#SCOPENewYork 2016 | Exhibitor Highlight | Nil Gallery - Booth B05
[Ardan Ozmenoglu, Olive Tree, 2008, paint on glass, 31 x 31 in.]
@ardanozmenoglu
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https://player.vimeo.com/video/58293122?title=0&byline=0&portrait=0
Hannah Reber, “Untitled (spin the bottle)”, 2013, installation version #3
Adjustable Wood Lamp ‘Goldberg’
The adjustable 'Goldberg’ lamp by Atelier Akerboom is a handmade wooden lamp. By adjusting the 31 openings of the lamp you can control how much light it gives out in any direction. The lamp can be used as a hanging (pendant) lamp or as table or floor lamp. The lamp is available in different colors (see information sheet) and in two sizes (30cm or 50cm diameter).
This special design is named after Michael Goldberg (1902-1990) who described the Goldberg polyhedron – a convex polyhedron made from hexagons and pentagons – first in 1937.
https://www.etsy.com/de/listing/267492092/adjustable-lamp-goldberg?ref=shop_home_active_2
Platonic solid Pillow (Icosahedron)
“It is very accurately known how large the average gluon density is inside a proton. What is not known is exactly where the gluons are located inside the proton. We model the gluons as located around the three valance quarks. Then we control the amount of fluctuations represented in the model by setting how large the gluon clouds are, and how far apart they are from each other.”
If you divide the matter we know into progressively smaller and smaller components, you’d find that atomic nuclei, made of protons and neutrons, compose the overwhelming majority of the mass we understand. But if you look inside each nucleon, you find that its constituents – quarks and gluons – account for less than 0.2% of their total mass. The remaining 99.8% must come from the unique binding energy due to the strong force. To understand how that mass comes about, we need to better understand not only the average distribution of sea quarks and gluons within the proton and heavy ions, but to reveal the fluctuations in the fields and particle locations within. The key to that is deep inelastic scattering, and we’re well on our way to uncovering the cosmic truths behind the origin of matter’s mass.
Sentinels of the Arctic http://go.nasa.gov/2n1ynuo