Electron Collection (#9)

Pinus sylvestris, scots pine
Scanning electron microscope (SEM) image showing a pollen grain from a scots pine. Note the air bladders that help it to float through the air (x 1500 on a standard 9 cm wide print)

Chenopodium album, goosefoot
Scanning electron microscope image of a pollen grain from a member of the goosefoot family (x 3000 on a standard 9 cm wide print)

Seal of the Atomic Energy Commission of the United States of America
ATOMIC ENERGY COMMISSION. Seal of the Atomic Energy Commission of the United States of America

Electron Microscope
The EM 300 transmission electron microscope, which is used to study tiny voids or dislocations in materials or very small crystallites, A.E.R.E. Harwell. Date: October 1971

Radiant matter physics, 19th century
" Radiant matter" physics. 19th-century artwork of physicists carrying out experiments on what they called radiant matter

Hydrogen fuel cell, artwork
Hydrogen fuel cell, computer artwork. This is a clean and efficient power source. Hydrogen is liberated from a natural source such as methanol or natural gases

Sulphur dioxide molecule. Atoms are represented as spheres and are colour-coded: sulphur (yellow) and oxygen (red). Spare electrons are beige

Quantum atom model
Conceptual computer artwork of a quantum atom model depicting the sub-atomic particles of quantum physics

Computer chip, artwork
Computer artwork of the front and back side of a computer chip

Electron tree

Atomic structure, conceptual artwork
Atomic structure. Conceptual computer artwork of electron orbit paths as rings around the central nucleus (yellow) of an atom

Lithium atoms, computer artwork
Computer artwork of seven lithium atoms with their nucleus and the three orbiting electrons

String theory, artwork
This is an artistic representation of a closed vibrating string from string theory. A string is a hypothetical sub-atomic structure and one of the main objects of study in string theory

Plum pudding model of the atom, artwork. This model was proposed by the British physicist J J Thomson in 1904, seven years after he had discovered the electron

Lithium, atomic model. Lithium has three neutrons (white) and three protons (pink) in its nucleus (centre). The atom also has three electron (blue) orbiting the nucleus

Deuterium, atomic model
Deuterium. Atomic model of deuterium, also known as heavy hydrogen, an isotope of hydrogen. Isotopes are forms of an element that contain different numbers of neutrons in the atomic nucleus (centre)

Quantum spin. Image depicting spinning particles, representing the quantum property known as spin. Spin transport electronics (also known as magnetoelectronics or spintronics)

Subatomic physics. Electrons (yellow) surrounding the nucleus (centre) of an atom. The blue lines represent the forces involved when removing an electron from an atom, a process known as ionisation

Electromagnetic force. Charged particles interacting through the electromagnetic force (field lines shown). Electricity and magnetism are part of the same force, called electromagnetism

Spintronics technology. Also known as spin transport electronics, or magnetoelectronics, this technology takes advantage of the electrons spin and magnetic moment to enable the design

Nickel atom. This is the most common and stable form for atoms of the metal nickel (atomic number 28). The nucleus (centre) contains 28 protons and 31 neutrons

Atomic particle decay, artwork
Atomic particle decay, conceptual computer artwork. Particle decay is the spontaneous transformation of one elementary particle into other elementary particles

5s electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

5fxyz electron orbital
4fxyz electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

5f electron orbitals, general set, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Supersymmetric particle production. Computer artwork showing the results of a collision between a quark (pink) and an antiquark (blue)

4f electron orbitals, general set, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Computer graphic of a Beryllium atom
Beryllium atom. Computer graphic of a single atom of Beryllium. This is a typical traditional diagram of atomic structure, showing electrons orbiting around a central nucleus

1s electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Electron flow. Computer model representing the flow of electrons through a two-dimensional electron gas (2DEG). The " gas" is composed of many free electrons

5g electron orbitals, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Particle tracks on a star chart

5gz4 electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Art showing size of atomic components
Atomic dimensions. Computer artwork showing the relative sizes of atoms and their components. The scale at bottom, measured in fractions of a metre, decreases from left to right

2s electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

4f electron orbitals, cubic set, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

4p electron orbitals
2p electron orbitals, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

5dz2 electron orbital, computer model. An electron orbital is a region around an atomic nucleus (not seen) in which one or a pair of electrons is most likely to exist

Particle tracks, equations and head
Particle tracks. Conceptual computer illustration depicting the increasing human understanding of particle physics as a head viewing subatomic part- icle tracks (orange)

Beryllium atom
Atomic structure. Computer artwork representing a single atom of beryllium (symbol: Be). This is the traditional way the structure of an atom is depicted

For sale as Licensed Images

Choose your image, Select your licence and Download the media

"The Electron: Unveiling the Mysteries of Particle Physics and Beyond" In the vast realm of particle physics, the electron stands as a fundamental building block that has captivated scientists for decades. As we delve into its enigmatic nature, we are greeted with awe-inspiring visuals that shed light on its intricate properties. One such image is the mesmerizing bubble chamber photo capturing the decay of a sigma particle. This snapshot reveals the hidden dance between particles, unraveling their secrets within complex equations adorning scientific papers. Artwork depicting particle physics experiments further immerses us in this captivating world. It serves as a visual testament to human curiosity and our relentless pursuit of knowledge. Among these illustrations, Niels Bohr's caricature reminds us of his groundbreaking contributions to atomic theory. Nuclear fission artwork showcases humanity's quest for harnessing immense energy from splitting atoms—an achievement that forever altered our understanding of power generation and weaponry. The Higgs boson, often referred to as "the God particle, " takes center stage in another remarkable artwork. Its discovery revolutionized our comprehension of mass and solidified our understanding of how particles acquire their weight. Beyond subatomic realms lie unexpected connections—like Simulium damnosum, also known as Simulian blackfly. These tiny creatures possess an intriguing link to electrons through their unique ability to transmit diseases like river blindness—a reminder that science encompasses all facets of life. Delving deeper into atomic structures brings forth stunning artwork showcasing intricate arrangements resembling delicate lacework or snail teeth—a testament to nature's elegance even at microscopic scales. As we revisit those familiar equations describing electron structure within helium atoms, we marvel at how these minuscule entities shape everything around us—the foundation upon which matter is built. The electron remains an ever-present force shaping our world—from powering electronic devices to enabling chemical reactions essential for life itself. Its significance cannot be overstated; it embodies both simplicity and complexity, a paradox that continues to intrigue and inspire scientists worldwide.