Applicable to CT scanners, ultrasound diagnostic machines, magnetic resonance imaging (MRI) devices, in vitro diagnostic (IVD) analyzers, defibrillators and laser therapeutic instruments. These circuits support high-precision signal transmission, ultra-low noise interference and stable operation in a temperature range of 0℃~70℃. With excellent electrical isolation and biocompatibility, they ensure accurate collection and transmission of diagnostic data, safe delivery of therapeutic energy and 24/7 uninterrupted operation, fully complying with global medical safety regulations and standards.
Adopt high-frequency low-loss circuit design to minimize signal attenuation and improve diagnostic accuracy; implement strict isolation of signal, power and ground lines to suppress electromagnetic interference (EMI) and ensure signal integrity; integrate comprehensive safety protection functions including over-voltage, over-current, over-temperature, short-circuit and leakage protection; use medical-grade biocompatible materials and sealed packaging to avoid allergic or irritating reactions during human contact; optimize signal conditioning technology to capture weak physiological signals with high precision.
Imaging diagnostic equipment (CT, ultrasound, MRI) for clear imaging of internal human structures and accurate disease diagnosis; in vitro diagnostic (IVD) analyzers for rapid and precise detection of blood, urine and other physiological indicators; therapeutic devices (defibrillators, laser therapy instruments) for emergency life rescue and targeted treatment of diseases; minimally invasive surgical instruments for reducing surgical trauma and improving treatment outcomes.
Medical-grade certification (ISO 13485, FDA) has extremely strict testing standards and long verification cycles, leading to high R&D costs; weak physiological signals are highly susceptible to external interference, requiring high-precision anti-interference design and complex debugging; circuits in direct contact with the human body must meet rigorous biocompatibility standards, increasing material and process costs; long-term high-load operation demands extreme reliability, making long-term stability verification and life cycle testing extremely challenging.