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Particle Collection

In the vast realm of particle physics, a world filled with intricate equations and mind-boggling experiments, lies the enigmatic entity known as the "particle

Background imageParticle Collection: Particle physics equations

Particle physics equations

Background imageParticle Collection: Higgs boson event, ATLAS detector C013 / 6892

Higgs boson event, ATLAS detector C013 / 6892
Higgs boson event. Graphic of a transverse section through a detector showing one of the numerous particle collision events recorded during the search for the Higgs boson

Background imageParticle Collection: Higgs boson, conceptual artwork

Higgs boson, conceptual artwork
Higgs boson, conceptual computer artwork. The Higgs boson is a proposed fundamental particle that is thought to give other particles mass

Background imageParticle Collection: Higgs boson, conceptual artwork

Higgs boson, conceptual artwork
Higgs boson, conceptual computer artwork. The Higgs boson is a proposed fundamental particle that is thought to give other particles mass

Background imageParticle Collection: Particle physics experiment, artwork

Particle physics experiment, artwork
Particle physics experiment. Artwork of tracks of particles detected following a collision in a particle accelerator

Background imageParticle Collection: Simulation of Higgs boson production

Simulation of Higgs boson production
^BSimulated detection of Higgs boson. ^b Computer simulation of an event in which the decay of a Higgs boson particle produces four muons. Two of these muons are seen here (green tracks)

Background imageParticle Collection: Particle physics experiment, artwork

Particle physics experiment, artwork
Particle physics experiment. Artwork of tracks of particles detected following a collision in a particle accelerator

Background imageParticle Collection: Nuclear Fission Artwork

Nuclear Fission Artwork
Nuclear fission. Conceptual computer artwork of an atom being split through nuclear, or atomic, fission (splitting)

Background imageParticle Collection: Atomic structure, artwork

Atomic structure, artwork
Atomic structure. Computer artwork of electrons orbiting a central nucleus. This is a classical schematic Bohr model of an atom

Background imageParticle Collection: Particle physics equations

Particle physics equations

Background imageParticle Collection: Simulation of Higgs boson production

Simulation of Higgs boson production
Simulated detection of Higgs boson. Computer simulation of an event in which the decay of a Higgs boson particle produces four muons. Two of these muons are seen here (green tracks)

Background imageParticle Collection: CDF particle detector, Fermilab

CDF particle detector, Fermilab
MODEL RELEASED. CDF particle detector at the Fermi National Accelerator Laboratory (Fermilab) near Chicago, USA

Background imageParticle Collection: Herpes virus replicating

Herpes virus replicating

Background imageParticle Collection: Swarm of nanorobots

Swarm of nanorobots, computer artwork. Nanotechnology is an area of science concerned with producing mechanical entities whose size is measured in nanometres (billionth of a metre)

Background imageParticle Collection: Prof. Peter Higgs

Prof. Peter Higgs
British theoretical physicist Professor Peter Higgs (b. 1929). In 1964, Higgs predicted the existence of a new type of fundamental particle, commonly called the Higgs boson

Background imageParticle Collection: Norovirus particles, TEM

Norovirus particles, TEM
Norovirus particles. Coloured transmission electron micrograph (TEM) of norovirus particles

Background imageParticle Collection: Emulsion photo of decay of kaon into pions

Emulsion photo of decay of kaon into pions
The first observation of the decay of a kaon into 3 pions, recorded in special photographic emulsion by Cecil Powells team at Bristol University in 1948

Background imageParticle Collection: Simulation of Higgs boson production

Simulation of Higgs boson production
Simulated detection of Higgs boson. Computer simulation of an event in which the decay of a Higgs boson particle produces four muons (red tracks)

Background imageParticle Collection: Protozoa, a single-celled organism that feeds by scavenging for particles and other microorganisms

Protozoa, a single-celled organism that feeds by scavenging for particles and other microorganisms, such as bacteria, or by absorbing nutrients from their environment

Background imageParticle Collection: Microscopic view of human respiratory syncytial virus

Microscopic view of human respiratory syncytial virus (RSV). RSV causes respiratory tract infection of the lungs and breathing passages

Background imageParticle Collection: James Chadwick, British physicist C017 / 7111

James Chadwick, British physicist C017 / 7111
James Chadwick (1891-1974), British physicist. Educated in Manchester, Chadwicks research under Rutherford was mainly with alpha particles (helium nuclei)

Background imageParticle Collection: Infections spread by sneezing, artwork C013 / 5949

Infections spread by sneezing, artwork C013 / 5949
Infections spread by sneezing. Computer artwork showing virus particles (virions, blue) and bacteria (rod-shaped) in the spray produced by someone when they sneeze

Background imageParticle Collection: Coronavirus particles, TEM

Coronavirus particles, TEM
Coronavirus particles. Coloured transmission electron micrograph (TEM) of three coronavirus particles

Background imageParticle Collection: Snowy Mountain Top

Snowy Mountain Top
Mauro

Background imageParticle Collection: Particle collision, artwork C018 / 0942

Particle collision, artwork C018 / 0942
Particle collision. Computer artwork of particles colliding and splitting to produce smaller particles

Background imageParticle Collection: Influenza virus, computer artwork

Influenza virus, computer artwork
Influenza virus. Computer artwork of an influenza (flu) virus. The virus consists of a core of RNA (ribonucleic acid) genetic material surrounded by a protein coat

Background imageParticle Collection: Influenza virus particles, TEM

Influenza virus particles, TEM
Influenza virus particles, coloured transmission electron micrograph (TEM). This virus is the cause of the respiratory disease influenza (flu) in humans and other animals

Background imageParticle Collection: Hepatitis C viruses, TEM

Hepatitis C viruses, TEM
Hepatitis C viruses. Coloured transmission electron micrograph (TEM) of hepatitis C virus particles (green) infecting cultured liver cells (purple)

Background imageParticle Collection: Evolution of the Universe, artwork

Evolution of the Universe, artwork
Evolution of the Universe. Computer artwork showing the evolution of the Universe from the Big Bang (far left) 12-15 billion years ago to the present day (far right)

Background imageParticle Collection: Particle collision

Particle collision. This event takes place in particle accelerators, which are used to accelerate particles (spheres) such as protons to high energies near the speed of light

Background imageParticle Collection: Nuclear fusion, artwork C017 / 7664

Nuclear fusion, artwork C017 / 7664
Nuclear fusion, computer artwork. At left are the atomic nuclei of deuterium (top left) and tritium (bottom left). Atomic nuclei consist of protons (white and purple) and neutrons (pink)

Background imageParticle Collection: Polyoma BK virus, artwork C013 / 7465

Polyoma BK virus, artwork C013 / 7465
Computer artwork of the capsid of a polyoma BK virus. This polyomavirus is common in the urinary tract of adults, where it lives without harming its host

Background imageParticle Collection: Rift Valley fever virus, TEM

Rift Valley fever virus, TEM

Background imageParticle Collection: Paramyxovirus particles, TEM

Paramyxovirus particles, TEM
Sendai virus. Coloured transmission electron micrograph (TEM) of Sendai virus particles (virions, orange)

Background imageParticle Collection: Quantum universe

Quantum universe

Background imageParticle Collection: Particle accelerator

Particle accelerator. Trails (red) of energised particles inside a particle accelerator. Particle accelerators are used to accelerate particles such as protons to near the speed of light

Background imageParticle Collection: Rotavirus particle, artwork

Rotavirus particle, artwork
Rotavirus particle. Cut-away artwork showing the structure of the rotavirus icosahedral capsid (protein coat)

Background imageParticle Collection: Higgs Boson particle, artwork

Higgs Boson particle, artwork
Higgs Boson particle. Computer artwork of a yellow sphere in a circular chamber with light emanating from behind it

Background imageParticle Collection: Penetrating power of Alpha, Beta and Gamma ray through Paper

Penetrating power of Alpha, Beta and Gamma ray through Paper, Aluminium, Led and Concrete. Penetration power of alpha, beta and gamma radiation

Background imageParticle Collection: Falling star. Cloud of stars isolated on transparent background. Vector illustration

Falling star. Cloud of stars isolated on transparent background. Vector illustration Falling star. Cloud of stars isolated on transparent background. Vector illustration

Background imageParticle Collection: Quantum physics: nucleus made up of 2 neutrons and 2 protons

Quantum physics: nucleus made up of 2 neutrons and 2 protons

Background imageParticle Collection: in the wind

in the wind
Silvia Guillet

Background imageParticle Collection: United States Air Force - Boeing WB-29 Superfortress

United States Air Force - Boeing WB-29 Superfortress
United States Air Force - Boeing WB-29-90-BW Superfortress 44-87744 (msn12547), force landed at Moses Point Airport, Elim, Alaska due to two in-flight engine failures

Background imageParticle Collection: Specimen XII

Specimen XII
Amy Louise Baker

Background imageParticle Collection: Specimen XI

Specimen XI
Amy Louise Baker

Background imageParticle Collection: Specimen X

Specimen X
Amy Louise Baker

Background imageParticle Collection: Specimen IX

Specimen IX
Amy Louise Baker

Background imageParticle Collection: Specimen VIII

Specimen VIII
Amy Louise Baker

Background imageParticle Collection: Specimen VII

Specimen VII
Amy Louise Baker

Background imageParticle Collection: Specimen VI

Specimen VI
Amy Louise Baker

Background imageParticle Collection: Specimen V

Specimen V
Amy Louise Baker

Background imageParticle Collection: Specimen IV

Specimen IV
Amy Louise Baker

Background imageParticle Collection: Specimen III

Specimen III
Amy Louise Baker

Background imageParticle Collection: Specimen II

Specimen II
Amy Louise Baker

Background imageParticle Collection: Specimen I

Specimen I
Amy Louise Baker

Background imageParticle Collection: Data Points VI

Data Points VI
Amy Louise Baker

Background imageParticle Collection: Data Points IX

Data Points IX
Amy Louise Baker

Background imageParticle Collection: Data Points X

Data Points X
Amy Louise Baker

Background imageParticle Collection: Data Points XI

Data Points XI
Amy Louise Baker

Background imageParticle Collection: Amorphous Encounter

Amorphous Encounter
Mauro

Background imageParticle Collection: Unified

Unified
John Colbensen

Background imageParticle Collection: Rhinovirus and antibody, molecular model C015 / 7139

Rhinovirus and antibody, molecular model C015 / 7139
Rhinovirus. Molecular model of the antigen-binding fragment (Fab) from a strongly neutralising antibody bound to a human rhinovirus 14 (HRV-14) particle

Background imageParticle Collection: Oxygen atomic structure, artwork

Oxygen atomic structure, artwork
Oxygen atomic structure. Computer artwork showing the structure of an oxygen atom

Background imageParticle Collection: Helium, atomic model

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

Background imageParticle Collection: Comet Neowise

Comet Neowise; South Shields, Tyne and Wear, England

Background imageParticle Collection: Scanning electron micrograph of HIV particles infecting a human H9 T cell

Scanning electron micrograph of HIV particles infecting a human H9 T cell

Background imageParticle Collection: Conceptual image of the Hepatitis C virus

Conceptual image of the Hepatitis C virus. Hepatitis C virus is a small, enveloped, positive-sense single-stranded RNA virus of the family Flaviviridae

Background imageParticle Collection: Microscopic view of yellow fever virus

Microscopic view of yellow fever virus. Yellow fever is an acute viral disease

Background imageParticle Collection: Paul Dirac, caricature C013 / 7596

Paul Dirac, caricature C013 / 7596
Paul Dirac, caricature

Background imageParticle Collection: Adenovirus particle F005 / 0701

Adenovirus particle F005 / 0701
Adenovirus particle serotype 3, computer model. This virus most commonly causes respiratory disease in humans, but can also cause genitourinary diseases and gastroenteritis

Background imageParticle Collection: Sputnik virophage particle F005 / 0705

Sputnik virophage particle F005 / 0705
Sputnik virophage particle, computer model. This virus infects amoeba, but only those that are already infected by a helper virus

Background imageParticle Collection: HIV infected macrophage, SEM C018 / 8598

HIV infected macrophage, SEM C018 / 8598
HIV infected macrophage. Coloured ion-abrasion scanning electron micrograph (IA-SEM) of a macrophage white blood cell infected with human immunodeficiency virus (HIV, red)

Background imageParticle Collection: Hepatitis B virus particles, artwork C016 / 9097

Hepatitis B virus particles, artwork C016 / 9097
Hepatitis B virus (HBV) particles, computer artwork. Each particle consists of an outer lipid envelope (green) that surrounds a protein nucleopcapsid (purple)

Background imageParticle Collection: Rhinovirus and antibody, molecular model C015 / 7138

Rhinovirus and antibody, molecular model C015 / 7138
Rhinovirus. Molecular model of the antigen-binding fragment (Fab) from a strongly neutralising antibody bound to a human rhinovirus 14 (HRV-14) particle

Background imageParticle Collection: Influenza virus particles, TEM

Influenza virus particles, TEM
Influenza virus particles, coloured transmission electron micrograph (TEM). The virus consists of ribonucleic acid (RNA), surrounded by a nucleocapsid (blue) and a lipid envelope (green)

Background imageParticle Collection: Parvovirus particle, artwork C013 / 4640

Parvovirus particle, artwork C013 / 4640
Parvovirus particle. Computer artwork showing the outer structure of a human parvovirus (family Parvoviridae) particle (virion)

Background imageParticle Collection: Viral recognition by antibodies, artwork C013 / 4722

Viral recognition by antibodies, artwork C013 / 4722
Viral recognition by antibodies. Computer artwork of rabies (family Rhabdoviridae) virus particles (virions, pink) being identified by monoclonal antibodies (Y-shaped, blue)

Background imageParticle Collection: HIV particles in infected cell, TEM

HIV particles in infected cell, TEM
HIV particles. Coloured transmission electron micrograph (TEM) of human immunodeficiency virus (HIV) particles (orange) in a host cell. HIV causes the disease AIDS

Background imageParticle Collection: Ducks and bird flu virus particles

Ducks and bird flu virus particles
Ducks and avian influenza virus particles, composite image. The virus particles (brown) have been imaged using a transmission electron microscope (TEM)

Background imageParticle Collection: Shingles nerve damage

Shingles nerve damage

Background imageParticle Collection: Murine norovirus with antibody fragments

Murine norovirus with antibody fragments
Murine norovirus (MNV) with antibody fragments, computer model. This image was created using molecular modelling software and data from cryo- electron microscopy

Background imageParticle Collection: Tobacco necrosis virus research, artwork

Tobacco necrosis virus research, artwork
Tobacco necrosis virus research, computer artwork

Background imageParticle Collection: Beryllium, atomic model

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

Background imageParticle Collection: Heavy ion accelerator, Russia

Heavy ion accelerator, Russia
The IC-100 accelerator at the Flerov Laboratory of Nuclear Reactions of the Joint Institute for Nuclear Research in Russias Dubna



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In the vast realm of particle physics, a world filled with intricate equations and mind-boggling experiments, lies the enigmatic entity known as the "particle. " From its discovery to its profound implications, this captivating caption delves into various aspects that define these minuscule building blocks of our universe. At the heart of it all, we find ourselves immersed in the Higgs boson event. A momentous occasion where scientists at ATLAS detector C013/6892 unveiled crucial insights into this elusive particle's existence. Conceptual artwork depicting the Higgs boson serves as a visual representation of its significance within the field. Delving deeper into particle physics equations, we witness an intricate web woven by brilliant minds seeking to unravel nature's secrets. These formulas stand as testaments to human curiosity and determination to understand how particles interact and shape our reality. Simulations take us on a journey through time and space, unveiling mesmerizing visuals portraying Higgs boson production. These virtual realms allow scientists to explore scenarios that would otherwise be impossible or too dangerous in real-life experiments. As we ponder upon these scientific wonders, conceptual artwork brings forth vivid representations of both particle physics experiments and nuclear fission processes. Each stroke captures humanity's tireless pursuit of knowledge while showcasing the beauty hidden within atomic structures. Amidst this exploration lies Prof. Peter Higgs himself - a visionary who laid down theoretical foundations for understanding particles' behavior. His groundbreaking work earned him recognition alongside other luminaries in his field. Beyond traditional research methods lie innovative technologies like nanorobots swarming together with precision reminiscent of nature itself. This convergence between science fiction and reality opens up new frontiers for manipulating particles at unimaginably small scales. From grand detectors like CDF at Fermilab to artistic interpretations highlighting atomic structures, every facet reveals just how intricately intertwined they are with our existence. They hold answers yet undiscovered; they shape matter from stars to the tiniest atoms.

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