DVIA-ML Series

The output of the GS-ONE is amplified using a specialized sensor amplifier board circuit that increases the gain specifically at low frequencies. This amplification ensures that the small low-frequency signals are more detectable and usable. In addition to this hardware-based amplification, a digital filter is applied to further enhance the signal. This filter is designed to boost the gain at low frequencies, correcting any attenuation that might otherwise occur. As a result of these hardware and software corrections, the GS-ONE output becomes effective for detecting and processing vibrations as low as around 0.3 Hz. This ensures that even low-frequency vibrations are captured accurately, enabling the active vibration isolation system to function optimally even at those frequencies. This elaboration emphasizes how both hardware (amplifier circuit) and software (digital filter) work together to enhance the low-frequency performance of the GS-ONE sensor. The advanced sensor amplifier board amplifies the gains of the velocity sensors at low frequencies, and the digital filter corrects these gains to effectively capture vibration signals down to approximately 0.3 Hz. This enables exceptional vibration isolation performance at 1 Hz

The DVIA-ML series is engineered to maintain an exceptionally low magnetic field of less than 0.05μT, which is crucial for preventing interference with the highly sensitive electron microscopes. Electron microscopes, particularly high-resolution models, are extremely sensitive to magnetic fields, as even small fluctuations can distort the electron beam and affect image clarity. By minimizing the magnetic field to such a low level, the DVIA-ML series ensures that electron microscopes can operate without the risk of magnetic interference, allowing for more precise and accurate imaging and measurements. This is particularly important for applications requiring nanometer or sub-nanometer resolution, where even minor disturbances can result in significant data inaccuracies.