Optical Transimpedance Amplifiers

Optical Transimpedance Amplifiers

Analog Devices optical transimpedance amplifiers offer a complete, high performance, single chip solution for converting photodiode current into a differential voltage input. Supporting data rates from 155 Mbps to 11.1 Gbps, our transimpedance amplifiers are ideally suited for data communications and telecommunications applications supporting lay protocols including 1×, 2×, 4×, and 8× Fibre Channel, 10GBASE-LX4, SONET/SDH up to OC-192 with FEC, and 10 Gigabit Ethernet. Our transimpedance amplifiers feature low input referred noise current, high input current, and low power dissipation.

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LTC6563

RECOMMENDED FOR NEW DESIGNS

Four-Channel Transimpedance Amplifier with Output Multiplexing

MAX40213

PRODUCTION

Transimpedance Amplifiers with Selectable Gain and Input Current Clamp

ADA4355

RECOMMENDED FOR NEW DESIGNS

Programmable Transimpedance, Current to Bits Receiver μModule

MAX40662

RECOMMENDED FOR NEW DESIGNS

Quad Transimpedance Amplifier with Input Current Clamp and Multiplexer for LiDAR

MAX40661

PRODUCTION

High-Bandwidth Automotive Transimpedance Amplifier with Fast Output Recovery and Input Current Clamp for LiDAR

MAX40660

PRODUCTION

High-Bandwidth Automotive Transimpedance Amplifier with Fast Output Recovery and Input Current Clamp for LiDAR

LTC6561

RECOMMENDED FOR NEW DESIGNS

Four-Channel Multiplexed Transimpedance Amplifier with Output Multiplexing

LTC6560

RECOMMENDED FOR NEW DESIGNS

Single Channel Transimpedance Amplifier with Output Multiplexing

MAX40658

PRODUCTION

Transimpedance Amplifier with 100mA Input Current Clamp for LiDAR Applications

MAX40659

PRODUCTION

Transimpedance Amplifier with 100mA Input Current Clamp for LiDAR Applications

Analog Photodiode Wizard Design Tool

Use Photodiode Wizard to design a transimpedance amplifier circuit to interface with a photodiode. Select a photodiode from the library included in the tool, or enter custom photodiode specifications. Quickly observe tradeoffs between Bandwidth, Peaking (Q), and ENOB/SNR. Modify circuit parameters, and immediately see results in plots for pulse response, frequency response, and noise gain.

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