इलेक्ट्रॉन किंवा ट्यूब्सपासून बनवलेल्या वेग मॉड्यूलेशनद्वारे मायक्रोवेव्ह प्रदेशात विस्तृत इलेक्ट्रोमॅग्नेटिक रेडिएशन,

klystrons's Usage Examples:

transmitters, where they have mostly replaced klystrons because of their higher efficiencies (35% to 40%) and smaller size.

electronic components for space and military use, including magnetrons, klystrons, high-powered vacuum tubes, carbon dioxide lasers, electro-optical devices.

Low-power klystrons are used as oscillators in terrestrial microwave relay communications links, while high-power.

lower gain and bandwidth than other microwave amplifier tubes (such as klystrons or traveling-wave tubes); but it is more efficient and capable of much.

They are also used in microwave linear beam vacuum tubes such as klystrons, inductive output tubes, travelling wave tubes, and gyrotrons, as well.

Microwave tube designers took numerous steps to reduce microphonics in klystrons.

research division of EMI Electronics was established to develop high power klystrons, for use in the first airborne radars being developed during the Second.

in the post-war period but fell from favor in the 1960s as high-power klystrons and Travelling-wave tubes emerged.

The Type 85 had twelve klystrons that could be mixed to produce sixty output frequencies, but only four of the klystrons were used in peacetime, in.

This makes it impossible to use the simple solution used for klystrons.

Magnetically controlled types, usually incorporating a resonator (essentially, magnetrons) K-- Electrostatically controlled types, including a resonator (klystrons.

magnetrons) K-- Electrostatically controlled types, including a resonator (klystrons and inductive output tubes) L-- Vacuum capacitors N-- Crystal rectifiers.

Radar Research Laboratory, where he continued the development of cavity magnetrons and reflex klystrons for radar sets.

Synonyms:

thermionic valve, electron tube, tube, vacuum tube, thermionic tube, thermionic vacuum tube,

Antonyms:

cathode, anode, walk,