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Week 8 Reenacting mathematical concepts found in large-scale dance performance can provide both material and method for ensemble learning-- Summary

This paper explores the intersection of dance and mathematics through the analysis of quartets engaging with video recordings of choreographed performances from the 2016 Rio Olympic Games. It aims to enhance ensemble learning by dissecting and reenacting performances to explore their mathematical potential.

In the introduction, the authors highlight the importance of reenactment as a method to supplement Interaction Analysis (IA) in understanding quartets' actions and exploring the potential of ensemble learning. They emphasize the creative re-use of public media for mathematical exploration and the hybridization of dance and mathematics in ensemble learning.

The methods section details the approach taken in the study. Quartets participated in 90-minute video-elicited interviews where they watched and discussed the Rio performance recordings, engaged in mathematical activities with a square sheet prop, and created their own performances. The interactions were captured using multiple cameras and screen capture software to analyze the quartets' work and interactions.

The results of the study show that quartets explored symmetries and transformations of quadrilaterals and triangles through their reenactments and creative activities. By engaging with the prop and the choreographed movements, participants were able to learn mathematical concepts embedded in the dance performance. 

Dissection and reenactment helped to provoke fundamental questions about knowing and interpreting mathematical figures. The participants at first encountered complexities in coordinating phrases, such as flipping a square like the Rio performers did. Through dissection and reenactment, they discovered new units for action and engaged in ensemble performances that transformed familiar mathematical objects in innovative ways. The hybrid space created by dissection and reenactment pushed the girls to invent new practices and negotiate shared approaches to interpreting and enacting mathematical concepts.

Props can act as partners in generating ensemble mathematical performances. The educators engaged in improvisational work, developing complex performance sequences that showcased the prop as a key participant in their collaborative exploration. Through collective experiences with dissection and creative play, the educators were able to leverage the prop to enhance their ensemble reasoning and generate innovative mathematical performances.

Reenactment can be a method to make discoveries and systematize ensemble performances mathematically. Through repeated enactments and collaborative analysis, the scientists discovered new facets of interaction with the prop, leading to a deeper understanding of the mathematical concepts involved. By engaging in ensemble reenactments, the group identified key elements that contributed to successful performances, allowing them to explain and replicate complex mathematical actions.

Furthermore, the study revealed the significance of ensemble learning in hybridizing dance and mathematics. Quartets' coordinated movements and interactions with the prop demonstrated a form of collective action that went beyond individual capabilities, emphasizing the importance of collaborative exploration in understanding mathematical concepts through embodied experiences.

Stops: 

"While beyond the scope of this paper, these exchanges of partner positions can be described from the perspective of academic mathematics as transpositions. Just as partner exchanges were basic phrase units for the quartets’ explorations in our interviews, transpositions are basic units for analyzing the structure of mathematical groups" (p.345)

I was astonished at the similarity between the strategy the girls adopted and the terminology used in abstract algebra. I think this is the power of reenactment, which allows people to reconstruct their perceptions of a design and generate new understandings through creation. I think there's also a lot of implicit and hard-to-characterize growth or new cognitive structures in the girls' reenactments. In addition to the videotaping perhaps the open-ended interviews will help us discover these interesting results.

Question: What do you think about the contribution of reenactment to the discovery of math in dance performance?

Comments

  1. Hi Stelios

    Thank you for sharing! In response to your question, I believe that all creation is inherently based on mimicry. When someone admires an invention, they often seek to emulate it. Through this process of emulation, individuals gain secondhand experience with the invention, understand its mechanics, identify its strengths and weaknesses, and integrate their own insights and experiences to enhance it. Additionally, viewing things from different perspectives, influenced by the diverse backgrounds of group members, fosters varied discussions and ideas, leading to innovative outcomes. Therefore, I would argue that the role of reenactment aligns with your final paragraph, highlighting the significance of collaborative exploration in comprehending mathematical concepts through embodied experiences.

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  2. Hi Stelios

    Thanks for sharing your thought on the reenactment for mathematics exploration. I think reenactment in dance performance can help students foster their spatial awareness and geometry in Mathematics. Dance involves a lot of spatial movements, formations, and patterns. Through reenactment, dancers can explore geometric shapes, symmetry, and transformations such as rotations, translations, and reflections. This hands-on experience with geometry can make abstract concepts more tangible and understandable. Besides, it can help them with the discovery of patterns and sequence. Dance routines often involve sequences and patterns of movements. By reenacting these sequences, dancers can explore mathematical concepts like sequences and series, noticing how patterns develop and predict what comes next, which is a fundamental aspect of mathematical reasoning.

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  3. Reenactment offers students opportunities to analyze dance movements and the mathematical concepts embedded within them. Through this analysis process, students can discover, explain, and create dance movements, connecting them to mathematical content. After examining the dance routine and movements, recreating the routine allows students to physically engage their entire bodies in experiencing the movements and the integration of math into dance. This hands-on approach enables students to deepen their understanding of both mathematical concepts and the expressive art form of dance. By actively participating in the reenactment, students not only enhance their comprehension of math but also develop a greater appreciation for the creative potential inherent in mathematical principles when applied to real-world contexts such as dance.

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