.
Philipss
NE612 - Double-balanced mixer and oscillator
RF COMMUNICATIONS PRODUCTS SA612A Double-balanced mixer and oscillator Product specification Replaces data of September 17, 1990 IC17 Data Handbook 1.
Philips
NE602 - Double-Balanced Mixer and Oscillator
NEjSA602 Double-Balanced Mixer and Oscillator Product Specification DESCRIPTION The SA/NE602 is a low-power VHF monolithic double-balanced mixer with.
Hittite Microwave
HMC213MS8 - GaAs MMIC SMT DOUBLE BALANCED MIXER
HMC213MS8 / 213MS8E v002.0505 www.DataSheet4U.com GaAs MMIC SMT DOUBLEBALANCED MIXER, 1.5 - 4.5 GHz Typical Applications The HMC213MS8 / HMC213MS8E.
Philips
TCA240 - DOUBLE BALANCED MODULATOR/DEMODULATOR
Ii II TCA240 DOUBLE BALANCED MODULATOR/DEMODULATOR The TCA240 is a monolithic integrated circuit used ,for general 'purpose applications, such as: -.
Philips
SA602 - Double-Balanced Mixer and Oscillator
NEjSA602 Double-Balanced Mixer and Oscillator Product Specification DESCRIPTION The SA/NE602 is a low-power VHF monolithic double-balanced mixer with.
MA-COM
MD-108 - Double-Balanced Mixer
MD-108 Double-Balanced Mixer, 5 - 500 MHz Features Low Cost Conversion Loss: 7 dB Typical Impedance: 50 Ohms Nominal Maximum Input Power: 400 .
Analog Devices
HMC329A - GaAs MMIC DOUBLE-BALANCED MIXER
v00.1115 Typical Applications The HMC329A is ideal for: • LMDS • Microwave Point-to-Point Radios • SATCOM 1 Functional Diagram HMC329A GaAs MMIC DOUB.
Analog Devices
HMC213AMS8E - GaAs MMIC SMT Double-Balanced Mixer
HMC213AMS8 / 213AMS8E v02.1210 GaAs MMIC SMT DoubleBalanced Mixer, 1.5 - 4.5 GHz 10 Typical Applications The HMC213AMS8(E) is ideal for: • Base St.
Mini-Circuits
MDB-54H+ - Double Balanced Mixer
MMIC SURFACE MOUNT WIDEBAND Double Balanced Mixer Level 15 (LO Power 15dBm) 20-50 GHz MDB-54H+ THE BIG DEAL y Super wideband RF & LO, 20-50 GHz y Su.
AVAGO
AMMC-3040 - Double-Balanced Mixer
AMMC-3040 18 - 36 GHz Double-Balanced Mixer with Integrated LO Amplifier/Multiplier Data Sheet Chip Size: 2520 x 760 µm (99.2 x 29.9 mils) Chip Size .
AVAGO
AMMC-3041 - Double-Balanced Mixer
AMMC-3041 18 - 42 GHz Double Balanced Mixer Data Sheet Chip Size Tolerance: ±10 µm (±0.4 mils) Chip Size Tolerance: 10 µm (±0.4 mils) Chip Thickness:.
Analog Devices
HMC553ALC3B - Double-Balanced Mixer
Data Sheet FEATURES Passive: no dc bias required Conversion loss: 7 dB typical at 6 GHz to 11 GHz Input IP3: 18 dBm typical at 6 GHz to 11 GHz LO to R.
Analog Devices
HMC774ALC3B - Double Balanced Mixer
MIXERS - SINGLE & DOUBLE BALANCED - SMT Preliminary v00.1115 Typical Applications The HMC774ALC3B is ideal for: • Point-to-Point Radios • Point-to-Mu.
Analog Devices
HMC412BMS8GE - DOUBLE-BALANCED MIXER
MIXER - SINGLE & DOUBLE BALANCED - SMT Typical Applications The HMC412BMS8GE is ideal for: • Long Haul Radio Platforms • Microwave Radio • VSAT Funct.
Analog Devices
HMC329ALC3B - Double Balanced Mixer
Data Sheet FEATURES Conversion loss (downconverter): 11 dB typical LO to RF isolation: 36.5 dB typical for 24 GHz to 30 GHz performance Input IP3 (dow.
Analog Devices
HMC129ALC4 - GaAs MMIC DOUBLE-BALANCED MIXER
MIXERS - SINGLE & DOUBLE BALANCED - SMT Preliminary v00.1115 Typical Applications The HMC129ALC4 is ideal for: • Microwave & VSAT Radios • Test Equip.
Analog Devices
HMC1048ALC3B - GaAs MMIC DOUBLE-BALANCED MIXER
Mixer - Double-BALANCED - SMT Preliminary v00.1115 Typical Application The HMC1048AlC3b is ideal for: • Ka-band Transponders • Point-to-Multi-Point R.
Analog Devices
HMC410AMS8GE - GaAs MMIC DOUBLE-BALANCED HIGH IP3 MIXER
HMC410AMS8G / 410AMS8GE v00.0410 GaAs MMIC DOUBLE-BALANCED HIGH IP3 MIXER, 9 - 15 GHz 10 Typical Applications The HMC410AMS8G(E) is ideal for: • L.
Analog Devices
HMC213BMS8GE - GaAs MMIC SMT Double-Balanced Mixer
HMC213BMS8GE v01.0216 GaAs MMIC SMT DoubleBalanced Mixer, 1.5 - 4.5 GHz Typical Applications The HMC213BMS8GE is ideal for: • Base Stations 1 • PCM.
Analog Devices
HMC213AMS8 - GaAs MMIC SMT Double-Balanced Mixer
HMC213AMS8 / 213AMS8E v02.1210 GaAs MMIC SMT DoubleBalanced Mixer, 1.5 - 4.5 GHz 10 Typical Applications The HMC213AMS8(E) is ideal for: • Base St.
