Atomic Collection (page 18)

Nested fullerene molecules

Hexagonal boron nitride crystal
Boron nitride crystal structure, molecular model. Boron atoms are green, nitrogen atoms are blue. Boron nitride is a compound that shares many properties with elemental carbon

Zeolite A crystal structure
Zeolite A crystal, molecular model. Zeolite A is a synthetic alumino-silicate material manufactured for use as a molecular sieve

Wurtzite crystal structure, molecular model. Wurtzite is the name for the mineral form of zinc sulphide (ZnS). The unit cell (repeating crystal region) of the crystal is outlined in red

Tridymite crystal structure, molecular model. Tridymite is a form of quartz (silicon dioxide) that forms at high temperatures

Fullerene molecules. Fullerenes are structural types (allotropes) of carbon. The three molecules at centre are buckminsterfullerenes (buckyballs)

Buckminsterfullerene molecules. This molecule is a type of fullerene, a structural type (allotrope) of carbon. It has 60 carbon atoms arranged in a spherical structure consisting of interlinking

Aconite poison molecule. Molecular model of aconitine, a highly poisonous chemical found in aconite (Aconitum sp.) plants. Its chemical formula is C34H47NO11

Buckyball molecule, computer artwork
Buckyball molecule. Conceptual computer artwork that might represent research into, or hi-tech automated production of, buckyball molecules (white sphere)

Doping buckyball molecules, artwork
Doping buckyball molecules. Computer artwork showing a conveyor belt (top left to bottom right) of buckyball molecules being doped (combined) with other atoms (blue)

Fullerene molecules, computer artwork
Fullerene molecules. Computer artwork of nested, spherical fullerene molecules. Fullerenes are allotropes (different structural types) of carbon

Capped nanotube, computer artwork
Capped nanotube. Computer artwork of a capped carbon nanotube. It is called capped because the ends of the tubes have been rounded off to form an enclosed structure

Nuclear fission, computer artwork

DNA nanotechnology, artwork
DNA nanotechnology. Conceptual computer artwork of DNA nanotechnology, showing a carbon nanotube (transparent) and a molecule of DNA (deoxyribonucleic acid, centre)

Nanotube technology, artwork
Nanotube technology. Conceptual computer artwork of cylindrical fullerene molecules (carbon nanotubes). The carbon atoms are arranged in a structure consisting of interlinking hexagonal rings

Molecule, artwork
Molecule, computer artwork. In molecular models such as this, atoms are shown as spheres and the bonds between them as rods

Dr Ernest Walton with Cockcroft-Walton apparatus
Dr Ernest Ts Walton in the cabinet (marked E) into which the high-velocity protons emerge and strike the target of lithium

Dr J D Cockcroft at work in Cavendish Laboratory
Dr J D Cockcroft at work in the Cavendish Laboratory, at Cambridge University, adjusting a vacuum-creating pump. Physicists John D Cockcroft

Future City 1942
The city of the 21st century will be a city of science, of atomic power, of space travel, and of high culture

Airship of Io
On Io, third of Jupiters moons, atomic power has been harnessed for the purposes of aviation : this airship is really a rocket ship with wings

Atomic research, image taken in the 1970s, Pakistan, Asia

A Bomb Dome, UNESCO World Heritage Site, Peace Park, Hiroshima city, Western Japan, Asia

Atomic Bomb Test
An atomic bomb is exploded as part of the U.S. test program - the card says it should be equally edifying for philatelist, historian and philosopher

Anti-Atomic Radar
Giant Radar Installations for Defence against Atomic Attack

Atomic Forest Clearance
Forest Clearance by Means of Atomic Rays

Atomic Firefighting
Using Atomic Power to Fight Fires

All Professionally Made to Order for Quick Shipping

"Exploring the Atomic Realm: From Northern Lights to Particle Physics Experiments" Step into a world where science and art collide, revealing the wonders of the atomic realm. Just like the mesmerizing dance of the Northern Lights, atomic phenomena continue to captivate our imagination. In 1835, Dalton's Table Symbols laid the foundation for understanding matter at its most fundamental level. This groundbreaking work paved the way for countless discoveries in particle physics experiments, pushing boundaries and unraveling mysteries that were once unimaginable. As we delve deeper into fusion research with devices like tokamaks, we strive to harness the immense power locked within atoms. These scientific endeavors are not just confined to laboratories; they inspire awe-inspiring artworks that depict both beauty and complexity. From nuclear fission artwork depicting energy unleashed to HMS Conqueror's triumphant return after sinking an Argentine battleship during conflict - these moments remind us of how atoms can shape history. The quantized orbits of planets around their suns mirror electron orbits around nuclei – a testament to nature's harmonious patterns on both macroscopic and microscopic scales, and is through this delicate balance that life thrives in our universe. Even seemingly ordinary objects hold atomic secrets. Take an antidepressant molecule like Amitriptyline or an amino acid molecule such as Creatine – they represent breakthroughs in medicine and sports performance respectively, showcasing how atoms impact every aspect of our lives. Yet it is crucial not to overlook darker chapters in history. The haunting fallout from a 1957 nuclear test serves as a stark reminder of humanity's responsibility when dealing with atomic power. And who could forget about innovation? An "Atomic Motorbike" pushes conventional limits by infusing cutting-edge technology with sleek design – a symbol of progress fueled by human ingenuity. So let us embark on this journey through time and space, exploring all facets of what it means to be "atomic.