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Meaningful Discourse in Middle School: Linking Research to Practice

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Title: Meaningful Discourse in Middle School: Linking Research to Practice


1
Meaningful Discourse in Middle School Linking
Research to Practice
  • Diana Piccolo, Mary Margaret Capraro, Robert M.
    CapraroTexas AM University
  • Adam HarbaughUNC Charlotte
  • Tamara CarterOklahoma City Community College

2
Classroom Communication
  • NCTM recommends teachers
  • should orchestrate discourse bylistening
    carefully to students ideas asking students to
    clarify and justify their ideas orally and in
    writing
  • deciding what to pursue in depth from among the
    ideas that students bring up during a discussion
  • deciding when to provide informationand when to
    let a student struggle with a difficulty
    (National Council of Teachers of Mathematics,
    1991, p. 35).

3
Classroom Communication
  • NCTMs Communication Standard recommends teachers
    and programs enable students to
  • Organize and consolidate their mathematical
    thinking through communication,
  • Communicate their mathematical thinking
    coherently and clearly to peers, teachers, and
    others,
  • Analyze and evaluate the mathematical thinking
    and strategies of others, and
  • Use the language of mathematics to express
    mathematical ideas precisely  
  • (National Council of Teachers of Mathematics,
    2000, p. 60).

4
Classroom Communication
  • The IRE sequence and its derivatives (Edwards
    Mercer, 1987) have been the prominent in many
    studies on mathematics classroom discourse (Nardi
    Steward, 2003).

5
Classroom Communication
  • Teachers as orchestrators of interactions may
    give students a more active role in
    explaining/learning mathematics (Forman Ansell,
    2001).
  • Teachers serve as facilitators in students
    reflective discourse practices by initiating
    discussions and taking a non-participatory
    evaluative role (Cobb, Boufi, McClain,
    Whitnack, 1997).

6
QuestioningBi-directional
  • Teacher
  • Broadcast
  • Directed
  • Specific
  • Pinpoint
  • Student
  • Teacher
  • Peer
  • Broadcast

7
Effective Questioning
  • Effective questioning combined with rich
    dialogues precipitate significant mathematical
    ideas - - between teachers and students (Thompson
    Thompson, 1996).
  • Open-ended questionscan contribute to the
    construction of more sophisticated mathematical
    knowledge by students (Martino Maher, 1999,
    p. 53-54).

8
Conceptual Questions
  • Currently, the emphasis of mathematics reform
    encourages teachers to focus on conceptual
    approaches to learning mathematics however,
    research shows a lack of conceptual questioning
    in classrooms and verifies the need to improve
    teachers knowledge about the use of these
    questions (Belliveau-White, 2001).
  • Dialogue that elicits questions can extend a
    students knowledge (Martinello, 1998).

9
Disposition to Questions
  • Teachers
  • Probe for information
  • Guide toward solutions or strategies
  • Students
  • Procedures
  • Processes

10
Questions hard to answer
  • It is not how many questions a teacher can ask
    that the students will answer readily, but how
    many questions are asked that inspire them to ask
    him which he finds hard to answer (Rollins, 2006).

11
Classroom Interaction and Conversation
  • Five components that foster effective
    teacher-student communication
  • Communicating clearly and accurately
  • Using questioning and discussion techniques
  • Engaging students in learning
  • Providing feedback to students
  • Demonstrating flexibility and responsiveness
  • (Danielson, 1996)

12
Evidence of quality discourse
  • For students to become engaged in learning,
    they must be exposed to clear directions and
    explanations. In addition, a teachers use of
    vivid and expressive language can enhance a
    learning experience (Danielson, 1996, p. 90).

13
Methodology
  • Extant video
  • Three Years (2001-04)
  • Year 1
  • 72 videos (18 Ts)
  • Year 2
  • 71 videos (20 Ts)
  • Year 3
  • 40 videos (10 Ts)

14
Video Content
  • (1) symbolic equations representing how a
    quantity of something changes over time or in
    response to other changes
  • (2) use, interpret, and compare numbers as
    integers, fractions, decimals, and percents.
  • (3) measures of central tendency

15
Engaged Time
  • Class Time 60 to 90 minutes
  • Engaged time 42 minutes (SD 15.23)
  • Range 10 - 72 minutes
  • Total minutes viewed 8700

16
Coding
  • 10 individuals trained to identify
    teacher-student interactive discussion
  • Each video coded by 4 members of team
  • Reliability at 95
  • 20 second window
  • 210 single-spaced pages

17
(No Transcript)
18
Results
  • Little change over time in discursive practices
  • Changes in lesson delivery was evident but this
    change did not seem to influence discursive
    practices.
  • Persistent student questioning led to more
    in-depth teacher responses which appeared to be
    connected to improved discourse, deeper and more
    robust teacher explanation, and more persistent
    teacher inquiry into student understanding.
  • Multiple questioning techniques (cloze/open) led
    to our our observation of evidence of student
    initial understanding.
  • Cloze questioning also led to evidence of student
    initial understanding, albeit not as frequently
    as more open forms.

19
Recommendations
  • Continue teacher professional development on
    questioning to establish an atmosphere conducive
    to student initiated questioning.
  • Students should be instructed in questioning
    techniques that allow them to persist until they
    acquire understanding.
  • Examine the effects on classroom discourse of
    student workshops about questioning techniques.
  • Examine discourse practices on student
    achievement.
  • In order to help students transition toward
    asking more metacognitive questions, teachers
    should engage in problem posing (students
    providing questions to problem prompts).

20
Rich Mathematics Classroom Conversations
  • Robert M. Capraro, Texas AM University
  • rcapraro_at_coe.tamu.eduMary Margaret Capraro,
    Texas AM University
  • mmcapraro_at_coe.tamu.edu
  • Adam Harbaugh, UNC Charlotte
  • apharbau_at_email.uncc.eduTamara Carter,
    Oklahoma City Community College
  • tcarter_at_occc.edu
  • Diana Piccolo, Texas AM University
  • ldp11_at_neo.tamu.edu

21
References
  • Ball, D. L. (1990). The mathematical
    understandings that prospective teachers bring to
    teacher education. Elementary School Journal,
    90(4), 449-466.
  • Belliveau-White, P. (2001). Conceptual
    questioning in the mathematics classroom.
    Unpublished dissertation,The University of New
    Brunswick.
  • Cobb, P., Boufi, A., McClain, K., Whitenack, J.
    (1997). Reflective discourse and collective
    reflection. Journal for Research in Mathematics
    Education, 28, 258-277.
  • Danielson, C. (1996). Enhancing professional
    practice. Alexandria, VA Association for
    Supervision and Curriculum Development (ASCD).
  • Edwards, D., Mercer, N. (1987). Common
    knowledge The development of understanding in
    the classroom. London Methuen.
  • Martinello, M. L. (1998). Learning to question
    for inquiry. The Educational Forum, 62(2),
    164-171.
  • Forman, E. A., Ansell, E. (2001). The multiple
    voices of a mathematics classroom community.
    Educational Studies in Mathematics, 46, 115-142.
  • Martino, A. M., Maher, C. A. (1999). Teacher
    questioning to promote justification and
    generalization in mathematics What research
    practice has taught us. Journal of Mathematical
    Behavior, 18(1), 53-78.
  • Nardi, E., Steward, S. (2003). Is mathematics
    T.I.R.E.D? A quiet disaffection in the secondary
    mathematics classroom. British Education Research
    Journal, 29, 345-367.
  • National Council of Teachers of Mathematics.
    (1991). Professional standards for teaching
    mathematics. Reston, VA Author.
  • National Council of Teachers of Mathematics.
    (2000). Principles and standards for school
    mathematics. Reston, VA Author.
  • Rollins, W. (2006). Retrieved 4/1/06 from
    http//pedagogicalfox.blogspot.com/
  • Shulman, L. (1987). Knowledge and teaching
    Foundations on the new reform. Harvard
    Educational Review, 57, 1-22.
  • Thompson, P. , Thompson, A. (1996). Talking
    about rates conceptually, Part II Mathematical
    knowledge for teaching. Journal for Research in
    Mathematics Education, 27, 2-24.
  • Wilson, S. M., Shulman, L. S., Richert, A.
    (1987). 150 different ways of knowing
    representations of knowledge in teaching. In J.
    Calderhead (Ed.), Exploring teacher thinking (pp.
    104-124). Sussex, UK Holt, Rinehart, Winston.
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