We shall discuss the software and hardware which are required to develop new models from data analysis.
We shall discuss the software and hardware which are required to develop new models from data analysis.
While the emphasis in tertiary education in Australia in the past has been on pre-employment training, the rapid expansion in knowledge has meant that there is an increased need to provide graduates with the opportunity to continue their education. This will often be in areas to which they have had minimal exposure in their undergraduate course. Such is the case with Arts graduates, most of whom will have had at best only a basic introduction to statistics and little opportunity to become computer literate. One way of providing this continuing education is through short courses. These are appropriate when the training needs are limited and well defined. Often a more substantial form of training is needed and this has been the motivation for the development of the Post Graduate Diploma in Social Statistics that is described in this paper.
This paper deals with the attitudes which students bring with them into statistics courses and which influence the processes of teaching and learning.
The purpose of Dealing with Data and Chance, as well as of the other books in the Grades 5-8 Addenda Series, is to provide teachers with ideas and materials to support the implementation of the Curriculum and Evaluation Standards for School Mathematics (NCTM 1989).
At its August 1992 meeting in Boston, the Committee on Applied and Theoretical Statistics (CATS) noted widespread sentiment in the statistical community that upper-level undergraduate and graduate curricula for statistics majors and postdoctoral training for statisticians are currently structured in ways that do not provide sufficient exposure to modern statistical analysis, computational and graphical tools, communication skills, and the ever-growing interdisciplinary uses of statistics. Approaches and materials once considered standard are being rethought. The growth that statistics has undergone is often not reflected in the education that future statistician receive. There is a need to incorporate more meaningfully into the curriculum the computational and graphical tools that are today so important to many professional statisticians. There is a need for improved training of statistics students in written and oral communication skills, which are crucial for effective interaction with scientists and policy makers. More realistic experience is needed in various application areas for which statistics is now a key to further progress. In response to this sentiment, CATS initiated a project on modern interdisciplinary university statistics education. With support from the National Science Foundation, CATS organized and held a one-and-one-half-day symposium on that topic in conjunction with the August 1993 San Francisco Joint Statistical Meetings. The symposium's focus was what changes in statistics education are needed to (1) incorporate interdisciplinary training into the upper-undergraduate, graduate, and postdoctoral statistics programs, (2) bring the upper-undergraduate and graduate statistics curricula up to date, and (3) improve apprenticing of statistics graduate and postdoctoral students and appropriately reward faculty mentors. These proceedings have been compiled to capture the timely and important presentations and discussions that took place at that symposium. It should be noted that the opinions expressed in this volume are those of the speakers of discussants and do not necessarily represent the views of CATS or of the National Research Council.
During winter quarter 1993, we offered for three-credit-hour course "STT 343, Probability and Statistics for Elementary and Middle School Teachers." The Quantitative Literacy Series was used as the textbook, and the course was taught with the intention of remaining true to the philosophy of the Quantitative Literacy Workshops. This is a report on my experiences.
This paper describes a National Science foundation (NSF) Sponsored Teacher Enhancement Program (TEP) in statistics during the years 1991 - 1994 conducted at the University of Puerto Rico. The project evolved from the belief that statistics is more meaningful to students when they plan, experiment, collect and analyze data themselves rather than when they learn a set of formulas and techniques. This idea was first incorporated locally in an NSF Sponsored Young Scholars Program in statistics during the period 1989 - 1991 in which the author worked with talented students from high schools in the region. The experience and success of the Young Scholars Program and the education department's request to expand it led to the TEP in statistics presented herein. There are three special features of this project. The first feature is to introduce the modern method of teaching statistical reasoning to students primarily through the use of examples and class projects which are interesting to students and related to current issues. A second important feature is the comprehensive nature of training in the fields of statistics, computers and research methodology. the third important characteristic is the three year follow up phase of the project which provided time to integrate the philosophy of the project into the educational system.
We describe an NSF-funded project to develop a new curriculum for introductory statistics for engineering, science and management students. The goals of the curriculum are to get students to think critically about data, and to demonstrate the role of statistics in scientific investigation. The curriculum features a number of one-week modules each keyed to project and laboratory experience. The modular structure offers flexibility in course design and gives students the ability to tailor the course to individual needs. The learning environment is problem-driven and alternative modes of delivery are emphasized.
Because of the direct link between a country's socio-economic conditions and its system of education, there exist enormous differences between the educational systems of the developed and the underdeveloped countries. Consequently, the quality of statistical education in developing countries varies, both in courses and teaching methods. As such, there cannot be a uniform strategy for educational improvement in various parts of the world. Efforts to improve the quality of education in any country will necessarily have to take into account its economic and socio-cultural realities and, as such, there is a need for developing an in-depth understanding of the socio-economic conditions of various countries of the world. This paper presents a review of the existing situation of statistical education in Pakistan. Various problems have been highlighted, the objective being to assist the International Statistical Institute in developing a deeper understanding of difficulties associated with statistical education in some of the underdeveloped countries.
This paper elucidates the way Data Analysis was introduced through Mathematics in the schools of Indonesia prior to 1994, and what approach could be used in the 1994 curriculum to make Indonesian Middle School students of the turn-of-the-century quantitatively literate.