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History of optics

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620: 449:. He produced a comprehensive and systematic analysis of Greek optical theories. Ibn al-Haytham's key achievement was twofold: first, to insist, against the opinion of Ptolemy, that vision occurred because of rays entering the eye; the second was to define the physical nature of the rays discussed by earlier geometrical optical writers, considering them as the forms of light and color. He then analyzed these physical rays according to the principles of geometrical optics. He wrote many books on optics, most significantly the 365: 3738: 963:, in which he expounded his corpuscular theory of light. He considered light to be made up of extremely subtle corpuscles, that ordinary matter was made of grosser corpuscles and speculated that through a kind of alchemical transmutation "Are not gross Bodies and Light convertible into one another, ...and may not Bodies receive much of their Activity from the Particles of Light which enter their Composition?" 336: 282:(c. AD 10–70) extended the principles of geometrical optics to consider problems of reflection (catoptrics). Unlike Euclid, Hero occasionally commented on the physical nature of visual rays, indicating that they proceeded at great speed from the eye to the object seen and were reflected from smooth surfaces but could become trapped in the porosities of unpolished surfaces. This has come to be known as 972: 30: 1278:
following from these developments not only formed the basis of quantum optics but also were crucial for the development of quantum mechanics as a whole. However, the subfields of quantum mechanics dealing with matter-light interaction were principally regarded as research into matter rather than into
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Hero demonstrated the equality of the angle of incidence and reflection on the grounds that this is the shortest path from the object to the observer. On this basis, he was able to define the fixed relation between an object and its image in a plane mirror. Specifically, the image appears to be as
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made the human eye out of the four elements and that she lit the fire in the eye which shone out from the eye making sight possible. If this were true, then one could see during the night just as well as during the day, so Empedocles postulated an interaction between rays from the eyes and rays from
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observed that "things seen under a greater angle appear greater, and those under a lesser angle less, while those under equal angles appear equal". In the 36 propositions that follow, Euclid relates the apparent size of an object to its distance from the eye and investigates the apparent shapes of
1117:, during the 1260s or 1270s, wrote works on optics, partly based on the works of Arab writers, that described the function of corrective lenses for vision and burning glasses. These volumes were outlines for a larger publication that was never produced, so his ideas never saw mass dissemination. 889:
and a second prism could recompose the multicoloured spectrum into white light. He also showed that the coloured light does not change its properties by separating out a coloured beam and shining it on various objects. Newton noted that regardless of whether it was reflected or scattered or
839:(1596–1650) showed, by using geometric construction and the law of refraction (also known as Descartes' law), that the angular radius of a rainbow is 42° (i.e. the angle subtended at the eye by the edge of the rainbow and the rainbow's centre is 42°). He also independently discovered the 527:
and at the end of the evening twilight, and an attempt to calculate on the basis of this and other data the height of the atmospheric moisture responsible for the refraction of the sun's rays." Through his experiments, he obtained the value of 18°, which comes close to the modern value.
1876:. But let us now mention something to prove this convincingly: the fact that light travels in straight lines is clearly observed in the lights which enter into dark rooms through holes.... he entering light will be clearly observable in the dust which fills the air." – Alhazen, 1223:(also sometimes cited as a compound microscope inventor) seems to have found after 1609 that he could close focus his telescope to view small objects and, after seeing a compound microscope built by Drebbel exhibited in Rome in 1624, built his own improved version. The name 763:, although passages in his work demonstrate that he was influenced by Bacon's ideas. Judging from the number of surviving manuscripts, his work was not as influential as those of Pecham and Bacon, yet his importance, and that of Pecham, grew with the invention of printing. 700:. Although he was not a slavish imitator, he drew his mathematical analysis of light and vision from the writings of the Arabic writer, Alhacen. But he added to this the Neoplatonic concept, perhaps drawn from Grosseteste, that every object radiates a power ( 225:
which defined the atoms which make up the world as momentary flashes of light or energy. They viewed light as being an atomic entity equivalent to energy, though they also viewed all matter as being composed of these light/energy particles.
2421:"Remarkable lenses and eye units in statues from the Egyptian Old Kingdom (ca. 4500 years ago): properties, timeline, questions requiring resolution. Proceedings Volume 3749, 18th Congress of the International Commission for Optics; (1999)" 1302:—research into principles, design and application of these devices—became an important field, and the quantum mechanics underlying the laser's principles was studied now with more emphasis on the properties of light, and the name 603:
Setting aside the issues of epistemology and theology, Grosseteste's cosmogony of light describes the origin of the universe in what may loosely be described as a medieval "big bang" theory. Both his biblical commentary, the
746:. His book centered on the question of vision, on how we see, rather than on the nature of light and color. Pecham followed the model set forth by Alhacen, but interpreted Alhacen's ideas in the manner of Roger Bacon. 424: 192:
For from whatsoever distances fires can throw us their light and breathe their warm heat upon our limbs, they lose nothing of the body of their flames because of the interspaces, their fire is no whit shrunken to the
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et al. demonstrated the first source of light which required a quantum description: a single atom that emitted one photon at a time. Another quantum state of light with certain advantages over any classical state,
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showed by a geometrical method that the actual path taken by a ray of light reflected from a plane mirror is shorter than any other reflected path that might be drawn between the source and point of observation.
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by assuming that the exchange of energy between light and matter only occurred in discrete amounts he called quanta. It was unknown whether the source of this discreteness was the matter or the light. In 1905,
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applied to all astronomical observations. Through most of 1603, Kepler paused his other work to focus on optical theory; the resulting manuscript, presented to the emperor on January 1, 1604, was published as
906:), which showed that using a mirror to form an image bypassed the problem. In 1671 the Royal Society asked for a demonstration of his reflecting telescope. Their interest encouraged him to publish his notes 244:
The early writers discussed here treated vision more as a geometrical than as a physical, physiological, or psychological problem. The first known author of a treatise on geometrical optics was the geometer
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transmitted, it stayed the same colour. Thus, he observed that colour is the result of objects interacting with already-coloured light rather than objects generating the colour themselves. This is known as
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1:3, "God said, let there be light", and described the subsequent process of creation as a natural physical process arising from the generative power of an expanding (and contracting) sphere of light.
1618:, (Chicago: Univ. of Chicago Pr., 1976), p. 16; A. M. Smith, Ptolemy's search for a law of refraction: a case-study in the classical methodology of 'saving the appearances' and its limitations, 753:(born circa 1230, died between 1280 and 1314) drew on the extensive body of optical works recently translated from Greek and Arabic to produce a massive presentation of the subject entitled the 130:
In the 4th century BC Chinese text, credited to the philosopher Mozi, it is described how light passing through a pinhole creates an inverted image in a "collecting-point" or "treasure house".
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presented unexplained phenomena, such as unexpected shadow sizes, the red color of a total lunar eclipse, and the reportedly unusual light surrounding a total solar eclipse. Related issues of
1886: 1202:, appeared in Europe around 1620. The design is very similar to the telescope and, like that device, its inventor is unknown. Again claims revolve around the spectacle making centers in the 275:
Euclid did not define the physical nature of these visual rays but, using the principles of geometry, he discussed the effects of perspective and the rounding of things seen at a distance.
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began. These earlier studies on optics are now known as "classical optics". The term "modern optics" refers to areas of optical research that largely developed in the 20th century, such as
2058: 319:. He measured the angles of refraction between air, water, and glass, but his published results indicate that he adjusted his measurements to fit his (incorrect) assumption that the 1253:
and hence inherently is quantized. Quantum optics is the study of the nature and effects of light as quantized photons. The first indication that light might be quantized came from
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Although disputed, archeological evidence has been suggested of the use of lenses in ancient times over a period of several millennia. It has been proposed that glass eye covers in
576:, hence he tended to apply mathematics and the Platonic metaphor of light in many of his writings. He has been credited with discussing light from four different perspectives: an 740:(died 1292) built on the work of Bacon, Grosseteste, and a diverse range of earlier writers to produce what became the most widely used textbook on optics of the Middle Ages, the 305:
considered the visual rays as proceeding from the eye to the object seen, but, unlike Hero, considered that the visual rays were not discrete lines, but formed a continuous cone.
3484: 1078:, wrote: "Letters, however small and indistinct, are seen enlarged and more clearly through a globe or glass filled with water." Emperor Nero is also said to have watched the 1029:
did more definitive studies and calculations of diffraction, published in 1815 and 1818, and thereby gave great support to the wave theory of light that had been advanced by
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As laser science needed good theoretical foundations, and also because research into these soon proved very fruitful, interest in quantum optics rose. Following the work of
3548: 3221: 2665: 1370:) were found, and mechanical forces of light on matter were studied. The latter led to levitating and positioning clouds of atoms or even small biological samples in an 3583: 3265: 1670: 495:
is finite, as he "observed that if the perception of light is due to the emission of some sort of particles by a luminous source, the speed of light must be finite."
3515: 1870:"How does light travel through transparent bodies? Light travels through transparent bodies in straight lines only.... We have explained this exhaustively in our 3066: 2471: 1001:, 'to break into pieces', referring to light breaking up into different directions. The results of Grimaldi's observations were published posthumously in 1665. 891: 3299: 3174: 1010: 3187: 572:
and the recovery of the works of Aristotle. Grosseteste reflected a period of transition between the Platonism of early medieval learning and the new
3248: 3558: 3472: 3693: 3619: 1997: 2276: 1446: 3614: 2954: 2809: 2731: 2526: 1924: 1507: 1025:. Explaining his results by interference of the waves emanating from the two different slits, he deduced that light must propagate as waves. 1022: 803:). In it, Kepler described the inverse-square law governing the intensity of light, reflection by flat and curved mirrors, and principles of 1341:
as a quantum description of laser light and the realization that some states of light could not be described with classical waves. In 1977,
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more effectively. Around 1286, possibly in Pisa, Italy, the first pair of eyeglasses was made, although it is unclear who the inventor was.
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applied quantum theory to the electromagnetic field in the 1950s and 1960s to gain a more detailed understanding of photodetection and the
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Kriss, Timothy C.; Kriss, Vesna Martich (April 1998), "History of the Operating Microscope: From Magnifying Glass to Microneurosurgery",
1144:, initially made by cutting a glass sphere in half. As the stones were experimented with, it was slowly understood that shallower lenses 3716: 2360: 2854: 496: 3489: 2864: 2756: 2343: 536: 3386: 3361: 3226: 3216: 3106: 3075: 2927: 2698: 2522: 2253: 2140: 1654: 1476: 930:
Bk. II, Props. XII-L). Later physicists instead favoured a purely wavelike explanation of light to account for diffraction. Today's
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and/or his father, Hans Martens, claims it was invented by rival spectacle maker, Hans Lippershey, and claims it was invented by
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Wade, Nicholas J.; Finger, Stanley (2001), "The eye as an optical instrument: from camera obscura to Helmholtz's perspective",
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William Rosenthal, Spectacles and Other Vision Aids: A History and Guide to Collecting, Norman Publishing, 1996, page 391 - 392
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phenomenon, as well as Qutb al-Din al-Shirazi (1236–1311) and his student Kamāl al-Dīn al-Fārisī (1260–1320) mentioned above.
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where he notes that "every natural action is varied in strength and weakness through variation of lines, angles and figures."
3391: 3289: 404:"On the burning instruments" was reconstructed from fragmentary manuscripts by Rashed (1993). The work is concerned with how 361:, al-Kindi developed a theory "that everything in the world ... emits rays in every direction, which fill the whole world." 2897:
J. William Rosenthal, Spectacles and Other Vision Aids: A History and Guide to Collecting, Norman Publishing, 1996, page 391
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D. C. Lindberg, "Roger Bacon on Light, Vision, and the Universal Emanation of Force", pp. 243-275 in Jeremiah Hackett, ed.,
1674: 420:. He used his law of refraction to compute the shapes of lenses and mirrors that focus light at a single point on the axis. 650:(c. 1214–1294) was strongly influenced by Grosseteste's writings on the importance of light. In his optical writings (the 249:(c. 325 BC–265 BC). Euclid began his study of optics as he began his study of geometry, with a set of self-evident axioms. 3698: 3479: 3445: 3398: 1417: 445:
in Western Europe), writing in the 1010s, received both Ibn Sahl's treatise and a partial Arabic translation of Ptolemy's
1425: 539:(1260–1320) continued the work of Ibn al-Haytham, and they were among the first to give the correct explanations for the 393:, a mathematician active in Baghdad during the 980s, is the first Islamic scholar known to have compiled a commentary on 3467: 3440: 3418: 3376: 3272: 523:. This was a "short work containing an estimation of the angle of depression of the sun at the beginning of the morning 3767: 3741: 3711: 3494: 3455: 3403: 3160: 324: 1274:
showed that atoms could only emit discrete amounts of energy. The understanding of the interaction between light and
3762: 3571: 3433: 3323: 3243: 1413: 1402: 863: 3678: 3777: 3647: 3527: 3423: 3318: 2018:(Spring 1967), "The Authorship of the Liber de crepusculis, an Eleventh-Century Work on Atmospheric Refraction", 878: 499:(973-1048) also agreed that light has a finite speed, and stated that the speed of light is much faster than the 1549:
Lucretius, 1910. On the nature of things, Bok V ll 561-591, translated by Cyril Bailey, Oxford University press.
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Optical diagram showing light being refracted by a spherical glass container full of water. (from Roger Bacon,
390: 340: 283: 59: 1013:(1638–1675) observed the diffraction patterns caused by a bird feather, which was effectively the first 481:, which disseminated his ideas to Western Europe and had great influence on the later developments of optics. 1270:. It appeared that the only possible explanation for the effect was the quantization of light itself. Later, 3609: 3311: 3253: 3231: 3134: 2551: 1347: 697: 784:(1571–1630) picked up the investigation of the laws of optics from his lunar essay of 1600. Both lunar and 1137: 789: 532: 3027:
Howard, Ian P.; Wade, Nicholas J. (1996), "Ptolemy's contributions to the geometry of binocular vision",
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two weeks later (neither was granted since examples of the device seemed to be numerous at the time).
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The discovery of the theory should presumably be ascribed to al-Shirazi, its elaboration to al-Farisi
1914:'A Philosophical Perspective on Alhazen's Optics', Arabic Sciences and Philosophy 15 (2005), 189–218. 1314: 1267: 1180: 1152: 1052: 1048: 312: 147: 2888:
Raymond J. Seeger, Men of Physics: Galileo Galilei, His Life and His Works, Elsevier - 2016, page 24
2825: 568:(c. 1175–1253) wrote on a wide range of scientific topics at the time of the origin of the medieval 3657: 1992: 1988: 1421: 1334: 1284: 1258: 1184: 1014: 954: 903: 899: 824: 668:) he cited a wide range of recently translated optical and philosophical works, including those of 320: 91: 513:
during the second half of the 11th century, wrote a work on optics later translated into Latin as
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where he asserts that "a natural agent propagates its power from itself to the recipient" and in
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His more general consideration of light as a primary agent of physical causation appears in his
135: 2723: 1063:, might have been used as a magnifying glass, although it could have simply been a decoration. 918:
and were refracted by accelerating toward the denser medium, but he had to associate them with
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by Henry C. King, Harold Spencer Jones Publisher Courier Dover Publications, 2003, pp. 25–27
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meaning 'appearance, look'. Optics was significantly reformed by the developments in the
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Rashed, R. (1990). "A Pioneer in Anaclastics: Ibn Sahl on Burning Mirrors and Lenses".
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Seeing and Being Seen in the Later Medieval World: Optics, Theology and Religious Life
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did his famous experiment observing interference from two closely spaced slits in his
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Lindberg, David C. (Winter 1971), "Alkindi's Critique of Euclid's Theory of Vision",
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of light into colours. He went on to invent a reflecting telescope (today known as a
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Lindberg, D. C. (1967). "Alhazen's Theory of Vision and its Reception in the West".
1739: 1601: 759:. His theory of vision follows Alhacen and he does not consider Bacon's concept of 3013: 2830: 1371: 1359: 1280: 1176: 1164: 1125: 1121: 1105: 1002: 870: 577: 375:
This theory of the active power of rays had an influence on later scholars such as
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Great Physicists: The Life and Times of Leading Physicists from Galileo to Hawking
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Guarnieri, M. (2015). "Two Millennia of Light: The Long Path to Maxwell's Waves".
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Gould, Stephen Jay (2000). "Chapter 2: The Sharp-Eyed Lynx, Outfoxed by Nature".
2447: 2061:"—C Boyer, The rainbow : from myth to mathematics (New York, 1959), 127-129. 858:
Christiani Hugenii Zuilichemii, dum viveret Zelhemii toparchae, opuscula posthuma
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Event: ICO XVIII 18th Congress of the International Commission for Optics, 1999
1055:(c. 2686–2181 BCE) were functional simple glass meniscus lenses. The so-called 733:(1240–1306), helped popularize and spread the ideas found in Bacon's writings. 1405:, a subject which partly emerged from quantum optics, partly from theoretical 1310: 1271: 1254: 1211: 1199: 874: 828: 643: 569: 510: 413: 316: 214: 115: 1593: 3116: 3098: 3085: 2498:"On an account of a rock-crystal lens and decomposed glass found in Niniveh" 2365:, London: Longman, Rees, Orme, Brown & Green and John Taylor, p. 95 2263: 1363: 1079: 895: 673: 585: 178: 123: 3005: 1815: 1163:
applied for the first patent that year followed by a patent application by
343:'s manuscript showing his discovery of the law of refraction, now known as 3048: 2605: 2304:
Dobbs, J.T. (December 1982), "Newton's Alchemy and His Theory of Matter",
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Perspectiva communis, (Madison, Univ. of Wisconsin Pr., 1970), pp. 12-32;
1880:(Ű±ŰłŰ§Ù„Ű© في Ű§Ù„Ű¶ÙˆŰĄ), translated into English from German by M. Schwarz, from 1849: 1753:
Géométrie et dioptrique au Xe siÚcle: Ibn Sahl, al-Quhi et Ibn al-Haytham.
1731: 1428:, their application, and how to manipulate them (a sub-field often called 849:(1629–1695) wrote several works in the area of optics. These included the 150:
believed these results to be important in astronomy and included Euclid's
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by Simon Schaffer, Professor in History and Philosophy of Science at the
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Thomas Young's sketch of two-slit diffraction, which he presented to the
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uoregon.edu, Galileo Galilei (Excerpt from the Encyclopedia Britannica)
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is generally recognized as the foundation of modern optics (though the
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Sines, George; Sakellarakis, Yannis A. (1987). "Lenses in antiquity".
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The earliest known examples of compound microscopes, which combine an
950: 353:(c. 801–873) was one of the earliest important optical writers in the 292:
far behind the mirror as the object really is in front of the mirror.
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Ling-An Wu; Gui Lu Long; Qihuang Gong; Guang-Can Guo (October 2015).
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Lines (or visual rays) can be drawn in a straight line to the object.
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Robert Grosseteste: The Growth of an English Mind in Medieval Europe
1420:, even shorter (attosecond) light pulses, use of quantum optics for 1412:
Today's fields of interest among quantum optics researchers include
2666:"The invention of spectacles, How and where glasses may have begun" 2389: 2317: 2033: 1841: 1780: 1723: 127:
a source such as the sun. He stated that light has a finite speed.
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bear only a minor resemblance to Newton's understanding of light.
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Physical thought from the Pre-socratics to the quantum physicists
1350:, was soon proposed. At the same time, development of short and 1133: 1075: 957:
to transmit forces between particles. In 1704, Newton published
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The earliest written record of magnification dates back to the
704:) by which it acts upon nearby objects suited to receive those 278:
Where Euclid had limited his analysis to simple direct vision,
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Bardell, David (May 2004). "The Invention of the Microscope".
2504:(in German). Deutsche Physikalische Gesellschaft. p. 355. 1362:
techniques—opened the way to the study of unimaginably fast ("
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and reinvigorated by Young, against Newton's particle theory.
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Reading the Book of Nature in the Dutch Golden Age, 1575-1715
807:, as well as the astronomical implications of optics such as 81: 1382:
was the crucial technology needed to achieve the celebrated
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Robert Grosseteste and the Origins of Experimental Science
1366:") processes. Applications for solid state research (e.g. 162:, a compendium of smaller works to be studied before the 1175:
greatly improved upon these designs the following year.
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Fundamentals of light microscopy and electronic imaging
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10.1893/0005-3155(2004)75<78:tiotm>2.0.co;2
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Memoires pour l'histoire des sciences et des beaux arts
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Zeitschrift der Deutschen MorgenlÀndischen Gesellschaft
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Verma, RL (1969), "Al-Hazen: father of modern optics",
914:. Newton argued that light is composed of particles or 412:
bend and focus light. Ibn Sahl also describes a law of
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cylinders and cones when viewed from different angles.
2348:, Paris: Impr. de S. A. S; Chez E. Ganeau, p. 149 987:
of light were carefully observed and characterized by
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The College of Optometrists, college-optometrists.org
2117:, (Chicago: Univ. of Chicago Pr., 1976), pp. 107-18; 262:
Those things seen under a larger angle appear larger.
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Albert Van Helden; Sven Dupré; Rob van Gent (2010).
2176:, (Chicago: Univ. of Chicago Pr., 1976), pp. 118-20. 2163:, (Chicago: Univ. of Chicago Pr., 1976), pp. 116-18. 2087:, (Oxford: Clarendon Press, 1986), pp. 136-9, 205-6. 1910:, (Chicago: Univ. of Chicago Pr., 1976), pp. 58-86; 543:
phenomenon. Al-Fārisī published his findings in his
3671: 3635: 3592: 3541: 3505: 3349: 3195: 2074:, (Chicago: Univ. of Chicago Pr., 1976), pp. 94-99. 1565:, (Chicago: Univ. of Chicago Pr., 1976), pp. 14-15. 1217:who was noted to have a version in London in 1619. 1179:is credited with constructing the first functional 3141:and Emily Winterburn, Curator of Astronomy at the 2804:. Amsterdam University Press. pp. 32–36, 43. 2715: 2111:Roger Bacon and the Sciences: Commemorative Essays 1468:The Concise Oxford Dictionary of English Etymology 894:. From this work he concluded that any refracting 2747:Murphy, Douglas B.; Davidson, Michael W. (2011). 271:Things seen within several angles appear clearer. 265:Those things seen by a higher ray, appear higher. 2686:Renaissance Vision from Spectacles to Telescopes 2057:: Kamal al-Din Abu'l Hasan Muhammad Al-Farisi, " 1531:. Association of Asia Pacific Physical Societies 1495:Ancient science through the golden age of Greece 259:Those things upon which the lines fall are seen. 2121:, (Chicago: Univ. of Chicago Pr., 1992, p. 313. 1698:, (Chicago: Univ. of Chicago Pr., 1976), p. 19. 1575: 1573: 1571: 1151:The earliest known working telescopes were the 719:Several later works, including the influential 256:Those lines falling upon an object form a cone. 190: 122:; fire, air, earth and water. He believed that 2135:. Cambridge University Press. pp. 75–80. 3168: 3067:Encyclopedia of the History of Arabic Science 2771:claim made by Zacharias Janssen's son in 1655 1005:studied these effects and attributed them to 716:categories found in Aristotelian philosophy. 708:. Note that Bacon's optical use of the term 8: 1206:including claims it was invented in 1590 by 811:and the apparent sizes of heavenly bodies. 544: 456: 2689:. American Philosophical Society. pp.  996: 856: 850: 812: 794: 754: 741: 724: 663: 657: 651: 531:In the late 13th and early 14th centuries, 514: 476: 470: 118:postulated that everything was composed of 3175: 3161: 3153: 2639: 2174:Theories of Vision from al-Kindi to Kepler 2161:Theories of Vision from al-Kindi to Kepler 2115:Theories of Vision from al-Kindi to Kepler 2072:Theories of Vision from al-Kindi to Kepler 1908:Theories of Vision from al-Kindi to Kepler 1696:Theories of Vision from al-Kindi to Kepler 1616:Theories of Vision from al-Kindi to Kepler 1563:Theories of Vision from al-Kindi to Kepler 827:(1580–1626) found the mathematical law of 485:was called "the father of modern optics". 268:Right and left rays appear right and left. 2751:(2nd ed.). Oxford: Wiley-Blackwell. 2100:, (Oxford: Clarendon Press, 1971), p. 110 612:(1235 x 40), took their inspiration from 2579: 2577: 491:(980–1037) agreed with Alhazen that the 430:(Ibn al-Haytham), "the father of Optics" 221:in the 7th century, developed a type of 3064:Morelon, RĂ©gis; Rashed, Roshdi (1996), 2652: 1998:MacTutor History of Mathematics Archive 1894:, as cited by Samuel Sambursky (1974), 1457: 1337:). This led to the introduction of the 1290:This changed with the invention of the 1059:, a rock crystal artifact dated to the 2722:. Cambridge University Press. p.  2157:John Pecham and the Science of Optics: 2113:, (Leiden: Brill, 1997), pp. 245-250; 1975:Introduction to the History of Science 1447:List of astronomical instrument makers 1401:. The latter are of much interest in 1391:demonstration of quantum entanglement 1279:light and hence, one rather spoke of 1249:Light is made up of particles called 1092:(Alhacen) wrote about the effects of 519:, which was mistakenly attributed to 33:Modern ophthalmic lens making machine 7: 3627:Noisy intermediate-scale quantum era 2427:. San Francisco, CA, United States. 2246:Physics for Scientists and Engineers 1582:IEEE Industrial Electronics Magazine 1159:in 1608. Their inventor is unknown: 54:, followed by theories on light and 2718:Isaac Newton: Adventurer in Thought 2244:Tipler, P. A. and G. Mosca (2004), 1424:, manipulation of single atoms and 1257:in 1899 when he correctly modelled 910:, which he later expanded into his 881:could decompose white light into a 2212:10.1038/scientificamerican0477-116 1140:manuscripts, these were primitive 507:Abu 'Abd Allah Muhammad ibn Ma'udh 357:. In a work known in the west as 25: 2973:Elliott, Robert Stratman (1966). 2472:"The Nimrud lens/The Layard lens" 2283:, Microsoft, 2008, archived from 2119:The Beginnings of Western Science 1645:. New York: W.W.Norton. pp.  1389:Other remarkable results are the 3737: 3736: 2598:10.1097/00006123-199804000-00116 2446:Whitehouse, David (1999-07-01). 2053:J J O'Connor and E F Robertson, 1378:by laser beam. This, along with 1235:'s compound microscope in 1625. 1043:Timeline of telescope technology 608:(1230 x 35), and his scientific 2853:Eric Jorink (25 October 2010). 2378:American Journal of Archaeology 2248:, W. H. Freeman, p. 1068, 2186:Nussenzveig, H. MoysĂ©s (1977). 1755:Paris: Les Belles Lettres, 1993 1132:" were invented. Often used by 877:of light, demonstrating that a 712:differs significantly from the 311:documents Ptolemy's studies of 2826:"Who Invented the Microscope?" 2683:Ilardi, Vincent (2007-01-01). 42:began with the development of 1: 3131:History of Optics (audio mp3) 2920:The Lying Stones of Marrakech 1642:Greek Science After Aristotle 1113:(1021 CE). The English friar 873:(1643–1727) investigated the 801:The Optical Part of Astronomy 633:On Lines, Angles, and Figures 416:mathematically equivalent to 3097:, Cambridge, Massachusetts: 2801:The Origins of the Telescope 2515:The history of the telescope 2419:Enoch, Jay M. (1999-07-19). 2131:Dallas G. Denery II (2005). 1950:"The 'first true scientist'" 1266:published the theory of the 777:Renaissance and Early Modern 736:Another English Franciscan, 659:De multiplicatione specierum 625:De multiplicatione specierum 535:(1236–1311) and his student 3549:Cosmic microwave background 3095:A Natural History of Vision 2949:. Oxford University Press. 2943:William H. Cropper (2004). 2781:Sir Norman Lockyer (1876). 2502:Die Fortschritte der Physik 2448:"World's oldest telescope?" 2359:Sir David Brewster (1831), 2188:"The Theory of the Rainbow" 1882:"Abhandlung ĂŒber das Licht" 1671:"A brief history of Optics" 991:, who also coined the term 721:A Moral Treatise on the Eye 545: 457: 3794: 3093:Wade, Nicholas J. (1998), 3070:, vol. 2, Routledge, 2342:Jean Louis Aubert (1760), 1414:parametric down-conversion 1403:quantum information theory 1397:, and (recently, in 1995) 1384:Bose–Einstein condensation 1242: 1194:near the specimen with an 1040: 1023:double slit interferometer 821:is conspicuously absent). 726:Tractatus Moralis de Oculo 339:Reproduction of a page of 233: 114:In the fifth century BCE, 82: 60:ancient Greek philosophers 3732: 2922:. London: Jonathan Cape. 1694:Cited in D. C. Lindberg, 1525:"Optics in Ancient China" 1426:Bose–Einstein condensates 892:Newton's theory of colour 835:, in 1621. Subsequently, 665:De speculis comburentibus 62:, and the development of 3143:National Maritime Museum 2003:University of St Andrews 1594:10.1109/MIE.2015.2421754 1442:Giambattista della Porta 1354:laser pulses—created by 1231:, who gave that name to 989:Francesco Maria Grimaldi 3684:Chandrasekhar–Eddington 3610:Golden age of cosmology 3542:On specific discoveries 3490:Lorentz transformations 3135:University of Cambridge 2714:A. Rupert Hall (1996). 885:of colours, and that a 814:Astronomiae Pars Optica 796:Astronomiae Pars Optica 749:Like his predecessors, 698:Constantine the African 637:On the Nature of Places 546:Kitab Tanqih al-Manazir 323:is proportional to the 217:in the 5th century and 3615:Medieval Islamic world 3358:Computational physics 3300:Variational principles 3227:Electrical engineering 2640:Wade & Finger 2001 1418:parametric oscillation 1086:as a corrective lens. 997: 980: 898:would suffer from the 857: 851: 813: 795: 790:atmospheric refraction 755: 742: 725: 664: 658: 652: 628: 537:Kamāl al-DÄ«n al-FārisÄ« 533:Qutb al-Din al-Shirazi 515: 477: 471: 431: 372: 370:theorem of Ibn Haytham 347: 299:in his second-century 195: 88:medieval Islamic world 34: 3605:Golden age of physics 3600:Copernican Revolution 2055:MacTutor Math History 1620:Arch. Hist. Exact Sci 1395:quantum teleportation 1155:that appeared in the 1153:refracting telescopes 1074:, a tutor of Emperor 1037:Lenses and lensmaking 1027:Augustin-Jean Fresnel 974: 953:the existence of the 940:wave-particle duality 767:Theodoric of Freiberg 622: 426: 402:FÄ« al-'āla al-muáž„riqa 367: 338: 32: 3708:Relativity priority 3563:Subatomic particles 3523:Loop quantum gravity 3512:Quantum information 3461:Quantum field theory 3261:Gravitational theory 3139:University of Oxford 2496:D. Brewster (1852). 2478:. The British Museum 2362:A Treatise on Optics 1989:Robertson, Edmund F. 1315:quantum field theory 1268:photoelectric effect 1181:reflecting telescope 1053:Old Kingdom of Egypt 864:TraitĂ© de la lumiĂšre 743:Perspectiva communis 516:Liber de crepisculis 497:AbĆ« Rayhān al-BÄ«rĆ«nÄ« 331:In the Islamic world 76:is derived from the 3672:Scientific disputes 3658:Via Panisperna boys 3559:Gravitational waves 3506:Recent developments 3237:Maxwell's equations 2834:. 14 September 2013 2476:Collection database 2204:1977SciAm.236d.116N 2192:Scientific American 1987:O'Connor, John J.; 1465:T. F. Hoad (1996). 1422:quantum information 1399:quantum logic gates 1335:degree of coherence 1285:quantum electronics 1259:blackbody radiation 1185:Newtonian reflector 1142:plano-convex lenses 1015:diffraction grating 947:Hypothesis of Light 904:Newtonian telescope 825:Willebrord Snellius 564:The English bishop 465:), translated into 359:De radiis stellarum 321:angle of refraction 140:Greek mathematician 92:early modern Europe 3768:History of physics 3717:General relativity 3712:Special relativity 3653:Oxford Calculators 3480:Special relativity 3399:General relativity 3184:History of physics 1492:Sarton, G (1993). 1368:Raman spectroscopy 1306:became customary. 1102:magnifying glasses 1080:gladiatorial games 1072:Seneca the Younger 1031:Christiaan Huygens 981: 967:Diffractive optics 847:Christiaan Huygens 629: 566:Robert Grosseteste 560:In medieval Europe 432: 381:Robert Grosseteste 373: 348: 325:angle of incidence 280:Hero of Alexandria 236:Geometrical optics 230:Geometrical optics 203:Hero of Alexandria 96:diffractive optics 64:geometrical optics 35: 18:Lens manufacturing 3763:History of optics 3750: 3749: 3724:Transfermium Wars 3643:Harvard Computers 3468:Subatomic physics 3441:Quantum mechanics 3377:Superconductivity 3368:Condensed matter 3197:Classical physics 3145:(recorded by the 2956:978-0-19-517324-6 2811:978-90-6984-615-6 2733:978-0-521-56669-8 2620:"Natural History" 2618:Pliny the Elder. 2527:978-0-486-43265-6 2433:10.1117/12.354722 1977:, Vol. 1, p. 710. 1878:Treatise on Light 1509:978-0-486-27495-9 1208:Zacharias Janssen 995:, from the Latin 932:quantum mechanics 841:law of reflection 819:law of refraction 154:, along with his 68:Greco-Roman world 48:ancient Egyptians 16:(Redirected from 3785: 3778:History of glass 3740: 3739: 3663:Women in physics 3415:Nuclear physics 3339:Perpetual motion 3273:Material science 3217:Electromagnetism 3177: 3170: 3163: 3154: 3119: 3088: 3059: 3035:(10): 1189–201, 3016: 2980: 2976:Electromagnetics 2961: 2960: 2940: 2934: 2933: 2915: 2909: 2904: 2898: 2895: 2889: 2886: 2880: 2877: 2871: 2870: 2850: 2844: 2843: 2841: 2839: 2822: 2816: 2815: 2795: 2789: 2788: 2784:Nature Volume 14 2778: 2772: 2769: 2763: 2762: 2744: 2738: 2737: 2721: 2711: 2705: 2704: 2680: 2674: 2673: 2662: 2656: 2649: 2643: 2636: 2630: 2629: 2627: 2626: 2615: 2609: 2608: 2581: 2572: 2571: 2535: 2529: 2512: 2506: 2505: 2493: 2487: 2486: 2484: 2483: 2468: 2462: 2461: 2459: 2458: 2443: 2437: 2436: 2416: 2410: 2409: 2373: 2367: 2366: 2356: 2350: 2349: 2339: 2333: 2328: 2301: 2295: 2294: 2293: 2292: 2277:"RenĂ© Descartes" 2273: 2267: 2266: 2241: 2235: 2228: 2222: 2221: 2219: 2218: 2183: 2177: 2172:D. C. Lindberg, 2170: 2164: 2155:D. C. Lindberg, 2153: 2147: 2146: 2128: 2122: 2107: 2101: 2094: 2088: 2083:R. W. Southern, 2081: 2075: 2070:D. C. Lindberg, 2068: 2062: 2051: 2045: 2044: 2012: 2006: 2005: 1984: 1978: 1968: 1962: 1961: 1959: 1957: 1946: 1940: 1939: 1937: 1935: 1921: 1915: 1906:D. C. Lindberg, 1904: 1898: 1868: 1862: 1861: 1825: 1819: 1818: 1799: 1793: 1792: 1762: 1756: 1749: 1743: 1742: 1705: 1699: 1692: 1686: 1685: 1683: 1682: 1673:. Archived from 1667: 1661: 1660: 1633: 1627: 1614:D. C. Lindberg, 1612: 1606: 1605: 1577: 1566: 1556: 1550: 1547: 1541: 1540: 1538: 1536: 1520: 1514: 1513: 1489: 1483: 1482: 1462: 1407:computer science 1376:optical tweezers 1319:George Sudarshan 1294:in 1953 and the 1215:Cornelis Drebbel 1000: 949:of 1675, Newton 938:and the idea of 860: 854: 816: 798: 758: 745: 731:Peter of Limoges 728: 667: 661: 655: 596:of light, and a 548: 518: 480: 474: 460: 458:Kitab al Manazir 297:Claudius Ptolemy 160:Little Astronomy 85: 84: 21: 3793: 3792: 3788: 3787: 3786: 3784: 3783: 3782: 3753: 3752: 3751: 3746: 3728: 3699:Joule–von Mayer 3667: 3631: 3588: 3537: 3501: 3392:Big Bang theory 3345: 3244:Fluid mechanics 3191: 3181: 3127: 3109: 3092: 3078: 3063: 3041:10.1068/p251189 3026: 3023: 3021:Further reading 2992:(10): 1157–77, 2983: 2972: 2969: 2964: 2957: 2942: 2941: 2937: 2930: 2917: 2916: 2912: 2905: 2901: 2896: 2892: 2887: 2883: 2878: 2874: 2867: 2852: 2851: 2847: 2837: 2835: 2824: 2823: 2819: 2812: 2797: 2796: 2792: 2780: 2779: 2775: 2770: 2766: 2759: 2746: 2745: 2741: 2734: 2713: 2712: 2708: 2701: 2682: 2681: 2677: 2664: 2663: 2659: 2650: 2646: 2637: 2633: 2624: 2622: 2617: 2616: 2612: 2583: 2582: 2575: 2537: 2536: 2532: 2513: 2509: 2495: 2494: 2490: 2481: 2479: 2470: 2469: 2465: 2456: 2454: 2445: 2444: 2440: 2418: 2417: 2413: 2375: 2374: 2370: 2358: 2357: 2353: 2341: 2340: 2336: 2303: 2302: 2298: 2290: 2288: 2275: 2274: 2270: 2256: 2243: 2242: 2238: 2229: 2225: 2216: 2214: 2185: 2184: 2180: 2171: 2167: 2154: 2150: 2143: 2130: 2129: 2125: 2108: 2104: 2096:A. C. Crombie, 2095: 2091: 2082: 2078: 2069: 2065: 2052: 2048: 2014: 2013: 2009: 1986: 1985: 1981: 1969: 1965: 1955: 1953: 1948: 1947: 1943: 1933: 1931: 1923: 1922: 1918: 1905: 1901: 1869: 1865: 1827: 1826: 1822: 1801: 1800: 1796: 1764: 1763: 1759: 1750: 1746: 1718:(4): 469–489 , 1707: 1706: 1702: 1693: 1689: 1680: 1678: 1669: 1668: 1664: 1657: 1635: 1634: 1630: 1613: 1609: 1588:(2): 54–56+60. 1579: 1578: 1569: 1557: 1553: 1548: 1544: 1534: 1532: 1522: 1521: 1517: 1510: 1502:. p. 248. 1491: 1490: 1486: 1479: 1464: 1463: 1459: 1455: 1438: 1380:Doppler cooling 1264:Albert Einstein 1247: 1241: 1233:Galileo Galilei 1221:Galileo Galilei 1161:Hans Lippershey 1061:7th century BCE 1045: 1039: 1009:of light rays. 983:The effects of 969: 922:to explain the 855:(also known as 831:, now known as 805:pinhole cameras 782:Johannes Kepler 779: 574:Aristotelianism 562: 551:The Revision of 509:, who lived in 400:. His treatise 333: 285:emission theory 242: 232: 112: 23: 22: 15: 12: 11: 5: 3791: 3789: 3781: 3780: 3775: 3770: 3765: 3755: 3754: 3748: 3747: 3745: 3744: 3733: 3730: 3729: 3727: 3726: 3721: 3720: 3719: 3714: 3706: 3704:Shapley–Curtis 3701: 3696: 3694:Leibniz–Newton 3691: 3689:Galileo affair 3686: 3681: 3675: 3673: 3669: 3668: 3666: 3665: 3660: 3655: 3650: 3645: 3639: 3637: 3633: 3632: 3630: 3629: 3624: 3623: 3622: 3612: 3607: 3602: 3596: 3594: 3590: 3589: 3587: 3586: 3584:Speed of light 3581: 3580: 3579: 3574: 3569: 3561: 3556: 3551: 3545: 3543: 3539: 3538: 3536: 3535: 3530: 3528:Nanotechnology 3525: 3520: 3519: 3518: 3509: 3507: 3503: 3502: 3500: 3499: 3498: 3497: 3492: 3487: 3477: 3476: 3475: 3465: 3464: 3463: 3458: 3453: 3448: 3438: 3437: 3436: 3431: 3426: 3421: 3413: 3408: 3407: 3406: 3396: 3395: 3394: 3389: 3381: 3380: 3379: 3374: 3366: 3365: 3364: 3355: 3353: 3351:Modern physics 3347: 3346: 3344: 3343: 3342: 3341: 3336: 3331: 3326: 3319:Thermodynamics 3316: 3315: 3314: 3304: 3303: 3302: 3297: 3287: 3286: 3285: 3280: 3270: 3269: 3268: 3258: 3257: 3256: 3251: 3241: 3240: 3239: 3234: 3229: 3224: 3214: 3213: 3212: 3201: 3199: 3193: 3192: 3182: 3180: 3179: 3172: 3165: 3157: 3151: 3150: 3126: 3125:External links 3123: 3122: 3121: 3107: 3090: 3076: 3061: 3022: 3019: 3018: 3017: 2981: 2979:. 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Glauber 1304:quantum optics 1245:Quantum optics 1243:Main article: 1240: 1239:Quantum optics 1237: 1229:Giovanni Faber 1227:was coined by 1192:objective lens 1183:in 1668, his 1130:reading stones 1126:13th centuries 1110:Book of Optics 1098:concave lenses 1090:Ibn al-Haytham 1068:1st century CE 1038: 1035: 968: 965: 837:RenĂ© Descartes 786:solar eclipses 778: 775: 696:, Tideus, and 561: 558: 501:speed of sound 493:speed of light 483:Ibn al-Haytham 452:Book of Optics 435:Ibn al-Haytham 406:curved mirrors 377:Ibn al-Haytham 332: 329: 273: 272: 269: 266: 263: 260: 257: 254: 231: 228: 111: 108: 104:quantum optics 24: 14: 13: 10: 9: 6: 4: 3: 2: 3790: 3779: 3776: 3774: 3771: 3769: 3766: 3764: 3761: 3760: 3758: 3743: 3735: 3734: 3731: 3725: 3722: 3718: 3715: 3713: 3710: 3709: 3707: 3705: 3702: 3700: 3697: 3695: 3692: 3690: 3687: 3685: 3682: 3680: 3679:Bohr–Einstein 3677: 3676: 3674: 3670: 3664: 3661: 3659: 3656: 3654: 3651: 3649: 3646: 3644: 3641: 3640: 3638: 3634: 3628: 3625: 3621: 3618: 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626: 621: 617: 615: 611: 607: 601: 599: 595: 591: 588:of light, an 587: 583: 579: 575: 571: 567: 559: 557: 555: 552: 547: 542: 538: 534: 529: 526: 522: 517: 512: 508: 504: 502: 498: 494: 490: 486: 484: 479: 473: 472:De aspectibus 468: 464: 459: 454: 453: 448: 444: 440: 437:(known in as 436: 429: 425: 421: 419: 415: 411: 407: 403: 399: 398: 392: 388: 386: 382: 378: 371: 366: 362: 360: 356: 355:Islamic world 352: 346: 342: 337: 330: 328: 326: 322: 318: 314: 310: 306: 304: 303: 298: 293: 289: 287: 286: 281: 276: 270: 267: 264: 261: 258: 255: 252: 251: 250: 248: 241: 237: 229: 227: 224: 220: 216: 212: 207: 204: 200: 194: 189: 187: 184: 180: 175: 173: 169: 165: 161: 157: 153: 149: 144: 141: 138: 137: 131: 128: 125: 121: 120:four elements 117: 110:Early history 109: 107: 105: 101: 97: 93: 89: 79: 75: 74: 69: 65: 61: 58:developed by 57: 53: 52:Mesopotamians 49: 45: 41: 40: 31: 27: 19: 3648:The Martians 3312:Spectroscopy 3306: 3254:Aerodynamics 3232:Field theory 3094: 3065: 3032: 3028: 2989: 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Retrieved 2831:Live Science 2829: 2820: 2800: 2793: 2783: 2776: 2767: 2748: 2742: 2717: 2709: 2685: 2678: 2669: 2660: 2653:Elliott 1966 2647: 2634: 2623:. Retrieved 2613: 2589: 2586:Neurosurgery 2585: 2546:(2): 78–84. 2543: 2539: 2533: 2514: 2510: 2501: 2491: 2480:. Retrieved 2475: 2466: 2455:. Retrieved 2451: 2441: 2424: 2414: 2381: 2377: 2371: 2361: 2354: 2344: 2337: 2330: 2309: 2305: 2299: 2289:, retrieved 2285:the original 2280: 2271: 2245: 2239: 2234:, pp 142–146 2231: 2226: 2215:. Retrieved 2195: 2191: 2181: 2173: 2168: 2160: 2156: 2151: 2132: 2126: 2118: 2114: 2110: 2105: 2097: 2092: 2084: 2079: 2071: 2066: 2054: 2049: 2025: 2019: 2016:Sabra, A. I. 2010: 1996: 1982: 1974: 1966: 1954:. Retrieved 1944: 1932:. Retrieved 1928: 1919: 1907: 1902: 1895: 1891: 1885: 1877: 1871: 1866: 1833: 1829: 1823: 1807: 1803: 1797: 1772: 1766: 1760: 1752: 1751:Rashed, R., 1747: 1715: 1709: 1703: 1695: 1690: 1679:. 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The word 3757:Categories 3593:By periods 3411:Geophysics 3383:Cosmology 3029:Perception 2986:Perception 2625:2008-04-27 2482:2012-11-25 2457:2008-05-10 2312:(4): 523, 2291:2007-08-15 2217:2022-02-16 1836:(3): 322. 1681:2008-11-03 1535:2 February 1352:ultrashort 1331:statistics 1272:Niels Bohr 1255:Max Planck 1225:microscope 1212:expatriate 1200:real image 1198:to view a 1041:See also: 1017:. In 1803 926:of light ( 916:corpuscles 900:dispersion 875:refraction 861:) and the 829:refraction 662:, and the 644:Franciscan 606:Hexaemeron 600:of light. 570:university 511:Al-Andalus 414:refraction 395:Ptolemy's 317:refraction 313:reflection 234:See also: 213:, such as 199:Catoptrica 177:In 55 BC, 156:Phaenomena 116:Empedocles 3636:By groups 3620:Astronomy 3456:Molecules 3290:Mechanics 3205:Astronomy 3099:MIT Press 2406:191384703 2326:170669199 2042:144855447 1804:Al-'Arabi 1789:144361526 1364:ultrafast 1298:in 1960. 1146:magnified 1082:using an 1051:from the 1007:inflexion 908:On Colour 896:telescope 674:Aristotle 586:cosmogony 211:Buddhists 188:, wrote: 179:Lucretius 158:, in the 124:Aphrodite 83:τα ᜀπτÎčÎșÎŹ 3742:Category 3567:timeline 3554:Graphene 3516:timeline 3485:timeline 3473:timeline 3446:timeline 3387:timeline 3372:timeline 3362:timeline 3324:timeline 3295:timeline 3278:timeline 3266:timeline 3249:timeline 3222:timeline 3210:timeline 3188:timeline 3117:37246567 3086:34731151 3057:34431898 3006:11721819 2838:31 March 2568:96668398 2452:BBC News 2329:quoting 2264:51095685 2230:Caspar, 1858:10792576 1816:11634474 1810:: 12–3, 1740:40895875 1639:(1973). 1602:20759821 1436:See also 1196:eyepiece 883:spectrum 809:parallax 723:(Latin: 690:al-Kindi 682:Averroes 678:Avicenna 610:On Light 598:theology 590:etiology 525:twilight 489:Avicenna 391:Ibn Sahl 351:Al-Kindi 341:Ibn Sahl 168:Almagest 164:Syntaxis 94:, where 3577:Neutron 3434:Weapons 3419:Fission 3334:Entropy 3049:9027922 3014:8185797 2606:9574655 2560:4608700 2331:Opticks 2281:Encarta 2200:Bibcode 1850:4867472 1732:4948770 1647:131–135 1251:photons 1173:Galileo 1169:Alkmaar 1104:in his 1094:pinhole 1084:emerald 1070:, when 979:in 1803 960:Opticks 951:posited 945:In his 936:photons 928:Opticks 912:Opticks 771:rainbow 761:species 710:species 706:species 702:species 694:Ptolemy 670:Alhacen 614:Genesis 594:physics 541:rainbow 521:Alhazen 469:as the 443:Alhazen 439:Alhacen 428:Alhazen 223:atomism 215:Dignāga 197:In his 186:atomist 172:Ptolemy 133:In his 66:in the 46:by the 3773:Optics 3424:Fusion 3329:Energy 3307:Optics 3115:  3105:  3084:  3074:  3055:  3047:  3012:  3004:  2953:  2926:  2863:  2808:  2755:  2730:  2697:  2604:  2566:  2558:  2521:  2404:  2398:505216 2396:  2324:  2262:  2252:  2232:Kepler 2139:  2040:  1956:2 June 1952:. 2009 1934:2 June 1929:UNESCO 1856:  1848:  1814:  1787:  1738:  1730:  1653:  1624:Optics 1600:  1506:  1475:  1343:Kimble 1325:, and 1276:matter 1100:, and 751:Witelo 686:Euclid 656:, the 554:Optics 463:Arabic 447:Optics 410:lenses 397:Optics 309:Optics 302:Optics 247:Euclid 193:sight. 152:Optics 148:Pappus 143:Euclid 136:Optics 73:optics 56:vision 44:lenses 39:Optics 3495:tests 3451:Atoms 3429:Power 3404:tests 3053:S2CID 3010:S2CID 2564:S2CID 2556:JSTOR 2402:S2CID 2394:JSTOR 2322:S2CID 2038:S2CID 1854:S2CID 1785:S2CID 1736:S2CID 1598:S2CID 1453:Notes 1311:Dirac 1296:laser 1292:maser 1134:monks 955:ether 920:waves 879:prism 729:) by 467:Latin 183:Roman 170:) of 80:term 78:Greek 3113:OCLC 3103:ISBN 3082:OCLC 3072:ISBN 3045:PMID 3002:PMID 2951:ISBN 2924:ISBN 2861:ISBN 2840:2017 2806:ISBN 2753:ISBN 2728:ISBN 2695:ISBN 2693:–6. 2602:PMID 2540:BIOS 2519:ISBN 2306:Isis 2260:OCLC 2250:ISBN 2137:ISBN 2021:Isis 1958:2018 1936:2018 1890:Vol 1846:PMID 1830:Isis 1812:PMID 1768:Isis 1728:PMID 1711:Isis 1651:ISBN 1537:2021 1504:ISBN 1473:ISBN 1358:and 1283:and 1124:and 1122:11th 1076:Nero 887:lens 408:and 383:and 368:The 315:and 238:and 181:, a 102:and 50:and 3147:BBC 3037:doi 2994:doi 2594:doi 2548:doi 2429:doi 2386:doi 2314:doi 2208:doi 2196:236 2030:doi 1838:doi 1777:doi 1720:doi 1590:doi 1432:). 1374:or 1313:in 1167:of 592:or 584:or 556:). 475:or 461:in 441:or 3759:: 3149:). 3111:, 3101:, 3080:, 3051:, 3043:, 3033:25 3031:, 3008:, 3000:, 2990:30 2988:, 2859:. 2828:. 2726:. 2724:67 2668:. 2600:, 2590:42 2588:, 2576:^ 2562:. 2554:. 2544:75 2542:. 2525:, 2500:. 2474:. 2450:. 2423:. 2400:. 2392:. 2382:91 2380:. 2320:, 2310:73 2308:, 2279:, 2258:, 2206:. 2194:. 2190:. 2036:, 2026:58 2024:, 2001:, 1995:, 1991:, 1973:, 1927:. 1892:36 1852:. 1844:. 1834:58 1832:. 1806:, 1783:. 1773:81 1771:. 1734:, 1726:, 1716:62 1714:, 1649:. 1596:. 1584:. 1570:^ 1561:, 1527:. 1498:. 1471:. 1416:, 1409:. 1393:, 1386:. 1321:, 1317:, 1287:. 1187:. 1096:, 934:, 867:. 692:, 688:, 684:, 680:, 676:, 672:, 646:, 503:. 387:. 379:, 327:. 288:. 201:, 174:. 106:. 3190:) 3186:( 3176:e 3169:t 3162:v 3120:. 3089:. 3060:. 3039:: 2996:: 2959:. 2932:. 2869:. 2842:. 2814:. 2787:. 2761:. 2736:. 2703:. 2691:4 2672:. 2655:) 2651:( 2642:) 2638:( 2628:. 2596:: 2570:. 2550:: 2485:. 2460:. 2435:. 2431:: 2408:. 2388:: 2316:: 2220:. 2210:: 2202:: 2145:. 2032:: 1960:. 1938:. 1860:. 1840:: 1808:8 1791:. 1779:: 1722:: 1684:. 1659:. 1626:. 1604:. 1592:: 1586:9 1539:. 1512:. 1481:. 799:( 627:) 549:( 455:( 166:( 20:)

Index

Lens manufacturing

Optics
lenses
ancient Egyptians
Mesopotamians
vision
ancient Greek philosophers
geometrical optics
Greco-Roman world
optics
Greek
medieval Islamic world
early modern Europe
diffractive optics
wave optics
quantum optics
Empedocles
four elements
Aphrodite
Optics
Greek mathematician
Euclid
Pappus
Ptolemy
Lucretius
Roman
atomist
Hero of Alexandria
Buddhists

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