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LMH9135
  • LMH9135

LMH9135

ACTIVE

3.2 to 4.2 GHz differential to single-ended amplifier with integrated balun

Texas Instruments LMH9135 Product Info

1 April 2026 0

Parameters

Type

Active Balun

Frequency (min) (MHz)

3200

Frequency (max) (MHz)

4200

Gain (typ) (dB)

18.8

Noise figure (typ) (dB)

3.8

OIP3 (typ) (dBm)

31.5

P1dB (typ) (dBm)

18

Frequency of harmonic distortion measurement (GHz)

3.5

Supply voltage (V)

3.3

Current consumption (mA)

120

Number of channels

1

Operating temperature range (°C)

-40 to 105

Rating

Catalog

Output enable

Yes

Package

WQFN (RRL)-12-4 mm² 2 x 2

Features

  • Single-Channel, Narrow-Band Differential Input to Single-Ended Output RF Gain Block Amplifier
  • Supports 3.2 – 4.2 GHz 1-dB BW Typical
  • 18 dB Typical Gain Across the Band
  • 3.8 dB Noise Figure
  • 31.5 dBm OIP3
  • 18 dBm Output P1dB
  • 395 mW Power Consumption on Single +3.3 V Supply
  • Up to 105°C TC Operating Temperature
  • Single-Channel, Narrow-Band Differential Input to Single-Ended Output RF Gain Block Amplifier
  • Supports 3.2 – 4.2 GHz 1-dB BW Typical
  • 18 dB Typical Gain Across the Band
  • 3.8 dB Noise Figure
  • 31.5 dBm OIP3
  • 18 dBm Output P1dB
  • 395 mW Power Consumption on Single +3.3 V Supply
  • Up to 105°C TC Operating Temperature

Description

LMH9135 are high-performance, single-channel, differential input to single-ended output transmit radio frequency (RF) gain block amplifiers that support 3.2 – 4.2 GHz frequency band. The device can support the requirements for next generation 5G active antenna systems (AAS) or small-cell applications while driving the input of a power amplifier (PA). The RF amplifier provides 18 dB typical gain with good linearity performance of +31.5 dBm Output IP3, while maintaining less than 4 dB noise figure across the whole 1 dB bandwidth. The device is internally matched for 100-Ω differential input impedance providing easy interface with an RF-sampling or Zero-IF analog front-end (AFE) at the input. Also, the device is internally matched for 50-Ω single-ended output impedance that is required to easily interface with a post-amplifier, surface acoustic wave (SAW) filter, or power amplifier (PA).

Operating on a single 3.3 V supply, the device consumes about 395 mW typical active power making it suitable for high-density 5G massive MIMO applications. Also, the device is available in a space saving 2 mm x 2 mm, 12-pin QFN package. The device is rated for an operating temperature of up to 105°C to provide a robust system design. There is a 1.8-V JEDEC compliant power down pin available for fast power down and power up of the device suitable for time division duplex (TDD) systems.

LMH9135 are high-performance, single-channel, differential input to single-ended output transmit radio frequency (RF) gain block amplifiers that support 3.2 – 4.2 GHz frequency band. The device can support the requirements for next generation 5G active antenna systems (AAS) or small-cell applications while driving the input of a power amplifier (PA). The RF amplifier provides 18 dB typical gain with good linearity performance of +31.5 dBm Output IP3, while maintaining less than 4 dB noise figure across the whole 1 dB bandwidth. The device is internally matched for 100-Ω differential input impedance providing easy interface with an RF-sampling or Zero-IF analog front-end (AFE) at the input. Also, the device is internally matched for 50-Ω single-ended output impedance that is required to easily interface with a post-amplifier, surface acoustic wave (SAW) filter, or power amplifier (PA).

Operating on a single 3.3 V supply, the device consumes about 395 mW typical active power making it suitable for high-density 5G massive MIMO applications. Also, the device is available in a space saving 2 mm x 2 mm, 12-pin QFN package. The device is rated for an operating temperature of up to 105°C to provide a robust system design. There is a 1.8-V JEDEC compliant power down pin available for fast power down and power up of the device suitable for time division duplex (TDD) systems.

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