Use any large signal chart that has abrupt changes in rise and fall slopes, including charts called by another name, such as “Overload Recovery”. If a chart with these conditions can not be found, use the chart with the largest input signal. When looking at the transient response, select the slowest slew rate section that is more than 100mV of V_ID. Taking into account the noise gain (NG) of the circuit, the slowest slew rate section for a NG of 11 is 1.1V and for a NG of 1 the V_ID is 100mV. As shown in Figure 4-1 and Figure 4-2, the green ovals are the slowest slew rate with full V_ID. In both waveforms there is initially a faster slew rate. This initial increased slew rate can be caused by slew boost or internal parasitic capacitive feed-through. Typically, small rises come from capacitive feed-through and large rise come from slew boost. For the TLV9001 waveform, the selected area (SR) is 0.6V/µs, which is less than half of the data sheet slew rate of 2V/µs. Based on this information, slew boost is present in the TLV9001. For the LMV831 waveform, the selected area (SR) is 2.2V/µs rising and 1.8V/µs falling SR, which is close to the data sheet slew rate of 2V/µs; therefore, so no boost is expected.