Microfabricated mechanical resonators make it possible to measure quantum programs developed from microscopy of atomic force of precision technology. Physical sensation based on resonant frequency combines high accuracy with long-lasting stability. However, Si is widely used3N.4 Resonators experience frequency sensitivity to temperature due to differential thermal expansion as a Si substrate. Here we experimentally demonstrate the temperature and residual stress-sensitive 16.51 MHz fork nanoparticle resonance with non-linear clamps that determine stress and frequency by design, achieving low-frequency frequency sensitivity (2.5 ± 0.8) × 10–6 K.–1, Reduction 72. Oncological optical reading of resonator thermomechanical oscillations allows precision measurement without precision measurement, without any external excitation, with thermodynamically limited frequency, Alan deviation1/2 And (relative) bias with stability up to ≈10 Hz (≈ 0.6 × 10).–6) Average above 1, especially with modern push devices of similar mass. Stabilizing the resonator and removing the passive frequency can take advantage of a variety of micromechanical sensors.