1. Conclusion on LMV934MAX/NOPB as a Substitute From a core functionality and package perspective, the LMV934 can serve as a functional replacement, but key performance differences exist. Compared to the TSV854, the LMV934 offers superior DC precision (input bias current of 14nA vs. 27nA, input offset voltage of 1mV vs. 4mV), lower quiescent current per channel (116µA vs. 130µA), and a wider power supply lower limit (1.8V vs. 2.5V). These characteristics give it an advantage in low-power, single-supply applications and scenarios demanding high accuracy. However, its slew rate (0.42V/µs) is significantly lower than that of the original part (0.7V/µs). When processing rapidly changing signals, the LMV934's output response will be slower and may fail to meet the dynamic performance requirements of the original design. Most critically, the LMV934 lacks AEC-Q100 automotive-grade qualification, making it entirely unsuitable for any application requiring automotive-grade reliability. 2. Conclusion on ISL28413FBZ-T7 as a Substitute The ISL28413 surpasses the original part in several key performance parameters, representing a high-performance alternative. It offers significant advantages over the TSV854 in speed (slew rate of 1V/µs, gain bandwidth product of 2MHz), DC precision (input bias current of 3pA, input offset voltage of 500µV), and power consumption (quiescent current per channel of 90µA), while also supporting a lower supply voltage (from 1.8V). The ISL28413 can provide faster signal processing, higher measurement accuracy, and lower system power dissipation. Its primary limitation, however, is its output drive capability (22mA), which is far lower than the original part's 70mA. It cannot drive equivalent loads and may cause malfunction or damage in the original design when driving relays, LED arrays, or heavy capacitive loads. Furthermore, it also lacks AEC-Q100 certification and is not viable for automotive applications.