The 8 MHz gain-bandwidth product sets the usable closed-loop bandwidth: at a gain of 10, the –3 dB point lands near 800 kHz, which is adequate for audio-band anti-aliasing filters or 100 kHz sensor loops. The 5 V/µs slew rate means a full 2 V peak-to-peak output swing can settle in about 400 ns without slew-induced distortion, so the part handles fast pulse signals like those from a photodiode transimpedance stage without significant waveform degradation.
Low quiescent current and input bias for power-sensitive, high-impedance inputs
Total supply current is 650 µA for all four channels — about 162.5 µA per amplifier — which keeps the power budget tight in battery-operated multi-channel data acquisition systems. The 2.5 pA input bias current is low enough that a 1 MΩ source impedance introduces only 2.5 µV of voltage error, so the part can buffer high-impedance sensors like pH probes or piezoelectric accelerometers without a separate JFET buffer stage.
250 µV input offset — DC accuracy without trimming
The 250 µV maximum input offset voltage defines the DC error floor. For a gain of 100, that offset appears as 25 mV at the output, which is acceptable for many general-purpose measurement channels but may require calibration or a chopper-stabilized amplifier if sub-millivolt precision is needed. The rail-to-rail output can swing within a few millivolts of the supply rails, preserving headroom in low-voltage single-supply designs.
Active lifecycle, but RoHS non-compliant — plan your BOM accordingly
This restricts its use in markets that enforce RoHS exemptions (e.g., most consumer electronics sold in the EU). It remains acceptable for military, aerospace, medical, and certain industrial applications where leaded finishes are still permitted or exempt. If your BOM requires RoHS compliance, you will need to select a lead-free variant such as the TLV2784IDR or similar.