Pressure at the point of use is the target
A 125, 160 or 217 psi package should be selected from actual process pressure plus verified downstream losses—not from a default high setpoint.
A compact 7.5–15 hp compressed-air station combining an SM rotary screw compressor, ABT 15 refrigerated dryer and 71.3-gallon receiver in one ready-to-run package, keeping compression, drying, storage and machine control together.
Growing production facilities can benefit from one compact station instead of separate compressor, dryer and receiver installations.
Single-stage fluid-injected SM screw compression, integrated ABT 15 refrigerated drying, a 71.3-gallon receiver and SIGMA CONTROL 2 operate as one coordinated package.
Integrated packaging reduces installation complexity while retaining service-oriented access, automatic control and a straightforward route to optional filtration or broader system control.
The actual system problem
The SM AIRCENTER puts compression, refrigerated drying and receiver storage in one package, but correct pressure, actual demand, filtration, distribution loss and redundancy still determine whether production receives the air it needs.
A 125, 160 or 217 psi package should be selected from actual process pressure plus verified downstream losses—not from a default high setpoint.
The integrated ABT 15 dryer reduces moisture before air enters the distribution system, helping protect equipment from condensate-related problems.
The 71.3-gallon receiver provides local storage, but continuous capacity still has to match real plant demand.
Compressor, dryer and receiver arrive as one coordinated station instead of three separately interconnected major components.
Application fit
AIRCENTER SM is strongest where fixed-speed capacity matches the load profile and an integrated dryer/receiver package is valuable.
SM 7.5, 10 and 15 provide an integrated compressor, dryer and receiver package for growing industrial air demand.
A stable group of CNCs, clamps, assembly equipment and other pneumatic users can fit the fixed-speed SM package when actual demand is documented.
The integrated refrigerated dryer and receiver make SM useful where moisture control and local storage are needed in the same equipment footprint.
The ABT 15 is a refrigerated dryer. Cold outdoor piping or very dry process requirements may require desiccant or another drying route.
A single SM package does not create redundancy. Critical operations should engineer storage, standby capacity and sequencing around the production risk.
Select from demand backwards
Pressure-specific complete-system flow is defined at 125, 160 and 217 psi. Model selection starts with usable air demand at the required pressure—not horsepower alone.
Establish average, peak and minimum air consumption, operating hours and expected growth.
Start with the lowest required production pressure and add verified losses through treatment and piping.
Confirm whether 37 °F refrigerated-dryer PDP is sufficient and whether filtration must address particles or oil.
Use the 71.3-gallon receiver with peak duration and acceptable pressure swing to understand useful stored air.
Verify that fixed-speed SM operation matches the documented demand profile, including average, peak and minimum consumption.
Product architecture
AIRCENTER SM combines a ready-to-run, fully automatic single-stage fluid-injected compressor, integrated dryer in a separate housing, dual-flow cooling, industrial motor platform and SIGMA CONTROL 2.
Single-stage compression with cooling-fluid injection uses KAESER SIGMA PROFILE rotors for the SM AIRCENTER platform.
The SM AIRCENTER family uses Premium Efficiency IE3 / Super Premium Efficiency IE4 motor construction, with exact motor class tied to the selected configuration.
SM 7.5, 10 and 15 use the ABT 15 refrigerated dryer in a separate housing.
SM 7.5, 10 and 15 use a 71.3-gallon integrated receiver.
Technical framework
Use the model-specific complete-system flow at the required working pressure when sizing the package.
| Model | Working pressure | Complete-system flow | Motor | Dryer | Receiver | Dimensions W×D×H | Connection | Sound | Weight |
|---|---|---|---|---|---|---|---|---|---|
| AIRCENTER SM 7.5 | 125 / 160 / 217 psi | 32 / 26 / 19 acfm | 7.5 hp | ABT 15 | 71.3 gal | 25 × 48 × 68 in | ¾ NPT | 65 dB(A) | 926 lb |
| AIRCENTER SM 10 | 125 / 160 / 217 psi | 45 / 37 / 28 acfm | 10 hp | ABT 15 | 71.3 gal | 25 × 48 × 68 in | ¾ NPT | 67 dB(A) | 970 lb |
| AIRCENTER SM 15 | 125 / 160 / 217 psi | 55 / 47 / 37 acfm | 15 hp | ABT 15 | 71.3 gal | 25 × 48 × 68 in | ¾ NPT | 68 dB(A) | 970 lb |
ABT 15 dryer data: 37 °F pressure dew point, R-513A refrigerant and hermetic refrigeration circuit. Electrical supply, total package input power, branch protection, filtration and installation airflow remain configuration items.
Efficiency strategy
SM combines SIGMA PROFILE compression, dual-flow cooling and cycling dryer control. The system result still depends on correct pressure selection, realistic demand measurement, limited distribution loss and choosing fixed speed only where the load profile supports it.
SIGMA PROFILE rotors are designed to require approximately 10–20% less energy than conventional rotors of the same air-delivery capacity. Facility performance still depends on pressure, demand and system conditions.
SM uses single-stage compression with cooling-fluid injection for rotor cooling.
Separate airflow paths support the motor, compressed-air/fluid cooler and control cabinet, helping manage thermal load in the compact package.
The integrated refrigeration dryer can shut down with the inactive compressor and can alternatively be set to continuous operation on site.
Do not select 160 or 217 psi unless the application needs it after downstream loss is included. Excess pressure can increase operating cost and artificial demand.
SIGMA CONTROL 2
SIGMA CONTROL 2 provides automatic monitoring and control, Ethernet, data logging, RFID and optional industrial communications modules.
Traffic-light LEDs and the display provide quick package status and operating information.
Dual, Quadro, Vario and Continuous modes are available as operating-control modes.
The SD card slot supports logging and updates while the integrated web server provides browser-based access on the configured network.
Ethernet is standard; optional Profibus DP, Modbus, Profinet and DeviceNet modules are available for system integration.
Air quality and moisture control
The integrated dryer is at a 37 °F pressure dew point. That is useful for many indoor plant-air applications but does not automatically establish particle or oil classes.
Use the 37 °F PDP as the refrigerated-dryer reference and compare it with downstream temperature and process sensitivity.
Add filtration based on actual cleanliness requirements rather than assuming the dryer removes particles.
The SM is fluid-injected. Sensitive applications require a defined filter/adsorber train and acceptance criterion.
The dryer uses electronically controlled condensate drainage. Site collection and treatment still belong in the installation scope.
If downstream piping sees temperatures around or below refrigerated-dryer dew point, qualify a lower-dew-point strategy.
For finishing, food, instrumentation or other sensitive users, define the required ISO 8573-1 result before selecting filtration.
Ownership playbook
The ready-to-run station uses a separate dryer housing, coordinated cooling, automatic belt tensioning and service-friendly access for disciplined long-term ownership.
Do not use the small footprint as permission to block panel access, cooler inspection or routine service points.
The package relies on dual-flow cooling and a defined ambient envelope. Final ventilation requirements belong to KAESER installation documentation.
Receiver and dryer condensate should discharge into an approved treatment/collection path appropriate to the site.
Alarms, status and maintenance information should be part of routine ownership—not reviewed only after compressed-air interruption.
System integration sequence
The package reduces component interconnection work, but a successful compressed-air system still depends on the application, distribution network and site conditions.
Document average, peak and minimum demand, production schedule and pressure-sensitive users.
Choose SM 7.5, 10 or 15 and its pressure version from required complete-system acfm.
Close electrical service, ventilation, filtration, condensate, distribution, redundancy and service-access requirements.
Verify package pressure, dryer performance, controller behavior and point-of-use pressure under representative demand.
Track maintenance, pressure, air quality and demand growth so the package remains properly matched.
Deployment configurations
Primary station, decentralized source or part of a controlled multi-compressor system—the role determines redundancy, filtration, piping and control strategy.
Use the SM package as the main compressed-air source when measured demand and redundancy expectations fit the 7.5–15 hp range.
Place an SM station near a dedicated production area when it reduces long distribution runs or isolates a local demand cluster.
Add SM capacity to an existing system only with coordinated pressure bands and controls so multiple compressors do not fight one another.
A second coordinated unit can support redundancy when storage, isolation and sequencing are intentionally engineered.
Optional filtration can be added to match the actual process purity requirement.
Use the packaged SM architecture where integrated compression, refrigerated drying and 71.3-gallon receiver storage simplify the installation.
Business-case framework
Integrated drying and storage can reduce installation scope, but the real economics include energy, pressure, piping, filtration, maintenance, downtime risk and air-quality failures.
Compare the AIRCENTER with the real installed cost of separate compressor, dryer, receiver, drains, piping and controls.
Use actual loaded/unloaded hours and the selected pressure version. Do not assign a generic annual savings percentage.
Evaluate unnecessary pressure and distribution loss using the facility’s actual demand and process requirements.
If losing compressed air stops production, include redundancy, storage and service response in the investment case.
Application data package
SM model selection becomes straightforward once air consumption, pressure, air quality and site conditions are documented. When consumption is uncertain, measured demand is better than simply replacing the old horsepower size.
Average, peak and minimum flow; operating hours; major air users; future production growth.
Point-of-use pressure, setpoint, measured pressure loss and the most pressure-sensitive equipment.
Required PDP, particle/oil sensitivity, existing filtration and any formal ISO 8573-1 target.
Electrical service, room dimensions, ambient, ventilation, condensate route, piping and service-access constraints.
AIRCENTER SM FAQ
Use the pressure-specific model data to qualify capacity, then close site utilities, treatment and system role.
AIRCENTER SM 7.5, AIRCENTER SM 10 and AIRCENTER SM 15.
The model table lists 19–55 acfm across the three models and their 125, 160 and 217 psi versions.
All three SM AIRCENTER models are listed with a 71.3-gallon receiver.
The model table lists ABT 15 on SM 7.5, SM 10 and SM 15 AIRCENTER packages.
The ABT 15 provides a 37 °F pressure dew point.
No. Refrigerated drying addresses moisture. Particles and oil require the correct treatment train and operating conditions.
AIRCENTER SM uses SIGMA CONTROL 2.
Electrical configuration, total input power, protection, ventilation, filtration, networking, service clearances and commissioning conditions are finalized for the selected site.
AIRCENTER SM application review
Titan can qualify the AIRCENTER SM around measured or estimated air consumption, point-of-use pressure, shift profile, dryer requirement, receiver role, electrical service, filtration, room conditions and production growth.
Useful inputs: compressor model, cfm/acfm demand, required pressure, shift hours, major pneumatic equipment, air-quality requirement, existing storage/treatment, piping size, electrical service, room dimensions, ambient, ventilation and redundancy needs.