Applicability of systems philosophy to the futuristic science of education: Dissident vistas

This dissertation is a futuristic exploration into “dissident vistas” in pedagogical science and, in fact, in human sciences in general. The scope of educational research is often narrowed and distorted by the sociopolitical needs of the established academic elite. The mainstream of the present tradition of pedagogical theory and research has failed to focus on the phenomenon of education as a whole in order to open new perspectives for its beneficial influence on the society. There has been, for decades now, a growing need for education to become a change agent —a strategic tool for serious search after goals and models relevant to the future progress of the human society. Proper new scientific attempts are necessary if education is to be seriously considered as such a change agent. It is the firm conviction of the author that any attitude of today's educationalists towards their work, other than that of serious obligation towards the future of mankind, would be ethically unsound. Certain ambiguity has always surrounded the concept of education: is education a whole system or is it a vague set of very different things (human aspirations, social conditions, intentional input, contextual circumstances, natural processes etc.)? This ambiguity must be reduced, if any explicit discussion of the role of education is sought. In pedagogical science, and indeed in most human sciences, there are very few ontological premises, and certainly no axioms, that the majority of scientists would generally agree on. Systematic ontological and epistemological study of the phenomenon of education is almost nonexistent. It is to this end that this research is hoped to contribute.     

Culture and Cognitive Development

Human beings are biologically adapted for culture in ways that other primates are not. The difference can be clearly seen when the social learning skills of humans and their nearest primate relatives are systematically compared. The human adaptation for culture begins to make itself manifest in human ontogeny at around 1 year of age as human infants come to understand other persons as intentional agents like the self and so engage in joint attentional interactions with them. This understanding then enables young children (a) to employ some uniquely powerful forms of cultural learning to acquire the accumulated wisdom of their cultures, especially as embodied in language, and also (b) to comprehend their worlds in some uniquely powerful ways involving perspectivally based symbolic representations.     

Good science and good philosophy of science

I argue against the assumption that the influence of non-cognitive values must lead to bad science, opening the way for the thesis that non-cognitive values are compatible with good science. This, in turn, allows us to answer feminist questions, principally, How do gender politics influence science? without (1) having to reject the question a priori because theories of science assume that political values cannot influence good scientific work and (2) having made a case for the influence of gender politics upon a particular bit of scientific work, being put into the ludicrous position of saying that it is bad science after all, even though the relevant community of scientists say it is good. Nevertheless, moral and political neutrality is held to be a norm of good science and a tacit metaphilosophical norm governing good philosophy of science, viz., a good philosophy of science reveals and analyzes the morally and politically neutral production of good science. This metaphilosophical norm insures that the philosophy of science (1) is blind to the influence of non-cognitive values on good science if and when these are present and so (2) acquiesces in the moral or political arrangements supported by the science in question.     

The dissemination and research of Laszlo's systems philosophy in China

Since the 1980s, the so‐called “new six‐theory” (Dissipative structure theory, Synergetics theory, Catastrophe theory, Chaos theory, Fractal theory, and Hypercycle theory), different from the traditional “systems theory,” “information theory,” and “cybernetics theory” (the “old three theory") has been introduced into China. With it, Laszlo's systems philosophy has been given close attention by Chinese scholars. The main elements of this work are analyzed in terms of the publication and research of Laszlo's work on systems philosophy, and more specifically on systems philosophy and the theory of knowledge, systems philosophy and general evolution theory, systems philosophy and the theory of value, and systems philosophy and metaphysics.     

信息哲学与未来中国科技哲学的基础

The research programme of the philosophy of information (PI) proposed in 2002 made it an independent area or discipline in philosophical research. The scientific concept of ‘information’ is formally accepted in philosophical inquiry. Hence a new and tool-driven philosophical discipline of PI with its interdisciplinary nature has been established. Philosophy of information is an ‘orientative’ rather than ‘cognitive’ philosophy. When PI is under consideration in the history of Western philosophy, it can be regarded as a shift of large tradition. There are three large traditions at large, known as Platonic, Kantian and Leibniz-Russellian. In the discussion of the position of the possible worlds, we have modal Platonism and modal realism, but both of the theories are made in the framework of Western philosophy. In this essay, it is argued that possible worlds could be seen as worlds in information, which is then an interpretation of modal information theory (MIT). Our interpretation is made on the basis of Leibniz’s lifelong connection with China, a fact often overlooked by the Western philosophers. Possible world theory was influenced by the Neo-Confucianism flourishing since the Song Dynasty of China, the foundation of which is Yijing. It could be argued that Leibniz’s possible world theory was formulated in respect to the impact of the thoughts reflected in Yijing, in that one of the prominent features is the model-theoretic construction of theories. There are two approaches to theory construction, i.e., axiom-theoretic and model-theoretic. The origin of the former is from ancient Greece and the latter from ancient China. And they determined the different features of theoretic structures between the oriental and occidental traditions of science and technology. The tendency of the future development of science and technology is changing from the axiom-theoretic to the model-theoretic orientation, at least the two approaches being complementary each other. To some extent, this means the retrospective of tradition in the turning point of history, and some of the China’s cultural traditions might become the starting points in formulating the future Chinese philosophy of science and technology.     

Evolution and human choices

The postmodern world seems to have conclusively lost faith in the heady promises of human emancipation through rational understanding that have pervaded the Western world since the time of the Enlightenment. As the end of the millennium approaches and the evidence of man‐made environmental degradation accumulates nihilism and malaise color the future. This article argues that a clear understanding of both evolutionary forces and human consciousness permits to formulate a guardedly optimistic alternative view. It is advanced that the very sense of despair current circumstances have created may trigger a move toward a new form of psycho‐functional adaptation, simultaneously constituting a first instance of “conscious evolution” and fulfilling the progressive promise intrinsic in the full use of our rational faculties.     

Statistical concepts in philosophy of science

This article focuses on the role of statistical concepts in both experiment and theory in various scientific disciplines, especially physics, including astronomy, and psychology. In Sect. 1 the concept of uncertainty in astronomy is analyzed from Ptolemy to Laplace and Gauss. In Sect. 2 theoretical uses of probability and statistics in science are surveyed. Attention is focused on the historically important example of radioactive decay. In Sect. 3 the use of statistics in biology and the social sciences is examined, with detailed consideration of various Chi-square statistical tests. Such tests are essential for proper evaluation of many different kinds of scientific hypotheses.