Vertaling en analyse van woorden door kunstmatige intelligentie ChatGPT
Op deze pagina kunt u een gedetailleerde analyse krijgen van een woord of zin, geproduceerd met behulp van de beste kunstmatige intelligentietechnologie tot nu toe:
- hoe het woord wordt gebruikt
- gebruiksfrequentie
- het wordt vaker gebruikt in mondelinge of schriftelijke toespraken
- opties voor woordvertaling
- Gebruiksvoorbeelden (meerdere zinnen met vertaling)
- etymologie
Radar Warning Receiver - vertaling naar Engels
.jpg?width=200)
![A [[Brazilian Air Force]] [[Embraer R-99]]](https://commons.wikimedia.org/wiki/Special:FilePath/Aeronaves Ágata 7 - FAB - EMB145 Erieye.jpg?width=200 "A [[Brazilian Air Force]] [[Embraer R-99]]")
![The [[KJ-2000]] is based on the [[Beriev A-50]] aircraft.](https://commons.wikimedia.org/wiki/Special:FilePath/Airborne early warning and control aircraft A-50U (Red 41).jpg?width=200 "The [[KJ-2000]] is based on the [[Beriev A-50]] aircraft.")
![E-767]] of the [[Japan Air Self Defense Force]]](https://commons.wikimedia.org/wiki/Special:FilePath/Boeing E-767 (light).jpg?width=200 "E-767]] of the [[Japan Air Self Defense Force]]")
![[[Lockheed EC-121]]M one of the first AEW aircraft](https://commons.wikimedia.org/wiki/Special:FilePath/Lockheed EC-121M with F-4B (cropped).jpg?width=200 "[[Lockheed EC-121]]M one of the first AEW aircraft")
![An AEW [[Westland Sea King]] helicopter of the [[Royal Navy]]](https://commons.wikimedia.org/wiki/Special:FilePath/Royal Navy AEW Seaking Helicopter from 849 Naval Air Squadron MOD (cropped).jpg?width=200 "An AEW [[Westland Sea King]] helicopter of the [[Royal Navy]]")
![A Boeing 737 AEW&C of the [[Turkish Air Force]]](https://commons.wikimedia.org/wiki/Special:FilePath/Turkish Air Force Boeing 737-700 KvW.jpg?width=200 "A Boeing 737 AEW&C of the [[Turkish Air Force]]")
.jpg?width=200 "Wellington Ic \"Air Controlled Interception\" showing rotating radar antenna")
.jpg?width=200 "Coherer from 1904 as developed by Marconi.")
![[[Guglielmo Marconi]], who built the first radio receivers, with his early spark transmitter ''(right)'' and coherer receiver ''(left)'' from the 1890s. The receiver records the Morse code on paper tape](https://commons.wikimedia.org/wiki/Special:FilePath/Guglielmo Marconi 1901 wireless signal.jpg?width=200 "[[Guglielmo Marconi]], who built the first radio receivers, with his early spark transmitter ''(right)'' and coherer receiver ''(left)'' from the 1890s. The receiver records the Morse code on paper tape")
.jpg?width=200 "chapter-url=https://books.google.com/books?id=PzzLAwAAQBAJ&pg=PA89}}</ref>")
![A modern [[communications receiver]], used in [[two-way radio]] communication stations to talk with remote locations by [[shortwave radio]].](https://commons.wikimedia.org/wiki/Special:FilePath/Icom IC-R7000 radio receiver.jpg?width=200 "A modern [[communications receiver]], used in [[two-way radio]] communication stations to talk with remote locations by [[shortwave radio]].")
![A galena cat's whisker detector from a 1920s [[crystal radio]]](https://commons.wikimedia.org/wiki/Special:FilePath/Kristallradio (3).jpg?width=200 "A galena cat's whisker detector from a 1920s [[crystal radio]]")
![A bedside [[clock radio]] that combines a radio receiver with an [[alarm clock]]](https://commons.wikimedia.org/wiki/Special:FilePath/Radio-with-Alarm clock.jpg?width=200 "A bedside [[clock radio]] that combines a radio receiver with an [[alarm clock]]")
![Example of transatlantic radiotelegraph message recorded on paper tape by a [[siphon recorder]] at RCA's New York receiving center in 1920. The translation of the Morse code is given below the tape.](https://commons.wikimedia.org/wiki/Special:FilePath/Radiotelegraph syphon recorder tape 1922.png?width=200 "Example of transatlantic radiotelegraph message recorded on paper tape by a [[siphon recorder]] at RCA's New York receiving center in 1920. The translation of the Morse code is given below the tape.")
![selectivity]] to reject stations on adjacent frequencies, multiple cascaded bandpass filter stages had to be used. The dotted line indicates that the bandpass filters must be tuned together.](https://commons.wikimedia.org/wiki/Special:FilePath/Tuned radio frequency (TRF) receiver block diagram 2.svg?width=200 "selectivity]] to reject stations on adjacent frequencies, multiple cascaded bandpass filter stages had to be used. The dotted line indicates that the bandpass filters must be tuned together.")
![During the "[[Golden Age of Radio]]" (1920 to 1950), families gathered to listen to the home radio in the evening, such as this Zenith console model 12-S-568 from 1938, a 12-tube superheterodyne with pushbutton tuning and 12-inch cone speaker.](https://commons.wikimedia.org/wiki/Special:FilePath/Vintage Zenith Console Radio, Model 12S-568, With the Zenith Robot (or Shutter) Dial, Circa 1941 (8655513293).jpg?width=200 "During the \"[[Golden Age of Radio]]\" (1920 to 1950), families gathered to listen to the home radio in the evening, such as this Zenith console model 12-S-568 from 1938, a 12-tube superheterodyne with pushbutton tuning and 12-inch cone speaker.")
.jpg?width=200 "A Zenith transistor based portable radio receiver")
Wikipedia
Radar warning receiver (RWR) systems detect the radio emissions of radar systems. Their primary purpose is to issue a warning when a radar signal that might be a threat is detected, like a fighter aircraft's fire control radar. The warning can then be used, manually or automatically, to evade the detected threat. RWR systems can be installed in all kind of airborne, sea-based, and ground-based assets such as aircraft, ships, automobiles, military bases. This article is focused mainly on airborne military RWR systems; for commercial police speed detection radar RWR systems, see radar detector.
Depending on the market the RWR system is designed for, it can be as simple as detecting the presence of energy in a specific radar band, such as the frequencies of known surface-to-air missile systems. Modern RWR systems are often capable of classifying the source of the radar by the signal's strength, phase and signal details. The information about the signal's strength and waveform can then be used to estimate the type of threat the detected radar poses.
