Literature Index

Displaying 831 - 840 of 3326
  • Author(s):
    Meletiou, M.
    Editors:
    Confrey, J.
    Year:
    2000
    Abstract:
    The conjecture driving this study is that if statistics curricula were to put<br>more emphasis on helping students improve their intuitions about variation and its<br>relevance to statistics, we would be able to witness improved comprehension of<br>statistical concepts (Ballman, 1997). Both the research literature and previously<br>conducted research by the author indicate that variation is often neglected, and its<br>critical role in statistical reasoning is under-recognized.<br>A nontraditional approach to statistics instruction that has variation as its<br>central tenet, and perceives learning as a dynamic process subject to development<br>for a long period of time and through a variety of contexts and tools, is laid out in<br>this thesis. The experiences and insights gained from adopting such an approach<br>in a college level, introductory statistics classroom are reported.
  • Author(s):
    Garfield, J., Le, L., Zieffler, A., & Ben-Zvi, D.
    Year:
    2015
    Abstract:
    This paper describes the importance of developing students’ reasoning about samples and sampling variability as a foundation for statistical thinking. Research on expert–novice thinking as well as statistical thinking is reviewed and compared. A case is made thatstatisticalthinkingisatypeofexpertthinking,andassuch,researchcomparingnoviceand expert thinking can inform the research on developing statistical thinking in students. It is also posited that developing students’ informal inferential reasoning, akin to novice thinking, can help build the foundations of experts’ statistical thinking.
  • Author(s):
    Garfield, J., & Ben-Zvi, D.
    Year:
    2008
  • Author(s):
    Pfannkuch, M., & Ben-Zvi, D.
    Editors:
    C. Batanero, G. Burrill, & C. Reading
    Year:
    2011
    Abstract:
    In this chapter learning experiences that teachers need in order to develop their ability to think and reason statistically are described. It is argued that teacher courses should be designed around five major themes: developing understanding of key statistical concepts; developing the ability to explore and learn from data; developing statistical argumentation; using formative assessment; and learning to understand students’ reasoning.
  • Author(s):
    Bryce, G. R.
    Editors:
    Stephenson, W. R.
    Year:
    2005
    Abstract:
    Many leaders of our profession have called for improvements in the way we educate statisticians. Sound recommendations have been made by many, based on real-world experience in the practice of statistical science. These calls for reform have gone largely unheeded, at least in part because of our current paradigm of statistical education. Statistics is seen, by many, as strictly a graduate discipline, yet constraints on the time to complete a graduate degree makes adopting many of the reforms that have been suggested very difficult. It is argued in this paper that a new paradigm of statistical education is needed that provides for strong undergraduate programs in statistics. Such programs would give the profession wider recognition and provide additional entries into the discipline.
  • Author(s):
    EFI PAPARISTODEMOU &amp; MARIA MELETIOU-MAVROTHERIS
    Year:
    2008
    Abstract:
    This paper focuses on developing students' informal inference skills, reporting on<br>how a group of third grade students formulated and evaluated data-based inferences<br>using the dynamic statistics data-visualization environment TinkerPlotsTM (Konold &amp;<br>Miller, 2005), software specifically designed to meet the learning needs of students in<br>the early grades. Children analyzed collected data using TinkerPlots as an<br>investigation tool, and made a presentation of their findings to the whole school.<br>Findings from the study support the view that statistics instruction can promote the<br>development of learners' inferential reasoning at an early age, through an informal,<br>data-based approach. They also suggest that the use of dynamic statistics software<br>has the potential to enhance statistics instruction by making inferential reasoning<br>accessible to young learners.
  • Author(s):
    Maria C. Pruchnicki
    Year:
    2007
    Abstract:
    Distance education and online learning opportunities, collectively known as "e-learning", are becoming increasingly used in higher education. Nationally, online enrollment increased to 3.2 million students in 2005, compared to 2.3 million in 2004.[1] Furthermore, nearly 60% of higher education institutions identify e-learning as part of their long-term education strategy.[1] Newer educational technologies including course management systems and Internet-based conferencing software can be used to both deliver content and engage participants as part of a social learning community. However, even experienced faculty can face pedagogical and operational challenges as they transition to the online environment. This interactive presentation will discuss a systematic approach to developing web-based instruction, with our experience as a case example.
  • Author(s):
    Cruise, R. J., Cash, R. W., &amp; Bolton, D. L.
    Year:
    1985
    Abstract:
    The Statistical Anxiety Rating Scale (STARS) was developed to measure statistical anxiety. Statistical anxiety is defined as the feelings of anxiety encountered when taking a statistics course or doing statistical analyses. Eighty-nine items were generated and presented to a sample of 1150 statistics students. STARS can be used by statistics teachers to help diagnose areas of high anxiety.
  • Author(s):
    Groth, R. E.
    Editors:
    Langrall, C., &amp; Mooney, E.
    Year:
    2003
    Abstract:
    The study sough to describe the statistical thinking of high school students. The two research questions guiding the study were: (i) What are the defining characteristics of different patterns of high school students' statistical thinking within the processes of describing, organizing and reducing, representing, analyzing, and collecting data? (ii) What levels of statistical thinking can be associated with each of the patterns? In order to answer the two research questions, high school students of various grade levels and mathematical backgrounds and recent high school graduates were asked to solve statistical thinking tasks during clinical interview sessions. The cognitive model described by Biggs and Collis (1982, 1991) was applied in differentiating among patterns of sophistication in the students' responses to the interview tasks. The study identified and characterized levels of thinking which provide the basis of a framework useful for advising instruction, curriculum development, and further research in the area of high school statistics.
  • Author(s):
    Piotrowski, C., Bagui, S. C. &amp; Hemasinha, R.
    Year:
    2002
    Abstract:
    Mathematics anxiety has always maintained a central focus in the education literature. However, there has been a recent focus on "statistics anxiety" as experienced by undergraduates. This paper presents the development of an instrument that assesses "statistical anxiety" in psychology graduate students. This measure was administered to 10 students enrolled in a graduate statistics course in an effort to refine the measure via student feedback. The refined instrument could be used as a screening tool for psychology students prior to taking graduate--level statistics course work; Such evaluation can assist instructors in identifying remedial need or counseling intervention.

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The CAUSE Research Group is supported in part by a member initiative grant from the American Statistical Association’s Section on Statistics and Data Science Education

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