
What is hospital compressed air for?
Hospital compressed air systems are indispensable infrastructure in the medical environment. Their role runs through multiple core medical scenarios and can be divided into the following five application areas:
1. Power source for life support equipment
- ventilator dependent
In the ICU and emergency rooms, ventilators generate a controlled flow of compressed air to assist patients with respiratory failure in maintaining respiratory function. Its pressure stability requirements are extremely high, and once interrupted, may endanger life. - Anesthesia system support
The anesthesia machine requires compressed air to drive the anesthetic drug delivery system to ensure accurate and controllable drug concentration during the operation.
2. Medical equipment driving and control
- Power of surgical instruments
Tools such as pneumatic scalpels, bone drills, and suture guns rely on compressed air to operate efficiently. Especially in orthopedics and stomatology, their instantaneous dynamic response directly affects surgical efficiency. - Core functions of disinfection supply center
- Device drying: Use high-pressure air to purge residual water traces in the lumen to avoid secondary pollution after disinfection.
- Sterilization equipment drive: The valve and door body sealing of the high temperature pulse sterilizer requires compressed air control to ensure compliance of the sterilization process.
3. Guarantee of special medical environment
- Neonatal care
Premature infant incubators use compressed air to regulate oxygen concentration, simulate the maternal breathing environment and support lung development. - dental multipurpose therapy
Equipment such as pneumatic turbine phones and three-purpose air guns rely on clean compressed air to perform precise operations such as tooth surface drying and bonding.
4. System composition and quality control standards
- core components
- oil-free compressor: Avoid lubricating oil contamination and comply with ISO 8573-1 standards.
- multi-stage filtration: Pre-filtration intercepts large particles, and precision filter (0.01μm accuracy) ensures that microbial indicators meet the standards.
- drying treatment: Cold dryer + adsorption dryer are connected in series, with a pressure dew point below-46 ℃ to prevent moisture from breeding bacteria.
- National standard compliance
- oil content:<0.1mg/m³ (far exceeding industry standards).
- microbial: The total number of bacteria is less than 100CFU/m ³, which needs to be processed regularly through steam sterilization or ultraviolet light.
- particulate matter: Suspended particles ≤ 0.1 μ m require three-level filtration protection.
5. Safety emergency response and monitoring
- redundancy design
The dual compressors operate alternately to avoid single points of failure; the air storage tank provides emergency air volume to ensure ventilator life during a power outage. - real-time monitoring
Pressure, dew point, oil content and other parameters are monitored through the PLC control system, and automatic alarm and alternate air source are switched when abnormal.
summary: The hospital’s compressed air system supports the entire process of medical needs from first aid to disinfection by providing a clean and stable air source. Its design and quality control standards are much higher than those in industrial scenarios, which are directly related to the safety of patients ‘lives and are the key lifeline of the operation of modern hospitals.