✆ EXTINCTION PHONE

Nicholas Monsour
Extinction Phone, 2014

Aluminum, thermoplastic, PVC, plywood, paper, refurbished pay phone, crystal oscillator timer circuit, Arduino control circuit, audio circuit, lead-acid batteries, recordings of extinct species, phone book containing scientific names of extinct species.

The extinction phone rings every time a unique species goes extinct on Earth, which is 73,000 times per year, or 200 times per day, or every 7.2 minutes.

This project is a site-specific, interactive art installation.  The phone is controlled by an Arduino microcontroller, and uses an AdaFruit Waveshield to playback audio.  The phone also includes custom built timer and interaction circuitry.  The recordings of extinct animals were gathered from various libraries and collections around the world.

The directory that hangs from the pay phone contains the most up to date and comprehensive list of identified species believed to be extinct.  The phone book can be purchased here.

Suddenly You Have a Sphere

Early Crystallographic Models

Colored glass models, Unsigned, first half 20th century

Wooden models of twinned feldspar crystals, G.E. Kayser, Berlin, 1834

Wooden models, Unsigned, late 19th century

Wooden models, Unsigned, mid 20th century

Porcelain models, Unsigned [John Joseph Griffin], England, ca. 1841

There are far too many beautiful examples of glass, porcelain and wooden crystal models from the 18th and 19th century to display here — much more information can be found at The Virtual Museum of the History of Mineralogy.  These once functional objects have long since been replaced in the teaching of mineralogy by computer models, but their present-day obsolescence only heightens their mysterious and sublime aura.  Such interactive sculptures surely must have been seen and relished by the Surrealists, as Taglioni's Jewel Casket by Joseph Cornell reveals.  Outside of their scientific context, there is even a prefiguration of minimalist sculpture — an unironic yet non-literal juxtaposition of organic processes and geometric perfection.  There is, for me, a fascinating contradiction in the innocence of their toylike size and sentimental presentation given that crystallography — though largely esoteric and academic in its early phases — became the foundation for the most impactful material sciences of chemical and molecular engineering in the twentieth century, as well as the more potentially transfiguring twenty-first century developments in application of topography, virtual three-dimensional modeling systems, rapid prototyping and nanotechnology.  The early crystallographic model is the self-anachronistic object par excellance.