Technical Specifications
Operating Principle
In centrifugal blower systems, air is drawn into the center through the suction inlet, where it gains kinetic energy via a rotating impeller and is directed radially outward by centrifugal force.
Inside the volute casing, kinetic energy is converted into pressure energy, and the air is delivered to the system outlet line.
With this operating principle:
- continuous airflow
- controlled pressure
- stable flow rate
- high efficiency
are achieved.
Technical Specifications
Operating Type
- Radial (Centrifugal)
Flow Rate Range
- 200 m³/h – 100,000 m³/h
Pressure Range
- 100 mmSS – 3,000 mmSS
Static Pressure
- 1,000 – 30,000 Pa
- (depending on model)
Motor Power
- 0.25 kW – 25 kW
Speed Range
- 750 – 3,000 rpm
Efficiency
- 60% – 85%
- (depending on impeller type)
Operating Temperature
- -20°C / +400°C
- (higher in special designs)
Drive Type
- Direct coupled
- Belt and pulley systems
Impeller Types
- Forward Curved Impeller
- High flow
- Low pressure applications
Backward Curved Impeller
- High efficiency
- Energy saving
- Medium and high pressure applications
Radial Blade Impeller
- Dusty and particle-laden air
- Heavy industrial applications
Advantages
- High-efficiency impeller design
- Low-vibration balanced rotor
- Heavy-duty bearing system
- Special temperature and wear-resistant solutions
- Energy-efficient motor options
- Long service life
- Project-based custom manufacturing capability
Design & Material
Centrifugal blower systems are designed with different casing and impeller options depending on operating temperature, pressure, particle content, and process requirements.
Housing Materials
- Carbon steel
- Galvanized steel
- AISI 304 / 316 stainless steel
Impeller
- Laser-cut steel
- Special wear-plate design
- High-temperature steel
Shaft
- Alloy steel
Bearing System
- Heavy-duty bearing assembly
In high-temperature and abrasive environments:
- special coating
- wear protection
- refractory applications
can be implemented.
In blower selection;
- required flow rate,
- static pressure,
- air temperature,
- dust and particle content,
- operating time,
- noise level,
- motor efficiency class,
- ATEX requirements
must be taken into consideration. Incorrect capacity selection may cause high energy consumption and system inefficiency.
Applications
Cement & Mining
- Dust collection systems
- Furnace air supply
Iron & Steel
- Combustion air systems
- Cooling air applications
Treatment Plants
- Ventilation systems
Food & Textile
- Drying systems
- Air circulation
Power Plants
- Boiler air supply
- Flue gas extraction systems
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