LTC5510
LTC5510 is 1MHz to 6GHz Wideband High Linearity Active Mixer manufactured by Linear Technology.
Features n Input Frequency Range to 6GHz n 50Ω Matched Input from 30MHz to >3GHz n Capable of Up- or Down-Conversion n OIP3: 27d Bm at f OUT = 1575MHz n 1.5d B Conversion Gain n Noise Figure: 11.6d B at f OUT = 1575MHz n High Input P1d B: 11d Bm at 5V n 5V or 3.3V Supply at 105m A n Shutdown Control n LO Input Impedance Always Matched n 0d Bm LO Drive Level n 0n-Chip Temperature Monitor n
- 40°C to 105°C Operation (TC) n 16-Lead (4mm × 4mm) QFN Package
APPLICATIONS n Wideband Receivers/Transmitters n Cable Downlink Infrastructure n HF/VHF/UHF Mixer n Wireless Infrastructure
LTC5510 1MHz to 6GHz Wideband High Linearity Active Mixer
DESCRIPTION
The LTC®5510 is a high linearity mixer optimized for applications requiring very wide input bandwidth, low distortion, and low LO leakage. The chip includes a double-balanced active mixer with an input buffer and a high speed LO amplifier. The input is optimized for use with 1:1 transmissionline baluns, allowing very wideband impedance matching. The mixer can be used for both up- and down-conversion and can be used in wideband systems. The LO can be driven differentially or single-ended and requires only 0d Bm of LO power to achieve excellent distortion and noise performance, while also reducing external drive circuit requirements. The LTC5510 offers low LO leakage, greatly reducing the need for output filtering to meet LO suppression requirements. The LTC5510 is optimized for 5V but can also be used with a 3.3V supply with slightly reduced performance. The shutdown function allows the part to be disabled for further power savings.
L, LT, LTC, LTM, Linear Technology and the Linear logo are registered trademarks of Linear Technology Corporation. All other trademarks are the property of their respective owners.
TYPICAL APPLICATION
30MHz to 4GHz Up/Down Mixer for Wideband Receiver
IN 30MHz TO
4GHz 50Ω
TEMPERATURE MONITOR TCM1-43X+ 1:1
LO 50Ω 0.1µF
0.1µF
TEMP LO+
0.1µF
0.6p F
IN+
0.1µF
LO-...