1. Operating & Sensing Temperature Range: The LM95235 supports both local/remote sensing and a full chip operating range down to -40°C, whereas the ADM1032 has a lower limit of 0°C. The ADM1032 cannot measure or operate reliably in sub-zero environments, restricting its use in industrial, automotive, or any applications that may encounter low ambient temperatures. 2. Resolution & Quantization Error: The LM95235 offers 10-bit (local) and 12-bit (remote) resolution, substantially higher than the 7-bit resolution of the ADM1032. Over the same 0-100°C range, the ADM1032’s minimum resolvable temperature step is approximately 0.8°C, compared to 0.025°C for the LM95235’s remote channel. Higher resolution enables detection of finer temperature gradients, which is critical for systems requiring precise thermal monitoring or fast response, such as CPU dynamic thermal management. 3. Accuracy & Error: The LM95235 achieves a maximum accuracy of ±2°C within the 25°C–100°C range, with specified accuracy variations across different temperature intervals. The ADM1032 is rated at ±3°C without segmented specifications. This indicates that the LM95235 provides higher absolute temperature measurement accuracy in the core operating region, and the manufacturer supplies a more detailed error part, facilitating more accurate thermal design margin calculations. 4. Supply Voltage Range & Integrated Features: The ADM1032 has a wider supply range (3V–5.5V), offering better compatibility. However, the LM95235 integrates two functions not available on the ADM1032: One-Shot conversion and Shutdown Mode. In applications requiring very low power intermittent measurements, the LM95235 can execute a single conversion on command and then enter shutdown, enabling a more efficient power management strategy.