ADP900
The ADP900 digital differential pressure sensor features high precision and fast response, making it suitable for a variety of industrial and commercial applications. Its wide measurement range and stable performance make it an ideal choice for monitoring air pressure changes. With an operating voltage of 3.2—5.3V, it ensures stable operation in different working environments.
| Operating Voltage | 3.2-5.3V |
| Zero Point Accuracy | 0.3Pa |
Measurement Range | -500~+500Pa |
| Precision | Readings × 3% |
| Response Time | 10ms |
1. Medical Respiratory Equipment
(1) In medical respiratory equipment, the ADP900 digital differential pressure sensor is used to accurately measure and regulate airflow, ensuring patients receive the right amount of oxygen.
(2) This sensor can monitor pressure changes within ventilators in real-time, providing rapid feedback to help medical staff adjust device settings promptly.
(3) Its wide measurement range and stable performance make it excellent in demanding medical environments, enhancing treatment outcomes and ensuring patient safety.
2. HVAC Systems
(1) In heating, ventilation, and air conditioning (HVAC) systems, the ADP900 digital differential pressure sensor is used to monitor and control airflow, maintaining optimal indoor climates.
(2) This sensor accurately detects pressure changes within ventilation ducts, ensuring efficient system operation.
(3) With real-time feedback, HVAC systems can adjust airflow and temperature as needed, enhancing energy efficiency, providing comfortable living or working environments, and reducing energy consumption and operating costs.
3. Laboratory Equipment
(1) The ADP900 digital differential pressure sensor is widely used in laboratory equipment to precisely control air pressure in experimental environments.
(2) Whether maintaining sterile conditions in biological experiments or controlling reaction conditions in chemical experiments, this sensor provides reliable data support.
(3) Its fast response and high precision allow for real-time monitoring and adjustment of experimental conditions, ensuring the accuracy and reproducibility of results, thereby enhancing research efficiency and quality of outcomes.
The ADP900 digital differential pressure sensor features high precision and fast response, making it suitable for a variety of industrial and commercial applications. Its wide measurement range and stable performance make it an ideal choice for monitoring air pressure changes. With an operating voltage of 3.2—5.3V, it ensures stable operation in different working environments.
| Operating Voltage | 3.2-5.3V |
| Zero Point Accuracy | 0.3Pa |
Measurement Range | -500~+500Pa |
| Precision | Readings × 3% |
| Response Time | 10ms |
1. Medical Respiratory Equipment
(1) In medical respiratory equipment, the ADP900 digital differential pressure sensor is used to accurately measure and regulate airflow, ensuring patients receive the right amount of oxygen.
(2) This sensor can monitor pressure changes within ventilators in real-time, providing rapid feedback to help medical staff adjust device settings promptly.
(3) Its wide measurement range and stable performance make it excellent in demanding medical environments, enhancing treatment outcomes and ensuring patient safety.
2. HVAC Systems
(1) In heating, ventilation, and air conditioning (HVAC) systems, the ADP900 digital differential pressure sensor is used to monitor and control airflow, maintaining optimal indoor climates.
(2) This sensor accurately detects pressure changes within ventilation ducts, ensuring efficient system operation.
(3) With real-time feedback, HVAC systems can adjust airflow and temperature as needed, enhancing energy efficiency, providing comfortable living or working environments, and reducing energy consumption and operating costs.
3. Laboratory Equipment
(1) The ADP900 digital differential pressure sensor is widely used in laboratory equipment to precisely control air pressure in experimental environments.
(2) Whether maintaining sterile conditions in biological experiments or controlling reaction conditions in chemical experiments, this sensor provides reliable data support.
(3) Its fast response and high precision allow for real-time monitoring and adjustment of experimental conditions, ensuring the accuracy and reproducibility of results, thereby enhancing research efficiency and quality of outcomes.
