Air Management System
As much as 80% of the electrical energy consumed by air compressors is lost as heat or leaks. SMC’s Air Management System is the smart light switch for industrial pneumatics: tracking consumption, eliminating off-hour waste, and slashing air energy costs by 20%.
It acts as a digital energy manager for compressed air, “turning off the lights” and stopping money from leaking out of the building when workers are idle. If your compressor costs $25,000 a year to run without an AMS, a 20% energy savings returns $5,000 to your company's coffers in the first year alone. Every year after that is profit. Additionally, you meet your regional ESG compliance targets without adding staff.
From Raw Pneumatics to Real-Time Plant Intelligence
Your air compressor generates the raw compressed air for the plant.
The SMC Air Management System sits between the compressed air line and the machine as a smart gatekeeper. It regulates pressure, monitors air flow/temperature, and automatically lowers or shuts off air pressure when the machine is idle, enhancing efficiency during periods of inactivity.
CONSTANT COMPRESSED AIR PRESSURE, FLOW & TEMPERATURE MEASUREMENT |
||
| Smart Air & Energy Control | IIoT & Connectivity | Industrial Hardware Specs |
|
|
|
The AMS does not require reprogramming the user's PLC to operate, making integration both simple and cost effective. The high-resolution data is accessed by the PLC via fieldbus and SCADA packages via OPC UA.
The Air Management System is available in two basic configurations that vary by the standby regulator used. The A type utilizes the electro-pneumatic regulator while the B type uses the manual type standby regulator. Both types include an isolation valve and can be configured as remotes or as fieldbus connected bases. The hubs have an extra IO link port for connection to additional devices that can communicate through the system.
Video Demonstration of SMC’s Air Management System
The video below demonstrates how the AMC intelligently addresses the common, costly problem of wasted compressed air in manufacturing facilities. It shows how the system senses when production stops and automatically switches to standby mode, dropping the air pressure to the lowest required level. This action can cut a machine's air consumption by 50% which translates to reduced energy costs, greater energy efficiency, and lower CO2 emissions.
Beyond automated energy savings, the video highlights the AMC’s robust visualization and scalability features. Users can monitor real-time data for air pressure, flow, and temperature; keeping tabs on equipment status from both inside and outside the factory. Up to 10 remote units can connect securely via encryption to a single base hub up to 100 meters away, simplifying equipment layout and further reducing CO2 emissions associated with wiring work.
Visualization of Production Equipment Status (Diagram)
- Flow, pressure, temperature, and pressure sensor information can be communicated to the host system via Industrial Ethernet or the UA data communication protocol.
- Equipment status can be monitored and optimized from another location or from outside the office.
- Monitors the machine standby conditions (when production stops) and automatically decreases the pressure.
Compatibility with SMC Wireless Systems
- No communication cable required between the base and the remote.
- Reduced wiring work, base, and cost
- Minimized disconnection risk
- AMC system (maximum 10) or compact wireless (maximum 15) remotes can be connected.
How Does It Work?
In an integrated compressed air system, air dryers, air tanks, and valve manifolds work sequentially to stabilize system pressure and deliver reliable, efficient pneumatic power. Upstream air dryers strip out moisture and contaminants to protect sensors and downstream equipment from corrosion. The air then flows into air tanks, which act as pressure buffers to smooth out line pulsation, store reserve energy, and prevent sudden pressure drops during peak machine demand. Together, this setup ensures air dryers run under reduced load during machine idle times, air tanks maintain stable network pressure, and valve manifolds receive clean, regulated air with full visibility into downstream leaks.






