Skip to main content
Home
plus.maths.org

Secondary menu

  • My list
  • About Plus
  • Sponsors
  • Subscribe
  • Contact Us
  • Log in
  • Main navigation

  • Home
  • Articles
  • Collections
  • Podcasts
  • Maths in a minute
  • Puzzles
  • Videos
  • Topics and tags
  • For

    • cat icon
      Curiosity
    • newspaper icon
      Media
    • graduation icon
      Education
    • briefcase icon
      Policy

    Popular topics and tags

    Shapes

    • Geometry
    • Vectors and matrices
    • Topology
    • Networks and graph theory
    • Fractals

    Numbers

    • Number theory
    • Arithmetic
    • Prime numbers
    • Fermat's last theorem
    • Cryptography

    Computing and information

    • Quantum computing
    • Complexity
    • Information theory
    • Artificial intelligence and machine learning
    • Algorithm

    Data and probability

    • Statistics
    • Probability and uncertainty
    • Randomness

    Abstract structures

    • Symmetry
    • Algebra and group theory
    • Vectors and matrices

    Physics

    • Fluid dynamics
    • Quantum physics
    • General relativity, gravity and black holes
    • Entropy and thermodynamics
    • String theory and quantum gravity

    Arts, humanities and sport

    • History and philosophy of mathematics
    • Art and Music
    • Language
    • Sport

    Logic, proof and strategy

    • Logic
    • Proof
    • Game theory

    Calculus and analysis

    • Differential equations
    • Calculus

    Towards applications

    • Mathematical modelling
    • Dynamical systems and Chaos

    Applications

    • Medicine and health
    • Epidemiology
    • Biology
    • Economics and finance
    • Engineering and architecture
    • Weather forecasting
    • Climate change

    Understanding of mathematics

    • Public understanding of mathematics
    • Education

    Get your maths quickly

    • Maths in a minute

    Main menu

  • Home
  • Articles
  • Collections
  • Podcasts
  • Maths in a minute
  • Puzzles
  • Videos
  • Topics and tags
  • Audiences

    • cat icon
      Curiosity
    • newspaper icon
      Media
    • graduation icon
      Education
    • briefcase icon
      Policy

    Secondary menu

  • My list
  • About Plus
  • Sponsors
  • Subscribe
  • Contact Us
  • Log in
  • 'Scénes de ballet'

    1 March, 2003
    March 2003

    Scénes de ballet - Music by Igor Stravinsky, Choreography by Frederick Ashton

    Performed by the Royal Ballet as part of a triple bill at the Royal Opera House, Covent Garden, January 2003, and to be repeated on selected dates from 21st May

    Ballet and mathematics - not a combination that you often come across, but one that works beautifully in Frederick Ashton's 1948 ballet, Scénes de ballet. From the geometric patterns on the men's tunics and the perpendicular angle of the ballerina's tutu, to the movements and positioning of the dancers themselves, this ballet is a celebration of mathematics. Ashton was inspired by mathematics, and, according to the programme notes, used a system of Euclidean geometry to choreograph the piece:

    He arrived at rehearsals with a volume of advanced geometry under one arm and adapted theorems as floor patterns for the dancers.
    Perhaps some people would find geometry easier (and even more enticing) if they were taught to dance their way through the theorems!

    The precise geometric floor patterns inscribed by the dancers are beautiful to watch as they transform elegantly from arcs to squares, diamonds to diagonals - and they make you aware that geometry has always played a part in the choreography of dance although you might not usually notice it. The occasional asymmetry of the patterns highlighted how accustomed we are to perfectly balanced distributions of dancers. The few lapses in spacing on the part of the dancers did stand out in these exacting patterns, making it all the more obvious how precise they had to be to carry out the choreography. And above the strict Euclidean floor patterns, the dancers were often posed in a series of graduating positions, say from low to high, or perhaps alternating along the stage's diagonal which seemed to somehow highlight the geometry of it all.

    Most impressive, though, was the fantastic precision of the dancers, not only in following floor patterns but also in performing highly technical movements seemingly without effort. Although the dancing lacked - by design - the depth of expression usually associated with traditional ballets, the vivid movements had a life and beauty of their own. The movements were modern - more about making shapes in space than expressing emotions or a narrative - and sometimes almost whimsical (although that impression was helped by the beautiful 1950's style costumes), such as an entire row of ballerinas nodding their heads in time to the beat.

    The choice of maths as the subject for this piece, and the whimsical but modern choreography, seems to echo the post-war optimism and new-found enchantment with science and the future that filled the decade after World War II. The combination of these two disparate fields of human endeavour also had a resonance: the purity of geometry - an intellectual exploration started by the ancient Greeks; and the purity of classical dance - a traditional art form that still expresses our experiences in the modern day.

    • Log in or register to post comments

    Read more about...

    book review
    University of Cambridge logo

    Plus is part of the family of activities in the Millennium Mathematics Project.
    Copyright © 1997 - 2025. University of Cambridge. All rights reserved.

    Terms