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Education for the Future

1980, Journal of Chemical Education

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The text emphasizes the need for educational reform to foster creativity and innovation in students, particularly in light of the uncertainties and challenges that society faces. It critiques current educational practices that prioritize technical skills over imaginative thinking and advocates for a curriculum that encourages flexibility and lifelong learning. The article suggests that educational methods should be scrutinized and revised to cultivate independent thinking and inquisitiveness among students.

Downloaded via 54.162.69.248 on May 21, 2020 at 17:36:08 (UTC). See https://pubs.acs.org/sharingguidelines for options on how to legitimately share published articles. Education for the Future There is a growing belief by social philosophers and other observers of the passing scene that we—as individuals and collectively in the form of national and world groups—are entering into potentially unstable and uncertain times. Most of us have lived in an age of growth as evidenced by the conspicuous increase in consumption of natural resources and, as a consequence, have developed a mental attitude of rising expectations. Our unthinking impressions of the future are often biased by predictions based on a linear projection from past experiences. This condition is a common experience in the general populace. For example, there are intelligent people who cannot comprehend the reality of our energy problem; the concept of finite resources is not available to them as the starting point of a logical argument. Our point here is not to consider specific problems such as the current energy crisis, but rather how to deal, from an educational point of view with future situations which are not smoothly predictable from past experience, i.e., how to deal with future discontinuities. In the past, perceived potential uncertainties often yielded to the discovery of a new physical frontier which, in the hands of persons with special attributes, circumvented the temporary limits of growth and expansion. Thus, many of the classic geographical discoveries can be traced in part to a perceived need for a source of material substances, or after the discovery was made, new substances resulted from them. Except for the extraterrestrial space program, the physical limits for expansion—growth in the classical sense—appear to have been reached. Hence, growth must occur along other, still unknown or undeveloped, lines of effort, which will require the efforts of creative and innovative people. If education is, indeed, our best hope for the solution of dimly perceived problems, we need to consider how the current educational processes encourage the development of creativity or innovation. In other words, if it is difficult to predict, let alone agree on, the nature of future relevance, perhaps it would be useful to focus on those aspects of the educational process which might allow us to maximize creativity in our students so that they can address future problems regardless of what becomes relevant. Inspection of the average science curriculum shows that we spend most of our time stressing details. Perhaps this is to be expected because science is permeated by a wondrous array of phenomena interconnected by marvelously simple relationships. The phenomena often require a new (to the student) language for their description, and the interconnections frequently necessitate unaccustomed mental positions for their elaboration. Thus, the undergraduate virtually spends his entire career acquiring the language of science and mastering its use of tools, but he acquires little knowledge of how to use—let alone experience in using-—these in a meaningful way. As one high administrative academic official was heard to say on the occasion of the inauguration of a university president, “While we are producing students with the most astounding technologically sophisticated vocabularies and skills, we are failing to create imaginative, literate human beings.” Whatever the changing shape of society, scientists and engineers will have essential roles. We have an obligation to prepare our students to deal with uncertainty. Prudence would dictate caution against excessive specialization, and in favor of educational policies which stress flexibility and prepare students to pursue lifelong learning. In addition, the nature of our instructional methods and programs needs scrutiny. We must incorporate techniques in our teaching which stress the development of creativity or innovation. Inquisitiveness should be encouraged. We should be more sensitive to the student who is an independent thinker or who has a non-traditionai approach to the subject. Although it is difficult to describe creativity, let alone a process by which it evolves in individuals, we must begin to identify techniques to encourage its development. Such methods might include, on the one hand, specially designed courses, or, on the other hand, continual exposure of students to situations that, and to persons who will, foster acquisition of such skills throughout their formal education. To do less would send them seriously handicapped into a less certain future than we had before us. JJL Volume 57, Number 9, September 1980 / 607