Fiber Optic InterRepeater Link - определение. Что такое Fiber Optic InterRepeater Link
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Что (кто) такое Fiber Optic InterRepeater Link - определение

GYROSCOPE THAT USES FIBER OPTICS AND LIGHT INTERFERENCE
Fiber optic gyroscope; Fiber Optic Gyro; Fiber Optic Gyros; Fiber Optic Gyroscope; Fibre optic gyro; Fibre optic gyroscope; Fiber-optic gyroscope; Fiber gyro; Laser/fiber optics gyroscope
Найдено результатов: 1194
Fiber Optic InterRepeater Link      
<networking> (FOIRL) An older standard of fiber optic guides used for carrying 10 MBps Ethernet. The maximum length of a segment is 1 km. A FOIRL multiport repeater and transceivers are necessary to carry the signal to multiple devices. The more recent version of Ethernet over fiber optic cables is 10baseFL with a maximum segment length of 2 km. (1998-06-28)
fibre optics         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
Note: The spelling 'fiber optics' is also used in American English. The form 'fibre optic' is used as a modifier.
1.
Fibre optics is the use of long thin threads of glass to carry information in the form of light.
N-UNCOUNT
2.
Fibre optic means relating to or involved in fibre optics.
...fibre optic cables.
ADJ: ADJ n
optical fibre         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
¦ noun a thin glass fibre through which light can be transmitted.
fiber optics         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
<spelling> US spelling of "fibre optics". See {optical fibre}. (1997-03-31)
fibre optics         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
¦ plural noun [treated as sing.] the use of thin flexible transparent fibres to transmit light signals, chiefly for telecommunications or for internal inspection of the human body.
Derivatives
fibre-optic adjective
optical fiber         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
fibre optics         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
optical fibre         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
<communications> (fibre optics, FO, US "fiber", light pipe) A plastic or glass (silicon dioxide) fibre no thicker than a human hair used to transmit information using infra-red or even visible light as the carrier (usually a laser). The light beam is an electromagnetic signal with a frequency in the range of 10^14 to 10^15 Hertz. Optical fibre is less susceptible to external noise than other transmission media, and is cheaper to make than copper wire, but it is much more difficult to connect. Optical fibres are difficult to tamper with (to monitor or inject data in the middle of a connection), making them appropriate for secure communications. The light beams do not escape from the medium because the material used provides total internal reflection. AT&T Bell Laboratories in the United States managed to send information at a rate of 420 megabits per second, over 161.5 km through an optical fibre cable. In Japan, 445.8 megabits per second was achieved over a shorter distance. At this rate, the entire text of the Encyclopedia Britannica could be transmitted in one second. Currently, AT&T is working on a world network to support high volume data transmission, international computer networking, {electronic mail} and voice communications (a single fibre can transmit 200 million telephone conversations simultaneously). See also FDDI, Optical Carrier n, SONET. (1997-05-26)
Optical fiber         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
An optical fiber, or optical fibre in Commonwealth English, is a flexible, transparent fiber made by drawing glass (silica) or plastic to a diameter slightly thicker than that of a human hair. Optical fibers are used most often as a means to transmit light between the two ends of the fiber and find wide usage in fiber-optic communications, where they permit transmission over longer distances and at higher bandwidths (data transfer rates) than electrical cables.
optical fibre         
  • Cross-section of a fiber drawn from a D-shaped '''preform'''
  • Colladon's "light fountain"
  • Diffuse reflection
  • An overview of the operating principles of the optical fiber
  • A [[TOSLINK]] fiber optic audio cable with red light shone in one end
  • A [[frisbee]] illuminated by fiber optics
  • acrylic]] rod, illustrating the total internal reflection of light in a multi-mode optical fiber.
  • An optical fiber lamp
  • Illustration of the modified chemical vapor deposition (inside) process
  • Light reflected from optical fiber illuminates exhibited model
  • multi-mode fibers]].
  • The propagation of light through a [[multi-mode optical fiber]].
  • An aerial optical fiber splice enclosure lowered during installation. The individual fibers are fused and stored within the enclosure for protection from damage
  • An [[optical fiber cable]]
  • Optical fiber types
  • The P<sub>4</sub>O<sub>10</sub> cagelike structure—the basic building block for phosphate glass
  • Specular reflection
  • ST connectors]] on [[multi-mode fiber]]
  • Theoretical loss spectra (attenuation, dB/km) for Silica optical fiber (dashed blue line) and typical ZBLAN optical fiber (solid gray line) as a function of wavelength (microns).
  • Experimental attenuation curve of low loss multimode silica and ZBLAN fiber. Black triangle points and gray arrows illustrate a four order of magnitude reduction in the attenuation of silica optical fibers over four decades from ~1000&nbsp;dB/km in 1965 to ~0.17&nbsp;dB/km in 2005.
  • The structure of a typical [[single-mode fiber]].<br />
1. Core: 8&nbsp;µm diameter<br />
2. Cladding: 125&nbsp;µm dia.<br />
3. Buffer: 250&nbsp;µm dia.<br />
4. Jacket: 400&nbsp;µm dia.
LIGHT-CONDUCTING FIBER
Fiber optic; Fiber optics; Fibre optics; Fibre optic; Fibre-optic; Fiber-optic; Fiber-optics; Fibre-optics; Fibre Optics; Fiber Optics; Optic fibre; Optic fiber; Fiberoptics; Weakly guiding fiber; Optical fibers; Fiberoptic; Optical fibres; Fiber-Optic Cable; Cable, Fiber-Optic; Optical fibre; Optic Fiber; Optic Fibre; Optical Fibre; Optical Fiber; Fibreoptics; Optical Fibers; Principle and propagation of light in optical fibre; Fibre-optic networks; Fibre Optic; Fiber Optic; Fiber optic cabling; Fiber fuse; Tapered optical fiber; History of fiber optics; Fiber-optic technology; Applications of optical fiber; Applications of fiber optics; Optical-fiber lamp; Optical fiber system; History of optical fiber; Fiber optic technology
(optical fibres)
Note: in AM, use 'optical fiber'
An optical fibre is a very thin thread of glass inside a protective coating. Optical fibres are used to carry information in the form of light.
N-VAR

Википедия

Fibre-optic gyroscope

A fibre-optic gyroscope (FOG) senses changes in orientation using the Sagnac effect, thus performing the function of a mechanical gyroscope. However its principle of operation is instead based on the interference of light which has passed through a coil of optical fibre, which can be as long as 5 kilometres (3 mi).