Part | RoHS | Manufacturer | Oscillator Type | Mounting Feature | Frequency Stability | Maximum Supply Voltage | Maximum Supply Current | Output Power | Nominal Supply Voltage | Phase Noise | Power Variation | Physical Dimension | Minimum Supply Voltage | Maximum Operating Temperature | Minimum Operating Temperature | Offset Frequency | Maximum Harmonics Level | Additional Features | Minimum Operating Frequency | Maximum Operating Frequency |
---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
Aeroflex/kdi |
MECHANICAL TUNED CAVITY OSCILLATOR |
1000 % |
150 mA |
17 dBm |
-20 V |
2 dB |
65 Cel |
-30 Cel |
-25 dBc |
4400 MHz |
5100 MHz |
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Dover Technologies |
MECHANICAL TUNED CAVITY OSCILLATOR |
CHASSIS MOUNT |
.05 % |
500 mA |
7 dBm |
15 V |
-52 dBc/Hz |
1 dB |
106.68mm x 31.75mm x 50.8mm |
65 Cel |
-30 Cel |
1 kHz |
500 MHz |
2500 MHz |
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Aeroflex/kdi |
MECHANICAL TUNED CAVITY OSCILLATOR |
CHASSIS MOUNT |
2000 % |
-20 V |
17 dBm |
85 dBc/Hz |
1.5 dB |
44.45mm x 44.45mm x 15.24mm |
-15 V |
85 Cel |
-55 Cel |
10 kHz |
-20 dBc |
TEMPERATURE STABILITY 3 PERCENT WITH AFC IS POSSIBLE |
2000 MHz |
3200 MHz |
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Aeroflex/kdi |
MECHANICAL TUNED CAVITY OSCILLATOR |
CHASSIS MOUNT |
1000 % |
150 mA |
20 dBm |
-20 V |
2 dB |
205.486mm x 31.75mm x 34.798mm |
65 Cel |
-30 Cel |
-25 dBc |
1000 MHz |
2000 MHz |
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Aeroflex/kdi |
MECHANICAL TUNED CAVITY OSCILLATOR |
CHASSIS MOUNT |
1000 % |
150 mA |
17 dBm |
-20 V |
2 dB |
152.908mm x 31.75mm x 34.798mm |
65 Cel |
-30 Cel |
-25 dBc |
2000 MHz |
4000 MHz |
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Aeroflex/kdi |
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Aeroflex/kdi |
MECHANICAL TUNED CAVITY OSCILLATOR |
CHASSIS MOUNT |
2000 % |
-20 V |
120 mA |
17 dBm |
85 dBc/Hz |
1.5 dB |
44.45mm x 44.45mm x 15.24mm |
-12 V |
85 Cel |
-55 Cel |
10 kHz |
-20 dBc |
TEMPERATURE STABILITY 3 PERCENT WITH AFC IS POSSIBLE |
3200 MHz |
5000 MHz |
MMIC (Monolithic Microwave Integrated Circuit) cavity oscillators are electronic devices that generate microwave signals for use in a variety of applications, such as radar systems, communication systems, and test and measurement equipment. They consist of a resonant cavity, which is a structure that is designed to enhance the oscillation of the microwave signal, and an amplifier, which amplifies the signal to a usable level.
The MMIC cavity oscillator works by using the resonant cavity to create a standing wave at a specific frequency. This standing wave is amplified by the amplifier, generating a stable and reliable microwave signal output. The cavity can be made using a variety of materials, including metal, ceramic, or quartz, depending on the specific requirements of the application.
One of the advantages of MMIC cavity oscillators is their ability to generate signals at high frequencies, up to hundreds of gigahertz. This makes them suitable for use in applications that require high-frequency signals, such as in radar systems.
Another advantage of MMIC cavity oscillators is their small form factor and low power consumption. They consume less power and require less space than other types of microwave signal generators, making them a popular choice in portable devices such as smartphones, laptops, and tablets.