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TERRE MECHANIQUE

 

Terre Mécanique, 2017

Performance

Collaboration with the MIT Self-Assembly Lab

Lead Dancer and Rehearsal Director:

Marissa Ruazol

Laban/Bartenieff Movement Instructor:

Teresa Heiland

Dancers:

Brooklynn Reeves,

Jonathan Gonzalez

Researcher:

Bjorn Sparrman

Composition, Electronics:

Phillip Curtis

Costume Consultant:

Jill Spector

Costumes:

Karen Boyer

Production Assistants:

Sophie Schwarz,

Sophia Washburn,

Marley Kirton,

Colin Kent-Daggett,

Manuela Nebuloni

Videographer:

Chris Orr,

Joseph Davenport

Assistant Video Editor:

Sean Flaherty

Commission, Performa, New York, NY

and the Brown Arts Initiative, Brown University, Providence, RI

VIDEO STILLS

DESCRIPTION

Terre Mécanique began as an artistic and

material research project with Skylar Tibbits, Bjorn Sparrman,

and the MIT Self-Assembly Lab,

developed alongside the early evolution of Rapid Liquid Printing.

Using programmable materials and large-scale 4D printing,

the project examined how force

produces form and marked a significant expansion in Nipper's practice.

Earlier works used movement, camera systems, and performance

to study how bodies produce space,

volume,

and duration,

and how research materials become visible.

Terre Mécanique brought these questions into industrial fabrication

and material behavior.

The lab's processes were not separate from image-making;

they became another way to think through how form emerges through pressure,

time, movement, and material transformation.

This research later informed the development of Mass Movement,

carrying these questions toward climate resilience,

coastal land formation,

and ecological restoration.

The work moves from performance and fabrication into coastal systems,

where wave energy,

sediment transport,

root systems,

and the human body are studied as forces that shape land.

Through this work,

a framework is being developed

in which artistic practice participates directly in the formation of future environments.

Mass Movement turns Nipper's practice toward

material systems that work with natural forces to support adaptation,

resilience, and repair.