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Magnetic Collection (#5)

"Magnetic: Unveiling the Invisible Forces" From its discovery in ancient China to cutting-edge fusion research, magnetic phenomena have captivated humanity for centuries

Background imageMagnetic Collection: Joseph Wilson Swan (1828-1914) British physicist and chemist. Photography (bromide paper)

Joseph Wilson Swan (1828-1914) British physicist and chemist. Photography (bromide paper): Incandescent light bulb. Here a Royal Society Conversazione, 8 May 1889

Background imageMagnetic Collection: Hans Christian Oersted (1777-1851) German physicist. Discovered effect of electric

Hans Christian Oersted (1777-1851) German physicist. Discovered effect of electric on a magnetic needle. Engraving c1870

Background imageMagnetic Collection: Magnetic needles on a terrella will point towards the north pole, A. other needles will do likewise

Magnetic needles on a terrella will point towards the north pole, A. other needles will do likewise, even though the surface of the terrella is uneven, as at O

Background imageMagnetic Collection: A magnetized needle pushed through a ball of cork, and floating submerged in a goblet of water

A magnetized needle pushed through a ball of cork, and floating submerged in a goblet of water, shows dip and the direction of the magnetic pole. From William Gilbert De Magnete, London 1600

Background imageMagnetic Collection: Apparatus used by the Curies to investigate the deflection of the beta rays from radium

Apparatus used by the Curies to investigate the deflection of the beta rays from radium (R) in magnetic field. Engraving published Paris 1904

Background imageMagnetic Collection: Hans Christian Oested (1777-1851) German physicist. Discovered effect of electric

Hans Christian Oested (1777-1851) German physicist. Discovered effect of electric on a magnetic needle. Engraving c1870

Background imageMagnetic Collection: Behaviour of a magnetic compass in a box if carried round a globe-shaped magnet

Behaviour of a magnetic compass in a box if carried round a globe-shaped magnet (N centre of picture) with magnetic poles where lines cross (left and right of N)

Background imageMagnetic Collection: A terrella or globe-shaped magnet with lumps of iron to represent mountains and showing

A terrella or globe-shaped magnet with lumps of iron to represent mountains and showing the north-seeking property of a magnetic needle. From William Gilbert De Magnete, London, 1600

Background imageMagnetic Collection: Map making and surveying using a magnetic compass. Bor is north and Aust

Map making and surveying using a magnetic compass. Bor is north and Aust is south. From Athanasius Kircher Magnes: sive de arte magnetica, 1643. Woodcut

Background imageMagnetic Collection: William Gilbert (1540-1603) English physician and scientist born at Colchester, Essex

William Gilbert (1540-1603) English physician and scientist born at Colchester, Essex. Appointed physician to Elizabeth I (1601)

Background imageMagnetic Collection: Rasputin (ja1871-1916) Russian peasant, holy-man and mystic, surrounded by some of

Rasputin (ja1871-1916) Russian peasant, holy-man and mystic, surrounded by some of the women drawn by his magnetic personality

Background imageMagnetic Collection: Hans Christian Oersted (1777-1851) German physicist, discovering that electric current

Hans Christian Oersted (1777-1851) German physicist, discovering that electric current has an effect on magnetic needle. Wood engraving c1880

Background imageMagnetic Collection: Sunspot with streamers of super-hot, electrically charged gas (plasma) arc from the

Sunspot with streamers of super-hot, electrically charged gas (plasma) arc from the surface of the Sun, revealing the structure of the solar magnetic field. Credit NASA

Background imageMagnetic Collection: Frederick Settle Barff (1823-1887) English chemist born at Hackney, Greater London

Frederick Settle Barff (1823-1887) English chemist born at Hackney, Greater London. Inventor of the Barff (Bower-Barff) process for preventing the corrosion of iron

Background imageMagnetic Collection: Bar magnet attracting metal filings

Bar magnet attracting metal filings

Background imageMagnetic Collection: Coins attracted by horseshoe magnet

Coins attracted by horseshoe magnet

Background imageMagnetic Collection: Horseshoe magnet attracting metal filings

Horseshoe magnet attracting metal filings

Background imageMagnetic Collection: Hand holding magnet, picking up metal filings

Hand holding magnet, picking up metal filings

Background imageMagnetic Collection: Metal filings attached to magnets (charges of the same type, repelling)

Metal filings attached to magnets (charges of the same type, repelling)

Background imageMagnetic Collection: Hand holding magnet with push pins attached at the bottom

Hand holding magnet with push pins attached at the bottom

Background imageMagnetic Collection: Horseshoe magnet attracting metal screws

Horseshoe magnet attracting metal screws

Background imageMagnetic Collection: Hand holding a magnet picking up colourful paperclips

Hand holding a magnet picking up colourful paperclips

Background imageMagnetic Collection: Hand picking up feathers with electrically charged piece of amber

Hand picking up feathers with electrically charged piece of amber

Background imageMagnetic Collection: Three pieces of magnetic mineral

Three pieces of magnetic mineral

Background imageMagnetic Collection: Balloon Flights of Glaisher and Coxwell

Balloon Flights of Glaisher and Coxwell
James Glaisher (1809-1903), an English meteorologist and aeronaut, on the left, with Henry Tracey Coxwell (1819-1900), a professional balloonist, on the right

Background imageMagnetic Collection: Magnetic field, artwork C016 / 9850

Magnetic field, artwork C016 / 9850
Magnetic field. Computer artwork showing the magnetic field lines around a bar magnet. A magnetic field always runs from the north pole (N) to the south pole (S)

Background imageMagnetic Collection: Magnetosphere, artwork C017 / 0762

Magnetosphere, artwork C017 / 0762
Magnetosphere. Computer artwork showing the shape of the Magnetosphere (blue) of an astronomical object. A magnetosphere is the area of space near an astronomical object in which charged particles

Background imageMagnetic Collection: Magnetic field, artwork C016 / 9853

Magnetic field, artwork C016 / 9853
Magnetic field. Computer artwork showing the magnetic field lines around a bar magnet. A magnetic field always runs from the north pole to the south pole

Background imageMagnetic Collection: Magnetic field, artwork C016 / 9851

Magnetic field, artwork C016 / 9851
Magnetic field, artwork

Background imageMagnetic Collection: Computer hard disk read / write head, SEM

Computer hard disk read / write head, SEM
Computer hard disk read/write head. Coloured scanning electron micrograph (SEM) of the read and write electromagnetic device (head) of the hard disk of a computer

Background imageMagnetic Collection: Particles in forcefield, artwork

Particles in forcefield, artwork
Conceptual computer artwork depicting particles in a force field

Background imageMagnetic Collection: ITER Reaction vessel C018 / 3801

ITER Reaction vessel C018 / 3801
Artists concept view of the interior of the ITER reaction vessel. Nuclear fusion involves creating a plasma of superheated gas to temperatures of more than 200 million degrees C

Background imageMagnetic Collection: Faraday on metals and magnetism, 1847

Faraday on metals and magnetism, 1847
Faraday on metals and magnetism. Page from the notebooks of British physicist Michael Faraday (1791-1867), showing notes and a table of magnetic properties of a range of metals

Background imageMagnetic Collection: Faraday on magnetism, 1854

Faraday on magnetism, 1854
Faraday on magnetism. Page from the notebooks of British physicist Michael Faraday (1791-1867), showing notes and a diagram of an experiment with a rotating globe being spun in a magnetic field

Background imageMagnetic Collection: ITER Fusion Research Reactor C016 / 9201

ITER Fusion Research Reactor C016 / 9201
Artists concept view of the interior of the ITER reaction vessel. Nuclear fusion involves creating a plasma of superheated gas to temperatures of more than 200 million degrees C

Background imageMagnetic Collection: White matter fibres of the human brain C016 / 9017

White matter fibres of the human brain C016 / 9017
White matter fibres. Coloured 3D diffusion spectral imaging (DSI) scan of the bundles of white matter nerve fibres in the brain, depicting mirror neurons. Mirror neurons are found in the brain

Background imageMagnetic Collection: White matter fibres of the human brain C016 / 9012

White matter fibres of the human brain C016 / 9012
White matter fibres. Coloured 3D diffusion spectral imaging (DSI) scan of the bundles of white matter nerve fibres in the brain, depicting mirror neurons. Mirror neurons are found in the brain

Background imageMagnetic Collection: Attraction between unlike magnetic poles

Attraction between unlike magnetic poles. Clumping of iron filings in the presence of the magnetic field produced the two horseshoe magnets with their unlike poles aligned (labelled N, north, and S)

Background imageMagnetic Collection: Industrial computer, 1980s

Industrial computer, 1980s
Computer history. View of a computer room of an watch-making factory in 1983. Along the walls are banks of tape readers that act as memory banks

Background imageMagnetic Collection: Repulsion between like magnetic poles

Repulsion between like magnetic poles. Clumping of iron filings in the presence of the magnetic field produced by two like poles of two bar magnets. This results in magnetic repulsion

Background imageMagnetic Collection: Magnets and magnetic field pattern

Magnets and magnetic field pattern. Clumping of iron filings in the presence of a string of twelve ball magnets and their magnetic fields

Background imageMagnetic Collection: Magnet and magnetic field pattern

Magnet and magnetic field pattern. Clumping of iron filings in the presence of a horseshoe magnet and its magnetic field. The opposite magnetic poles are labelled N (north) ands (south)

Background imageMagnetic Collection: Magnetic field pattern

Magnetic field pattern. Clumping of iron filings in the presence of a magnetic field from two ring magnets. The magnetised iron filings align due to the interactions between them

Background imageMagnetic Collection: Earths radiation belts, artwork

Earths radiation belts, artwork
Earths radiation belts. Artwork of the Earth and its radiation belts protecting it from cosmic radiation and the solar wind. This protection is represented by a shield shape (blue)

Background imageMagnetic Collection: Magnetic field, artwork C016 / 9852

Magnetic field, artwork C016 / 9852
Magnetic field. Computer artwork showing the magnetic field lines around a bar magnet. A magnetic field always runs from the north pole to the south pole

Background imageMagnetic Collection: Magnetic field, artwork C016 / 9854

Magnetic field, artwork C016 / 9854
Magnetic field. Computer artwork showing the magnetic field lines around a bar magnet. A magnetic field always runs from the north pole to the south pole

Background imageMagnetic Collection: Magnetic tape loop in Baikonur museum

Magnetic tape loop in Baikonur museum
Magnetic tape loop of early Russian computer in Baikonur space museum, Kazakhstan

Background imageMagnetic Collection: Magnet man world record attempt, Georgia

Magnet man world record attempt, Georgia
Magnet man world record attempt. 40-year-old Etibar Elchiyev from the town of Marneuli, Georgia, known as magnet man, setting a world record by holding 50 metal spoons onto his body




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"Magnetic: Unveiling the Invisible Forces" From its discovery in ancient China to cutting-edge fusion research, magnetic phenomena have captivated humanity for centuries. In 1954, the mass spectrometer revolutionized scientific analysis by utilizing magnetic fields to separate ions based on their mass-to-charge ratio. Fast forward to modern times, where fusion research has taken center stage with the tokamak device. This revolutionary technology harnesses powerful magnetic fields to confine and control plasma, paving the way for limitless clean energy possibilities. Nature's own mesmerizing display of magnetism can be witnessed in the enchanting dance between Aurora borealis and Moon. The ethereal lights are a result of charged particles from solar winds interacting with Earth's magnetic field. In medical advancements, Magnetic Resonance Imaging (MRI) scans have become indispensable tools in diagnosing brain tumors and other ailments. By employing strong magnets and radio waves, MRI provides detailed images without harmful radiation exposure. Pushing boundaries further is the concept levitation of superconductors. This mind-boggling phenomenon defies gravity as superconductors float above powerful magnets due to their unique ability to expel all internal magnetic fields. Taking a historical turn, we recall RMS Olympic embarking on her maiden voyage in 1911 – an iconic vessel that utilized electromagnetic propulsion systems ahead of its time. Returning once again to nature's grand spectacle, witnessing Aurora borealis illuminating night skies leaves us awestruck at Earth's harmonious interaction with our planet's geomagnetic field. Beyond science and nature lies fashion inspiration; an attractive idea emerges for gents wear incorporating magnetism into design elements - a perfect blend of style and innovation that captures attention effortlessly. Pioneers like Galileo Ferraris paved the way for understanding electromagnetism through his groundbreaking discoveries during late 19th century Italy. His work laid foundations for future technological marvels we enjoy today.