Quantum Collection

Particle tracks
Subatomic particle tracks. Coloured bubble chamber photograph showing tracks left by subatomic particles from a particle accelerator at CERN, the European particle physics laboratory at Geneva

Erwin Schrodinger
ERWIN SCHRODINGER Austrian physicist whose research into subatomic particles is the basis of quantum mechanics

Bose-Einstein condensate simulation. Computer simulation of vortices forming within a spinning Bose-Einstein condensate (BEC). A BEC is a state of matter that can arise at very low temperatures

Quantum universe

Quantum cryptography equipment
Quantum cryptography. Eye of an observer reflected in a mirror in quantum cryptography apparatus. Quantum cryptography is based on the principle of entanglement

PLANCK, Max Karl Ernst Ludwig (1858-1947). German theoretical physicist who originated quantum theory, which won him the Nobel Prize in Physics in 1918. Oil

Mathematical model. Computer model of a repeated mathematical operation (iteration) to generate a random wave. The iteration involved random drawing of sets of parallel lines

Max Planck (1858-1947) German theoretical physicist. Quantum Theory. Nobel prize for physics, 1918

Niels Henrik David Bohr (1885-1962) Danish physicist. Quantum Theory. Nobel prize for physics 1922

Quantum computing, conceptual artwork F006 / 3749
Quantum computing, conceptual computer artwork

Atom, artwork
Atom, computer artwork

Lissajous figure, artwork F005 / 2992
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2986
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2994
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2988
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2985
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2989
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2991
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2993
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2990
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Lissajous figure, artwork F005 / 2984
Computer artwork of a Lissajous figure or Bowditch curve, which is the graph of a system of parametric equations which describe complex harmonic motion

Particle rays, artwork C014 / 2579
Conceputal computer artwork of rays emitting particles. This could depict travel near the speed of light, cosmic rays, particle emitters, particle tracks, particle accelerators or big bang e.g

Vladimir Migal, Russian physicist C016 / 8388
Vladimir Migal, Russian physicist. Miglas work has concentrated largely on quantum effects in materials. Photographed in Akademogorsk, Novosibirsk in 1989

Hydrogen atom, conceptual model C013 / 5605
Hydrogen atom, conceptual model. Computer artwork representing the atomic structure of hydrogen. Hydrogen has one proton and one neutron (large spheres) in its nucleus (large circle, centre)

Helium atom, conceptual model C013 / 5600
Helium atom, conceptual model. Computer artwork representing the atomic structure of helium. Helium has two protons and two neutrons (large spheres) in its nucleus (faint circle, centre)

Helium atom, conceptual model C013 / 5601
Helium atom, conceptual model. Computer artwork representing the atomic structure of helium. Helium has two protons and two neutrons (large spheres) in its nucleus (faint circle, centre)

Atomic interactions, conceptual image C013 / 5595
Atomic interactions, conceptual image. Computer artwork representing the interactions between atomic and sub-atomic particles

Sunbeams, conceptual artwork C013 / 5640
Sunbeams, conceptual computer artwork

Particles, conceptual artwork C013 / 5639
Particles, conceptual computer artwork

Quark, conceptual model C013 / 5633
Quark, conceptual model. Computer artwork representing the theoretical internal structure of a quark. A quark is an elementary particle and a fundamental constituent of matter

Photons, conceptual artwork C013 / 5628
Photons, conceptual computer artwork

Particles, conceptual artwork C013 / 5626
Particles, conceptual computer artwork

Particles, conceptual artwork C013 / 5627
Particles, conceptual computer artwork

Hydrogen atoms, conceptual model C013 / 5606
Hydrogen atoms, conceptual model. Computer artwork representing the structure of hydrogen atoms. Each atom has one proton and one neutron (large spheres) in its nucleus (pink)

Atomic brain. Conceptual computer artwork of a brain surrounded by atomic orbitals. This could represent artificial intelligence or quantum computing

3D surface graph and hand, artwork
Computer artwork of a hand holding a 3D surface graph depicting visual output from scientific equipment

Future computing, conceptual image
Future computing. Conceptual image of a computer circuit board on a grid with a beam of light waves above it, representing future advances in computing

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

Bose-Einstein condensate research. Velocity-distribution data of a gas of rubidium atoms, confirming the discovery of a new phase of matter, the BoseEinstein condensate (BEC)

Quantum physics experiment. Physicists conducting an experiment with laser equipment in a quantum radio physics laboratory

Wave patterns. Computer artwork of wave patterns based on the sine wave. The sine wave is the basic periodic wave function

Classical and quantum chaos. Computer models of two types of chaos. The sphere (upper left) is a random wave, an example of quantum chaos. It is formed by the random addition of quantum waves

Three types of chaos

Quantum tunneling. Computer model of a quantum wavefunction trapped in a deep well (centre). In classical physics, the particle described by this wavefunction doesn t have enough energy to emerge

Quantum resonance. Computer model showing quantum resonance. A quantum wavefunction is seen as the parallel waves moving up from bottom. They hit a barrier (black, lower centre)

Metal surface at the quantum level. This depiction of a metal surface is obtained by applying the Helium-3 spin-echo technique

Classical and quantum physics
Classical to quantum physics. Sequence of computer models showing the progression from classical to quantum physics. At top left, the movement of a classical particle, such as an electron, is shown

Quantum entanglement tunnel
Quantum entanglement experiment. Quantum physicist Robert Ursin in a tunnel under the River Danube during a quantum entanglement experiment

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"Exploring the Quantum Universe: Unveiling the Mysteries of Particle Tracks and Mathematical Models" In the vast realm physics, particle tracks reveal a mesmerizing dance of energy and matter. Pioneers like Erwin Schrödinger and Max Planck have paved the way for our understanding of this enigmatic world. As we delve deeper into this intricate domain, simulations like the Bose-Einstein condensate offer us glimpses into phenomena that defy classical intuition. These ethereal simulations allow us to witness particles merging into a single entity, showcasing the bizarre nature mechanics. From cryptography equipment securing our digital world to Formula One cars racing at breakneck speeds, quantum principles underpin various aspects of our daily lives. Just as Max Planck's groundbreaking work earned him a Nobel Prize in 1918, his legacy continues to shape modern technology. Niels Bohr's contributions further enriched our comprehension by introducing mathematical models that describe atomic behavior with remarkable accuracy. His insights laid the foundation for advancements in fields ranging from chemistry to medicine. Conceptual artwork depicting quantum computing reminds us of its immense potential – harnessing qubits instead of classical bits could revolutionize computation as we know it. The intricacies lie within these tiny atoms that hold infinite possibilities waiting to be unlocked. Amidst all these scientific marvels lies an awe-inspiring truth – there is still so much we don't know about the quantum universe. It beckons us with its mysteries and challenges us to push boundaries beyond what seems possible. So let us embark on this journey together – one where curiosity fuels discovery, where equations unravel secrets hidden in plain sight. Let's embrace the wonders offered by quantum physics and venture forth into uncharted territories, forever expanding our knowledge and understanding.