Partnership Science and Technology Education

Author(s):  
Mary Kirk

Ultimately, creating lasting and long-term change in the participation of women as developers, users, and beneficiaries of technology necessitates addressing this change in all of our social institutions. However, as the social institution that is given explicit responsibility for teaching the next generation of citizens, education holds particularly significant potential to be a positive force for change. We need a fundamental shift in the culture of science and IT away from its dominator roots to a partnership perspective, and we all (i.e., teachers, students, parents, businessowners, and citizens) need to co-create this change together. In Tomorrow’s Children: A Blueprint for Partnership Education in the 21st Century, Riane Eisler (2000) calls for changes in content (what we teach—our curriculum), process (how we teach—our teaching methods), and structure (where we teach—our learning environments). In Chapter VI, I explored the first issue—what is missing from the content of our knowledge tradition. In Chapter III, I explored the second issue—process barriers that some learners face in due to the gendered philosophy of science and the ways in which certain learning styles are privileged over others. This chapter adds to the discussion of all three issues, but focuses primarily on the second and third—partnership methods of teaching and learning and how to create partnership learning environments. This chapter explores the following suggestions for shifting education (especially science and IT education) away from a dominator and towards a partnership model: (1) partnership ways of knowing; (2) considering the needs and perspectives of users and beneficiaries of science and IT in education; (3) educating teachers from kindergarten through college to better understand how our current system works as well as how to co-create partnership; (4) redefining student-teacher relationships in terms of partnership; (5) co-creating collaborative learning environments; (6) developing partnerships systems of testing, evaluating, and measuring learning; and (7) offering examples of partnership curricula and programs. In Chapter I, I contrasted the characteristics of dominator and partnership social systems. Table 1 describes the characteristics of partnership social systems that are particularly relevant to science and technology education as they relate to the topics covered in this chapter (Eisler, 1987, 2000, 2002, 2007; Eisler & Loye, 1990; Eisler & Miller, 2004).

2006 ◽  
Vol 931 ◽  
Author(s):  
Kamanio Chattopadhyay

ABSTRACTThis article explores issues and challenges in the field of education in nanoscience and technology with special emphasis with respect to India, where an expanding programme of research in nano science and technology is in place. The article does not concentrate on actual curricula that are needed in nano science and technology education course. Rather it focuses on the desirability of nanoscience and technology education at different levels of education and future prospect of students venturing into this within the economic and cultural milieu of India. We argue that care is needed in developing the education programme in India. However, the risk is worth taking as the education on nanoscience and technology can bridge the man power gap not only in this area of technology but also related technologies of hardware and micro electronics for which the country is a promising destination at global level. This will also unlock the demographical advantage that India will enjoy in the next five decades.


Author(s):  
Y. Ito ◽  
H. Ikemitsu ◽  
K. Nango

This paper proposes a science and technology education program to teach junior high school students to measure terrain changes by using interferometric synthetic aperture radar (SAR). The objectives of the proposed program are to evaluate and use information technology by performing SAR data processing in order to measure ground deformation, and to incorporate an understanding of Earth sciences by analyzing interferometric SAR processing results. To draft the teaching guidance plan for the developed education program, this study considers both science and technology education. The education program was used in a Japanese junior high school. An educational SAR processor developed by the authors and the customized Delft object-oriented radar interferometric software package were employed. Earthquakes as diastrophism events were chosen as practical teaching materials. The selected events indicate clear ground deformation in differential interferograms with high coherence levels. The learners were able to investigate the ground deformations and disasters caused by the events. They interactively used computers and became skilled at recognizing the knowledge and techniques of information technology, and then they evaluated the technology. Based on the results of pre- and post-questionnaire surveys and self-evaluation by the learners, it was clarified that the proposed program was applicable for junior high school education, and the learners recognized the usefulness of Earth observation technology by using interferometric SAR. The usefulness of the teaching materials in the learning activities was also shown through the practical teaching experience.


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