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Share Your Creations with Us on Social Media! Follow Us @Curriermuseum on Instagram and Follow Us on Facebook

This is one image in a series of 12 by Terry Winters. The series, called Models for Synthetics Pictures, are prints and all consist of abstract compositions that share a web-like structure. By combining a variety of printmaking techniques, the artist has rendered the twelve images with richly textured black lines and colors of great intensity and variation. Winter draws inspiration from botanical anatomies, biological circulatory and nervous systems, color spectrums, architectural renderings and fractal geometry. Try making your own abstract and amorphic painting by making bubbles! ▪ Terry Winters, Levels, studied complexities, 1994, from Models for Synthetic Pictures, intaglio on Gampi paper laid down on Lana Gravure, 19 3/8 in. x 22 1/4 in. The Henry Melville Fuller Acquisition Fund Activity: Soap Bubble Printing - Create beautiful patterned paper using dish soap Materials: • Water • Acrylic or craft paint • Dish soap • Shallow pan or paper/plastic cups • Paintbrush, spoon, popsicle stick or another tool to stir • Straws (optional) • White paper Directions: • In a shallow pan, mix together one-part dish soap, one-part paint, and two-parts water • Stir until lots of bubbles appear on the surface of the water (if you don’t see many bubbles, try adding more soap) o You can also use a straw to blow into mixture which will make bubbles • Gently press your paper onto the top of the soap bubbles and see what designs transferred to your paper • Repeat with more colors and more pieces of paper as desired Tips: • Experiment with mixing different colors in the same pan of dish soap. You can also add more layers of color to a piece of paper after the first bubble print has dried. Share your creations with us on Social Media! Follow us @curriermuseum on Instagram and follow us on Facebook. #MuseumFromHome #CMA #CurrierMuseumOfArt #CurrierMuseum #MuseumAtHome #KeepMakingArt Share your creations with us on Social Media! Follow us @curriermuseum on Instagram and follow us on Facebook. #MuseumFromHome #CMA #CurrierMuseumOfArt #CurrierMuseum #MuseumAtHome #KeepMakingArt .

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Governing Equations for Simulations of Soap Bubbles
University of California Merced Capstone Project Governing Equations For Simulations Of Soap Bubbles Author: Research Advisor: Ivan Navarro Fran¸cois Blanchette 1 Introduction The capstone project is an extension of work previously done by Fran¸coisBlanchette and Terry P. Bigioni in which they studied the coalescence of drops with either a hori- zontal reservoir or a drop of a different size (Blanchette and Bigioni, 2006). Specifically, they looked at the partial coalescence of a drop, which leaves behind a smaller "daugh- ter" droplet due to the incomplete merging process. Numerical simulations were used to study coalescence of a drop slowly coming into contact with a horizontal resevoir in which the fluid in the drop is the same fluid as that below the interface (Blanchette and Bigioni, 2006). The research conducted by Blanchette and Bigioni starts with a drop at rest on a flat interface. A drop of water will then merge with an underlying resevoir (water in this case), forming a single interface. Our research involves using that same numerical ap- proach only this time a soap bubble will be our fluid of interest. Soap bubbles differ from water drops on the fact that rather than having just a single interface, we now have two interfaces to take into account; the air inside the soap bubble along with the soap film on the boundary, and the soap film with any other fluid on the outside. Due to this double interface, some modifications will now be imposed on the boundary conditions involving surface tension along the interface. Also unlike drops, soap bubble thickness is finite which will mean we must keep track of it.
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Weighted Transparency: Literal and Phenomenal
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Vibrations of Fractal Drums
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Memoirs of a Bubble Blower
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Computer Graphics and Soap Bubbles
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On the Shape of Giant Soap Bubbles
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Soap Films: Statics and Dynamics
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THE GEOMETRY of BUBBLES and FOAMS University of Illinois Department of Mathematics Urbana, IL, USA 61801-2975 Abstract. We Consi
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General Physics II Recitation Quiz 10 - Interference, Diffraction, Polarization Mar
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