Technical parameters of Roots blower 100
Roots blower 100 is a common model of Roots blower widely used in industries such as sewage treatment, pneumatic conveying, and vacuum packaging. Understanding the technical parameters of Roots blower 100 is of great significance for user selection and use. The following are the main technical parameters and detailed explanations of Roots blower 100.
1. * * Airflow * *: The airflow of Roots blower 100 is usually between 10-100 cubic meters per minute (m3/min), depending on the model and operating conditions. Airflow is the volume of gas transported by a Roots blower per unit time, and is one of the key parameters to consider when selecting.
2. * * Pressure *: The pressure range of Roots blower 100 is usually between 9.8-98 kilopascals (kPa). Pressure refers to the gas pressure that a Roots blower can generate, which directly affects the conveying capacity of the blower and the efficiency of the system.
3. * * Power * *: The motor power of Roots blower 100 is usually between 5.5-75 kilowatts (kW). Power is the electrical energy required for the operation of a Roots blower, and users should choose the appropriate power according to their actual needs to ensure that the blower can operate.
4. * * Speed *: The speed of Roots blower 100 is usually between 500-3000 revolutions per minute (rpm). Speed refers to the rotational speed of the rotor of a Roots blower, which directly affects the air volume and pressure of the blower.
5. * * Noise level * *: The noise level of Roots blower 100 is usually between 70-90 decibels (dB). Noise is the sound generated during the operation of a Roots blower. Users should choose a low-noise design Roots blower model according to their actual needs, or take sound insulation measures to reduce noise.
6. * * Cooling method * *: The cooling methods of Roots blower 100 usually include air cooling and water cooling. The air-cooled Roots blower uses a fan for heat dissipation and is suitable for general occasions; The water-cooled Roots blower dissipates heat through cooling water and is suitable for high-temperature applications.
7. * * Material * *: The material of Roots blower 100 usually includes cast iron, stainless steel, aluminum alloy, etc. Roots blowers made of cast iron have high strength and wear resistance, making them suitable for general industrial applications; Stainless steel Roots blowers have good corrosion resistance and are suitable for industries such as chemical and food; The Roots blower made of aluminum alloy material has a relatively light weight and good heat dissipation performance, making it suitable for occasions with high requirements for weight and heat dissipation.
8. * * Weight *: The weight of Roots blower 100 is usually between 100-1000 kilograms (kg). Weight refers to the overall weight of the Roots blower, and users should choose the appropriate weight based on installation conditions.
9. * * Drive mode * *: The drive mode of Roots blower 100 usually includes direct connection and belt transmission. The rotor of the direct coupled Roots blower is directly connected to the motor, with a compact structure and high transmission efficiency; The belt driven Roots blower transmits the power of the motor to the rotor through a belt and pulley, which is suitable for situations where the speed needs to be adjusted.
10. * * Structural Types * *: The structural types of Roots blower 100 typically include double blade Roots blower and triple blade Roots blower. The rotor of a double blade Roots blower has two blades, while the rotor of a three blade Roots blower has three blades. Due to the large number of blades, the three blade Roots blower produces less airflow pulsation and lower noise during operation, making it suitable for situations with high noise requirements.
In summary, the technical parameters of the Roots blower 100 cover multiple aspects such as air volume, pressure, power, speed, noise level, cooling method, material, weight, driving method, and structural type. When selecting Roots blower 100, users should consider these parameters comprehensively according to their actual needs to ensure that the blower can operate stably and meet the operational requirements of the system.
