Dual op-amp for 3.3V and 5V rails, AEC-Q100 qualified
Each of the two channels consumes 500 µA of supply current, making it a reasonable fit for battery-powered or thermally constrained boards where you need two op-amps in one 8-SOIC footprint.
Package and mounting
With a 5.6 MHz gain-bandwidth product, this part handles audio-band filtering, sensor signal conditioning up to a few hundred kHz, and general-purpose control loops without breaking a sweat. The 2 V/µs slew rate is enough to reproduce a 1 V peak-to-peak sine wave cleanly up to about 300 kHz — beyond that, expect some slew-induced distortion. For a dual op-amp pulling 500 µA per channel, those numbers are a solid trade-off between speed and power. If your design needs faster edge rates, you'd step up to something like a 20 V/µs part, but you'll pay in supply current.
The 2.5 V minimum supply means this op-amp works on a 3.3 V rail with margin below the dropout of a typical LDO, and the 5.5 V maximum covers 5 V ±10% systems.
Input offset and bias — what to expect for precision work
Input offset voltage is specified at 1 mV, and input bias current at 40 nA. For a general-purpose bipolar op-amp, those are typical numbers — fine for signal chains where you can tolerate a few millivolts of DC error and the source impedance is under 10 kΩ. If you need sub-millivolt offset or picoamp bias, you'd look at a CMOS-input precision amplifier, but the LMV822M-NS covers the broad middle ground without the cost premium.
For those, you'd need the extended-temperature variant in the same series.
Lifecycle and sourcing — active, RoHS non-compliant
For RoHS-required builds, verify your exemption or look at the lead-free suffix variants in the LMV822 family.