Healthcare

Biochemical analyzers require precise control over their mechanical movements to ensure accurate sample handling and analysis. The Y07-20D1-1002-01GZ-100 stepper motor features a stepping angle of 1.8°, allowing for fine resolution and precise step control. With a step length of just 0.005mm, this motor can achieve very small increments in movement, making it ideal for applications that require high precision. This level of accuracy is crucial for tasks such as positioning sample containers, adjusting reagent dispensers, and moving optical components.

The Y07-20D1-1002-01GZ-100 motor is designed to handle the rigorous demands of automated biochemical analysis. It operates at a rated voltage of 24V DC and a rated current of 0.6A, which provides the necessary power for smooth and reliable operation. The motor’s inductance of 3±20% mH and resistance of 9±15% Ω contribute to its stable performance, ensuring consistent motion and minimal electrical noise. Additionally, the holding torque of 22mN.m ensures that the motor can maintain its position under load, which is vital for maintaining the accuracy of the analyzer's movements.

In a laboratory setting, equipment must endure frequent use and varying environmental conditions. The Y07-20D1-1002-01GZ-100 stepper motor is built with durability in mind, featuring Class B insulation and an insulation resistance of 100MΩmin (500V DC). This construction ensures that the motor can withstand prolonged operation and exposure to potential contaminants or varying temperatures. The motor's weight of approximately 180g reflects its robust design, contributing to its long-term reliability in demanding applications.

The motor's ability to deliver precise control and smooth operation is essential for the accurate performance of biochemical analyzers. The small step length of 0.005mm allows for fine adjustments in mechanical positioning, which is critical for operations such as pipetting, sample transfer, and calibration. The motor's moment of inertia of about 3g.cm² ensures that it responds quickly to control signals and maintains stability during operation, reducing the likelihood of errors and improving overall system performance.