which focuses on the natural world. Technology takes nature as it is understood and uses the information to produce effects and products that benefit humankind. Examples include such devices as lightbulbs, refrigerators, automobiles, airplanes, nuclear reactors, and manufactured products of all sorts. The procedures for technology are much the same as they are for science. Scientists seek to determine the ways of nature; they have to take what they find. Technologists, on the other hand, know what they want when they begin to manipulate nature (using the ideas, laws, and procedures of science) to get the desired products.
Interestingly, the study of technology has always been seen as more interesting and useful than the study of science alone. Further, the public has often been more aware of and supportive of technological advances than those of basic science.
Science (along with technology) in the school curriculum has assumed a central role in producing scientifically (and technologically) literate persons. Since 1980 the National Science Teachers Association (NSTA) has identified such literacy to be the major goal of science instruction. The organization also described what literacy would entail. Its NSTA Handbook, 1999–2000 defined a scientifically literate person as one who can:
- Engage in responsible personal and civic actions after weighing the possible consequences of alternative options
- Defend decisions and actions using rational arguments based on evidence
- Display curiosity and appreciation of the natural and human-made worlds
- Apply skepticism, careful methods, logical reasoning, and creativity in investigating the observable universe
- Remain open to new evidence and realize the tentativeness of scientific/technological knowledge
- Consider the political, economic, moral, and ethical aspects of science and technology as they relate to personal and global issues
Whatever schools can do to produce graduates who have such skills defines the role for science education in schools. The curriculum is the structure provided to accomplish such goals. The 1996 National Science Education Standards set out just four goals, namely, the production of students who:
- Experience the richness and excitement of knowing about and understanding the natural world
- Use appropriate scientific processes and principles in making personal decisions
- Engage intelligently in public discourse and debate about matters of scientific and technological concern
- Increase their economic productivity through the use of the knowledge, understanding, and skills of the scientifically literate person in their fields
History of Science Courses in American Schools
Early American public schools did not include science as a basic feature. The purpose of the early school was to promote literacy–defined to include only reading and numeracy. The first high schools primarily existed to prepare students for the clergy or law. Typical science courses were elective and included such technology courses as navigation, surveying, and agriculture. Not until the turn of the twentieth century did the current science program begin to form.
Physics began to be offered as a high school course in the late 1800s. It became even more common when Harvard University required it for admission in 1893; Harvard also required chemistry ten years later. Physics and chemistry were soon identified as college preparatory courses as other universities followed Harvard's lead in requiring both for college entrance. Biology, the third high school course, was not identified until the 1920s–resulting from the merger of such common courses as botany, physiology, anatomy, and zoology.
Traditionally the high school curriculum has consisted of physics in grade twelve, chemistry in grade eleven, and biology in grade ten. Often schools have moved to second-level courses in each of these three disciplines; at times these advanced courses are titled Advanced Placement and can be counted toward college degrees if scores on national tests are high enough to satisfy colleges. This focus on school science as preparation for college has been a hindrance to the casting of science courses as ways to promote science and technology literacy.
Science below the high school level (grade ten) has a varied history. Science classes at this level became more common in the middle of the twentieth century with the creation of junior high schools–often grades seven, eight, and nine. In many instances the science curriculum was similar to the high school curriculum except that science was usually termed general science, with blocks for each course coming from biology, chemistry, physics, and earth science. There have been attempts to unify and to integrate science in these middle grades. With the emergence of substantial national financial support for curriculum and teacher professional development, however, the major effort in the 1960s was to create life, physical, and earth science courses for the junior high schools. During the 1970s and 1980s, middle schools were created with ninth grade returning to high schools (grades nine through twelve) and sixth grade becoming a part of the middle schools. As the National Science Education Standards emerged in 1996, the middle grades were defined as grades five through eight.
Middle school philosophy calls for teams of teachers (from all facets of the curriculum) to work with a given set of middle school students and to unify and relate all study for those students. Project 2061, formulated in the late twentieth century, is a reform project that ties the curriculum together, especially science, mathematics, technology, and social studies.
Elementary school science was rarely found until the middle years of the twentieth century. Although there were textbooks and courses listed in the offerings, science frequently did not get taught. This was because teachers placed reading and mathematics first, they often lacked preparation in science, and there was no generally accepted way of measuring science learning across grade levels.
During the 1960s and 1970s several national curriculum projects were funded, developed, and offered across the K–12 years. This continued into the twenty-first century, with many programs that provide ways to meet the visions of the National Science Education Standards supported by the National Science Foundation. Unfortunately not many of these ideas are in typical textbooks offered by the major publishers, who, understandably, are more interested in sales and offering what teachers, schools, and parents want. These textbooks are often quite different from what reform leaders and cognitive science researchers envision for an ideal science curriculum.
Comparing Science Education Requirements around the World
Reformers in most industrial nations across the world advocate similar school reforms of science with new goals, procedures, materials, and assessment. The United Nations Educational, Scientific and Cultural Organization (UNESCO) has initiated a reform effort for the twenty-first century that is targeted for developing nations and relates science to technology. Many educational teachers across the world call openly for a science curriculum that is responsive to personal needs, societal problems, and attentive to technological as well as scientific literacy. New attention to assessment and evaluation has arisen from the Third International Mathematics and Science Study.
Elementary school science is similar the world over with the focus being hands-on and minds-on activities that are not discipline-based. Often middle schools have science programs that frequently focus on problems. In the United States some of the major science programs include Event-Based Science and Science Education for Public Understanding Program. Similar programs exist elsewhere, especially in the United Kingdom, Israel, the Netherlands, and Australia, and in other European countries.
Although the goals for high school science are the same in most countries, the traditional discipline-based courses (biology, chemistry, and physics) in the United States are typical yearlong courses for grades ten, eleven, and twelve. Most other countries organize the secondary curriculum to respect discipline divisions, but spread the courses over a five-or six-year sequence. They do not delay physics and chemistry to grade eleven or twelve or place biology solely in grade ten.
The interest in international comparisons has never been greater. There is great concern that testing and learning is based on little other than students' ability to recite definitions and/or to solve mathematical problems given to them. Cognitive science research indicates that most of the brightest science students can do little more than to repeat what they have been told or what they read, or to duplicate procedures they have been directed to follow. Educators now want more evidence that students can use information and skills in new situations. Such performance is demanded to assure scientific and technological literacy.
Trends, Issues, and Controversies
Science education is evolving once again–as it has since the emergence of public schools in the United States–to a focus on mastering basic concepts and skills that can be used in new situations. Yet, in order to truly accomplish this, contexts need to be established first. Concepts and process skills are desirable end points. But if real learning is to occur, concepts and skills cannot be approached directly and used as organizers for courses and instruction. Without the proper background, students do not understand and are rarely able to use the information and skills that are taught. This explains why science lacks popularity and why most students stop their study of science as soon as they are permitted to do so. Little is gained by simply requiring more for a longer period of time.
Another trend is the open inclusion of technology with the study of science. Contrasting the two can help develop an awareness of the history, philosophy, and sociology of both. Since more students are interested in technology than in science, including technology within science education can provide a vehicle for getting students more involved with basic science. Instead of authorities proclaiming science as important and useful, students discover that for themselves as they develop and use new technologies.
Taking statements of goals seriously is another trend. Goals can and should provide the framework for the curriculum, indicate the instruction selected, and provide form and structure for evaluating successes and failures. Each of these critical factors provides a basis for doing science in education.
The involvement of more people and organizations in the process of educating youth is another important trend. Responsibility for setting science goals, choosing instructional strategies, determining curriculum structure, and defining assessment efforts must rest with teachers as well as with students. Outside agencies–administrators, state departments of education, national governments, professional societies, and the public–all must be involved and are integral to the plan to improve science education.
Major issues include how to evaluate and enlarge goals, how to change instruction, how to move assessment from testing for memory and repetition (copying) of procedures to making these constructs and skills a part of the mental frameworks of the students. When does real learning pass from mimicry to understanding and personal use?
Engaging student minds requires changes that are essential to current reform efforts. According to Vito Perrone, such engagement is accomplished when:
- Students help to define the content–often by asking questions.
- Students have time to wonder and to find interesting pursuits.
- Topics often have strange features that evoke questions.
- Teachers encourage and request different views and forms of expression.
- The richest activities are invented by teachers and students.
- Students create original and public products that enable them to be experts.
- Students take some actions as a result of their study and their learning.
- Students sense that the results of their work are not predetermined or fully predictable.
Can science teachers really become major players in cross-disciplinary efforts in schools? Can they embrace technology as a form of science and/or an entry point to it? Can they refrain from telling students what they want them to do and to remember (for tests)? According to the National Research Council's 1998 book Every Child a Scientist, Carl Sagan argued that "every student starts out as a scientist." Students are full of questions, ready to suggest possible answers to their questions. Unfortunately, however, most lose this curiosity as they progress through their science studies. In typical schools they rarely design their own experiments, get their own results, and use the results for any purpose. They do not see or practice science in any full sense.
Major controversies remain. But why should this not be so? Science is an activity where there are changes, differences of opinions, differences in designing good experiments or making calculations, and differences in collecting evidence and convincing others of the validity and accuracy of the evidence offered.
Certainly most educators remain committed to the model of relying on the science found in textbooks, state curriculum frameworks, and standards documents. They are committed in spite of the research evidence that highlights the advantages of new approaches to learning and new ways of measuring learning and understanding. Humans tend to resist change–even when they know it will occur. It is sad that science educators do not lead in the attack on the unchanging curriculum and lack of attention and use of the new information on how humans learn.
See also: Curriculum, School; Elementary Education, subentries on Current Trends, History of; National Science Teachers Association; Science Education, subentry on Preparation of Teachers; Science Learning; Secondary Education, subentries on Current Trends, History of; Technology in Education, subentry on School.
Champagne, Audrey B., and Klopfer, Leo E. 1984. "Research in Science Education: The Cognitive Psychology Perspective." In Research within Reach: Science Education, ed. David Holdzkom and Pamela B. Lutz. Charleston, WV: Appalachia Educational Laboratory, Research and Development Interpretation Service.
Event-Based Science Project. 1999. White Plains, NY: Dale Seymour.
National Research Council. 1996. National Science Education Standards. Washington, DC: National Academy Press.
National Research Council. 1998. Every Child a Scientist: Achieving Scientific Literacy for All. Washington, DC: National Academy Press.
National Research Council. 1999. How People Learn: Brain, Mind, Experience, and School. Washington, DC: National Academy Press.
National Science Teachers Association. 2000. National Science Teachers Association (NSTA) Handbook, 1999–2000. Arlington, VA: National Science Teachers Association.
Perrone, Vito. 1994. "How to Engage Students in Learning." Educational Leadership 51 (5):11–13.
Resnick, Lauren B. 1987. "Learning in School and Out." Educational Researcher 16 (9):13–20.
Rutherford, F. James, and Ahlgren, Andrew. 1990. Science for All Americans: A Project 2061 Report on Literacy Goals in Science, Mathematics, and Technology. New York: Oxford University Press.
Science Education for Public Understanding Program (SEPUP). 1998. Ronkonkoma, NY: Lab-Aids.
Simpson, George G. 1963. "Biology and the Nature of Science." Science 139 (3550):81–88.
United Nations Educational, Scientific and Cultural Organization. 1986. Summary Report of Science, Technology, and Mathematics Education Worldwide. Paris: United Nations Educational, Scientific and Cultural Organization.
U.S. National Research Center for TIMSS.1996. A Splintered Vision: An Investigation of U.S. Science and Mathematics Education. Dordrecht, Netherlands: Kluwer.
Zuga, Karen F. 1996. "STS Promotes the Rejoining of Technology and Science." In Science/Technology/Society as Reform in Science Education, ed. Robert E. Yager. Albany: State University of New York Press.
LessonLab. 2000. "TIMSS-R." <www.lessonlab.com/timss-r/>.
Robert E. Yager
PREPARATION OF TEACHERS
Programs for preparing science teachers in the United States are numerous–numbering about 1,250. These programs vary considerably, though most require a major in one discipline of science and a strong supporting area. The professional sequence varies greatly with smaller programs unable to maintain a faculty with expertise in science education per se. The programs generally consist of half the credits in science, a quarter in education, and a quarter in liberal arts requirements. In the 1990s the quantity of preparation in science and in science education increased–often making it difficult to complete programs as part of a four-year bachelor's degree program. Fifth-year programs that include more time spent in schools with direct experience with students are becoming the norm.
Early in the 1800s science teachers typically had no formal preparation; often they were laypersons teaching such courses as navigation, surveying, and agriculture in the first high schools. By 1870, with the emergence of the first teacher training colleges, some science teachers completed formal study of science in colleges. Qualifications for specific teaching, however, varied considerably across the United States.
In the early 1890s Harvard University required completion of a high school course in physics for admission. This spurred the beginning of the science curriculum in American schools. Ten years later Harvard added chemistry to its requirements for admission. Many other colleges and universities followed suit. High school science classes became gatekeeper courses for college admission–a situation that turned out to be a continuing problem for science in schools and for the preparation of science teachers.
By the end of World War II, the place of science in school programs had attained universal acceptance. Teacher education programs were standardized to include science methods courses and student teaching after a year of introduction to education and educational psychology courses. School programs were to provide functional science experiences, that is, skills and knowledge that students could use. Faculty at preparatory institutions became the chief proponents for a useful science program for students.
Science education changed in the 1950s as leaders and the general public demanded improvements to match the Soviet successes in space. National spending for improving school science programs and the preparation of science teachers were made a priority in the National Science Foundation (NSF). Scientists were called to provide leadership in the reform of school programs and the development of better-prepared teachers.
In the 1970s these national efforts to improve school programs and teacher education, including the goals for science teaching, were reassessed. The public had become disillusioned with the expenditures for science teacher enhancement and curriculum development projects. The NSF Project Synthesis effort established four new goals: science for meeting personal needs, science for resolving current societal issues, science for assisting with career choices, and science for preparing for further study.
In this climate the NSF established a new program to influence science teacher education directly. Called the Undergraduate Pre-Service Science Teacher Education Program (UPSTEP), its premises included the following:
- Effective preservice programs integrate science and education and often require five years.
- Science faculties are important ingredients in program planning, teaching, and program administration.
- The preparation of an effective science teacher involves more than providing a student with up-to-date content and some generalized teaching skills.
- Effective programs involve master teachers, school and community leaders, and faculty members.
- Teacher education can be evaluated and used to improve existing programs.
- Effective programs should include advances in computer technology, educational psychology, philosophy, sociology, and history of science.
Current Structure and Organization
Most of the 1,250 institutions that prepare science teachers start with the assumption that an undergraduate major in one of the sciences is a must. Many teacher education programs merely require science courses (typically about one-half of a degree program) and increase the number of methods courses and associated practica (experiences in schools) prior to student teaching. Many institutions moved to a five-year program and/or the completion of a master's degree before licensure.
In the 1990s the U.S. Department of Education funded studies, known as Salish I and Salish II, to discern the condition of preservice teacher education programs in the United States. Salish I was a three-year study of programs and graduates from ten different universities across the United States. The study's major findings included the following:
- During their initial years of teaching, most new science teachers use little of what teacher education programs promote.
- Few teacher education programs are using what is known about science as envisioned by the National Science Education Standards.
- The courses comprising teacher education programs are unrelated to each other.
- There are few ties between preservice and inservice efforts.
- Support for teacher education reforms has been largely unrecognized and underfunded.
Salish II involved fifteen new universities, which agreed to alter some aspects of their teacher education programs and to use research instruments from Salish I to determine the effectiveness of the changes. Major findings from Salish II were as follows:
- Significant changes in teacher education majors can be made during a single year, when part of a collaborative research project.
- There is strength in the diversity of institutions and faculty involved with science teacher education.
- Science instruction at colleges must change if real improvement is to occur in schools.
- Collaboration in terms of experimentation and interpretation of results is extremely powerful.
In-Service and Staff Development Programs
A persistent problem has been the lack of articulation between pre-and in-service science teacher education. NSF support for in-service teacher education from 1960 to 1975 focused on updating science preparation in an attempt to narrow the gap. In fact, NSF efforts often tended to deepen the problem. The NSF assumed that science teachers needed only more and better science backgrounds and the NSF model was simply one of giving teachers current science information, which they were to transmit directly to their students. What was needed was a set of intellectual tools with which teachers could evaluate the instruction they provided.
According to David Holdzkom and Pamela B. Lutz, authors of the 1984 book Research within Reach: Science Education, effective science teachers must have a broader view of science and of education. They need to be in tune with the basic goals of science education in K–12 settings and be prepared to deal with all students in efforts to meet such objectives. H. Harty and Larry G. Enochs, in a 1985 article in the journal School Science and Mathematics, offered an excellent analysis of the form in-service programs should take, contending that such programs should:
- Have a well-defined, organized, and responsible governing mechanism
- Involve teachers in needs-assessment, planning, designing, and implementing processes
- Provide diverse, flexible offerings that address current concerns of the practitioner and that can be used readily in the classroom
- Include an evaluation plan of the individual components of the program and their effect in the classroom.
The content versus process debate continues and is counterproductive at best. Science cannot be characterized by either content (products produced by scientists) or process (behaviors that bring scientists to new understandings). Effective teacher education programs cannot be developed if science preparation focuses on content mastery and the education component focuses on process. Teachers must learn to use both the skills and processes of science to develop new knowledge of both science and teaching. They need to use the research concerning learning, such as the National Research Council's 1999 book How People Learn.
In the late 1990s NSF initiated new programs designed to improve in-service teachers–and later preservice teachers as well. These systemic projects were funded at approximately $10 million each in about twenty-five states. Later urban, rural, and local systemic projects were conceptualized and funded. Teacher education programs involving several college/university situations were also funded to relate in-service efforts directly to the preparatory programs. These collaborations often tied institutions together in order to share expertise, faculty, and program features.
Major Trends, Issues, and Controversies
Major trends in science teacher education include:
- Extending the pedagogical facet of the program over two calendar years with extensive school practica provided as places to try new ideas
- Replacing four-year bachelor's programs with five-year master of arts in education programs
- Using the National Science Education Standards for visions of goals for all students, effective teaching strategies, content and curricula features, assessment strategies, and staff development
- The extensive collaborating of all stakeholders (administrators, parents, community leaders, and all teachers across the curriculum) for reform efforts
- Broadening the view of science to include the human-made world (technology) as well as natural science, science for meeting present and societal challenges, a focus on inquiry as content and skills that characterize science, and the history/philosophy/sociology of science.
Some of the major unresolved controversies include:
- Limiting the number of institutions preparing science teachers
- Teaching teachers, over a five-year program, in the same manner that they should teach
- Using the four goals for school science to prepare teachers to internalize the National Science Education Standards, including experiencing science as: an investigation of natural phenomena, a means for making sound personal decisions, an aid in public discussion and debate of current issues, and a means of increasing economic productivity.
Optimism for even greater successes with meeting the goal of scientific literacy for all is a central focus for science teacher education. Certainly the new Centers for Learning and Teaching that NSF began funding in 2000 are designed to help. By definition they combine preservice and in-service science education–making the two seamlessly connected. They require a common research base while also assuring that a major effort of the center will be to extend that research base. They must design and implement new doctorate programs to prepare future leaders. The history of science education is replete with identification of current problems, new ideas for their resolution, major national funding (since 1960), and then almost immediate abandonment after initial trials are not successful. The current challenge facing science teacher education is whether there is adequate national commitment, determination, and know-how to realize the visions elaborated in current reform documents.
See also: National Science Teachers Association; Science Education, subentry on Overview; Science Learning.
Brockway, Carolyn. 1989. "The Status of Science Teacher Education in Iowa, 1988." Ph.D. diss., University of Iowa.
Harms, Norris C., and Yager, Robert E. 1981. What Research Says to the Science Teacher. Washington, DC: National Science Teachers Association.
Harty, H., and Enochs, Larry G. 1985. "Toward Reshaping the Inservice Education of Science Teachers." School Science and Mathematics 85:125–135.
Holdzkom, David, and Lutz, Pamela B., eds. 1984. Research within Reach: Science Education. Charleston, WV: Appalachia Educational Laboratory, Research and Development Interpretation Service.
Lanier, Judith, and Little, Judith Warren. 1986. "Research on Teacher Education." In Handbook of Research on Teaching, 3rd edition, ed. M. C. Wittrock. New York: Macmillan.
National Education Association. Educational Policies Commission. 1944. Education for All American Youth. Washington, DC: National Education Association and American Association of School Administrators.
National Education Association. Educational Policies Commission. 1952. Education for All American Youth: A Further Look. Washington, DC: National Education Association and American Association of School Administrators.
National Research Council. 1996. National Science Education Standards. Washington, DC: National Academy Press.
National Research Council. 1999. How People Learn: Brain, Mind, Experience, and School. Washington, DC: National Academy Press.
Penick, John E., ed. 1987. Focus on Excellence: Preservice Elementary Teacher Education in Science. Washington, DC: National Science Teachers Association.
Robinson, Janet B., and Yager, Robert E. 1998. Translating and Using Research for Improving Teacher Education in Science and Mathematics (SALISH II). Iowa City: University of Iowa, Science Education Center.
Salish Research Consortium. 1997. Secondary Science and Mathematics Teacher Preparation Programs: Influences on New Teachers and Their Students: Final Report of the Salish I Research Project (SALISH I). Iowa City: University of Iowa, Science Education Center.
Yager, Robert E. 1980. Status Study of Graduate Science Education in the United States, 1960–1980. Washington, DC: National Science Foundation.
Yager, Robert E. 2000. "A Vision for What Science Education Should Be Like for the First Twenty-Five Years of a New Millennium." School Science and Mathematics 100:327–341.
Yager, Robert E.; Lunetta, Vincent N.; and Penick, John E. 1980. The Iowa–UPSTEP Program: Final Report. Iowa City: University of Iowa, Science Education Center.
Yager, Robert E., and Penick, John E. 1990. "Science Teacher Education." In Handbook of Research on Teacher Education, ed. W. Robert Houston. New York: Macmillan.
Robert E. Yager
"Science Education." Encyclopedia of Education. . Encyclopedia.com. (October 18, 2017). http://www.encyclopedia.com/education/encyclopedias-almanacs-transcripts-and-maps/science-education
"Science Education." Encyclopedia of Education. . Retrieved October 18, 2017 from Encyclopedia.com: http://www.encyclopedia.com/education/encyclopedias-almanacs-transcripts-and-maps/science-education
SCIENCE EDUCATION. Although advanced science education did not begin to thrive in the United States until the last third of the nineteenth century, scientific learning has long been a part of American intellectual and cultural life. In colonial America, mathematics and natural philosophy formed a standard part of a college education. As a Harvard student in the 1750s, John Adams studied both subjects, as did Thomas Jefferson and James Madison at William and Mary and the College of New Jersey (later Princeton), respectively. Natural history entered the university curriculum toward the end of the eighteenth century, and in 1802, the establishment of the United States Military Academy at West Point provided a center for engineering education to meet the new nation's military engineering needs.
Social settings outside the colleges and universities also provided important forums for learning and discussing the truths of the natural world. In Europe, the rise of print culture and an active literary public sphere, and the creation of new institutions such as London's Royal Society, with its gentlemanly forms of discourse, or the Parisian salon where men and women pursued science as a form of entertainment, all played a central role in disseminating the natural philosophy of the Enlightenment during the seventeenth and eighteenth centuries. Similar developments characterized scientific learning in America during the colonial and early national periods, through learned societies such as Philadelphia's American Philosophical Society, public lecture-demonstrations by men of science, and newly established museums with natural history collections.
Nevertheless, by the middle of the nineteenth century the boosters of American science remained acutely aware that scientific learning in the United States was still distinctly second-rate. Books were scarce, and standard sources in European libraries were absent from American shelves. In universities, the prohibitively high cost of scientific apparatus meant that laboratory instruction was almost nonexistent. Natural history flourished thanks to the wealth of living organisms and fossils that required identification and classification, but American science had little to celebrate in fields such as chemistry, physics, and mathematics. Opportunities for advanced science education were few, and Europe remained the preferred option for those who wanted high-quality training.
With the nationwide trend toward professionalization in the 1840s, opportunities for higher education in science and engineering gradually increased. West Point's engineering program had declined by the 1830s, but in 1835, the Rensselaer Institute (renamed Rensselaer Polytechnic Institute in 1851) helped fill the gap by awarding the nation's first civil engineering degrees. Engineering education expanded further in the 1850s and 1860s with the founding of new engineering schools such as Brooklyn Polytechnic Institute and Massachusetts Institute of Technology. By the 1870s, there were eighty-five engineering schools in the United States. Scientific schools proliferated as well. Yale founded its School of Applied Chemistry in 1847, which evolved into the Sheffield Scientific School in 1861 (the same year that Yale awarded the nation's first Ph.D.s, one in physics and two outside the sciences), and other universities followed suit. The United States could boast seventy such schools by 1873. The passage of the Morrill Act in 1862 provided an additional boost to science and engineering by providing states with land grants to endow colleges and universities "for the benefit of agriculture and the mechanic arts." More than seventy institutions were either established or assisted under the Morrill Act, including Cornell University, University of Minnesota, and University of Wisconsin.
This expansion of science and engineering education represented a change in scale, but less a change in kind. The opening of Johns Hopkins University in 1876, however, signaled the creation of a new kind of institution: the American research university, dedicated primarily to graduate education and the generation of new knowledge, particularly in the sciences. By the turn of the century, research had become a central criterion for all universities that aspired to academic excellence. In the early twentieth century, other institutions, particularly philanthropic foundations, began to combine forces with the universities to promote advanced scientific education and research. The Rockefeller Foundation, launched in 1913, played a major role in building American leadership in science. During the 1920s, for example, a generation of brilliant young American physicists studied in Europe, most with support from the Rockefeller-funded National Research Council fellowship program, and their return to American academic positions turned the United States into a major center of physics where aspiring physicists could find high-quality training. A few years later, the rise of fascism forced many of Europe's best physicists to seek refuge in the United States, and American physics reached even greater heights.
Ultimately, however, World War II and the Cold War played the most important role in transforming American science education into its currently recognizable form. Leading research universities in science and engineering fields built their reputations upon the foundations of wartime and postwar funding for research. Wartime defense spending, for example, helped transform MIT into a truly distinguished research center. MIT led universities with $117 million in defense contracts during the war, and with the rise of the Cold War and the permanent mobilization of science by the federal government, the institute continued to be a center of military-sponsored research. Stanford University also benefited immensely from the new relationship between science and the federal government. Although Stanford University held few wartime defense contracts, after the war its administrators aggressively pursued Cold War defense dollars in order to turn their university into a first-rate research institution. Within a few years Stanford rivaled MIT for preeminence in electrical engineering and other fields that commanded generous defense contracts.
Cold War funding and the massive expansion of university-based research transformed science education in a variety of ways. The physical sciences received well over 90 percent of their research funds from military sources in the 1950s and 1960s. As military needs shifted disciplinary priorities, science and engineering students gained a new sense of the kinds of research problems that earned professional acclaim. For example, the entire discipline of electrical engineering redefined itself around military problems. At MIT, a significant number of students wrote dissertations on classified projects, and even the textbooks reflected military topics. Its aeronautical engineering program turned away from questions of safety to an almost exclusive concern with high-performance aircraft. Such Cold War trends reproduced themselves, to varying degrees, at the major research universities across the country.
As a result of federal support for university research, postwar America could boast the best advanced scientific education in the world. There did not always seem to be enough students to take advantage of that education, however, and throughout the Cold War, policymakers continually worried about shortages in scientific manpower. They responded with educational initiatives designed to ensure a steady supply of scientists. In 1948 the Atomic Energy Commission established the largest program for advanced science education in the nation's history by providing generous fellowship support to hundreds of students each year for graduate and postdoctoral work in physics, mathematics, biology, and medicine. Federal educational support increased further after the Soviet launch of Sputnik prompted a nervous Congress to pass the National Defense Education Act of 1958. The act appropriated more than $370 million to promote education in science, engineering, and other areas, such as foreign language study, deemed necessary to provide expertise for waging the Cold War.
After the 1960s, government efforts increasingly focused on creating educational opportunities for women and minorities in order to augment the scientific talent pool. Government policies helped growing numbers of women and racial minorities to pursue scientific careers, but African Americans, Latinos, and Native Americans still report the persistence of systemic barriers and subtle forms of discrimination. By 1999, members of under-represented minority groups—African Americans, Latinos, and Native Americans—still earned less than 10 percent of science and engineering doctorates. In physics these minorities accounted for only 3.6 percent of doctorates, or just twenty-six physics degrees across the entire nation. Women have become increasingly visible in the life sciences, where in 1999 they earned over 40 percent of doctoral degrees, but only 23 percent of Ph.D.s in the physical sciences (and less than 13 percent in physics) went to women. In the meantime, a heavy influx of science and engineering students from abroad played a key role in providing the United States with scientific talent. By the 1990s, foreigners constituted nearly 40 percent of science and engineering doctoral students in the United States, and two-thirds accepted American employment after earning their degrees. Among Chinese and Indians, nearly 80 percent chose to remain in the United States. Immigration also contributed to the relatively large percentage of Asian Americans who have earned science and engineering doctorates, since the highly educated Asian immigrants who came to the United States in large numbers beginning in the 1960s viewed science and engineering as means of upward mobility, and they encouraged their children to follow similar career paths. In 1999, Asian Americans earned over 11 percent of science and engineering doctorates, even though their percentage of the total U.S. population stood in the low single digits.
The evolution of science education has thus moved in tandem with larger social and political currents—transformed not only by institutional change but by domestic social change, which has led radically different groups of people to pursue science and engineering degrees in twenty-first-century America.
Bruce, Robert V. The Launching of Modern American Science, 1846–1876. New York: Knopf, 1987.
Cohen, I. Bernard. Science and the Founding Fathers: Science in the Political Thought of Jefferson, Franklin, Adams, and Madison. New York and London: Norton, 1995.
Greene, John C. American Science in the Age of Jefferson. Ames: Iowa State University Press, 1984.
Kevles, Daniel J. The Physicists: The History of a Scientific Community in Modern America. New York: Knopf, 1978. Reprint with new preface, Cambridge, Mass., and London: Harvard University Press, 1995.
Kohler, Robert E. Partners in Science: Foundations and Natural Scientists, 1900–1945. Chicago and London: University of Chicago Press, 1991.
Leslie, Stuart W. The Cold War and American Science: The Military-Industrial-Academic Complex at MIT and Stanford. New York: Columbia University Press, 1993.
Lowen, Rebecca S. Creating the Cold War University: The Transformation of Stanford. Berkeley and Los Angeles: University of California Press, 1997.
See alsoEducation, Higher: Colleges and Universities .
"Science Education." Dictionary of American History. . Encyclopedia.com. (October 18, 2017). http://www.encyclopedia.com/history/dictionaries-thesauruses-pictures-and-press-releases/science-education
"Science Education." Dictionary of American History. . Retrieved October 18, 2017 from Encyclopedia.com: http://www.encyclopedia.com/history/dictionaries-thesauruses-pictures-and-press-releases/science-education