@sketiana // cells undergoing mitosis // neutron stars colliding // 'saturn', sleeping at last // voyager golden records // diagram of an atom // diagram of the solar system // 'a toast to the alchemists', laura giplin // neural stem cells // ciliated ventral epithelium // 'constellations', the oh hellos // jwst deep field // 'singularity', marie howe // heart of the phantom galaxy // 'zephyrus', the oh hellos // apoferritin // aerial view of a forest // a graph me and my project co-chair made to model angle over time of our payload // molybdenum and sulfur atoms // unknown // pillars of creation
writing my chemistry paper on an aluminium alloy bc i thought it would be easy peasy lemon squeezy but it's actually difficult difficult lemon difficult
The chemical symbols are shown in the periodic table, where all the elements are displayed in order of atomic number (the number of protons in the nucleus of an atom)
The elements in the table are arranged in columns called groups - each group contains elements with similar chemical properties
Zoom in on the image - the elements are colour-coded - you'll see which elements are metals, metalloids, non-metals and more!
scopOphilic_micromessaging_892 - scopOphilic1997 presents a new micro-messaging series: small, subtle, and often unintentional messages we send and receive verbally and non-verbally.
These tiny particles are the basis on which all normal matter is built (including our bones), and understanding them helps us understand the larger Universe.
We currently use high-energy X-ray light to help us understand atoms and molecules and how they're arranged, catching diffracted beams to reconstruct their configurations in crystal form.
Now, scientists have used X-rays to characterize the properties of a single atom, showing that this technique can be used to understand matter at the level of its tiniest building blocks.
Stability of rings of atoms in glass materials can help predict performance of glass products
Glass is being used in a wider range of high-performance applications, including those for consumers and industry, military and aerospace electronics, coatings and optics. Because of the extreme precision demanded for use in products such as mobile phones and jet aircraft, glass substrates must not change their shape during the manufacturing process.
Corning Incorporated, a manufacturer of innovative glass, ceramics and related materials, invests a tremendous amount of resources into studying the stability of different types of glass. Recently, Corning researchers found that understanding the stability of the rings of atoms in glass materials can help them predict the performance of glass products. This capability is important because the most widely used glass is silicate glass, which consists of different sizes of atomic rings connected in three dimensions.
Conducting neutron scattering experiments at the Department of Energy's Oak Ridge National Laboratory, ORNL and Corning scientists discovered that as the number of smaller, less-stable atomic rings in a glass increases, the instability, or liquid fragility, of the glass also increases.