Everest Sanitation (India)

A Everest Battery-operated Turbine flow meter is a type of flow meter that uses a turbine rotor to measure the flow rate of liquids. 

End Connections:-

• Flange End
• Screw End
• Triclover Clamp End

Working:-

1. Turbine Rotor: The flow of liquid causes the turbine rotor to spin.
2. Sensor: A sensor detects the spinning of the rotor.
3. Electronic Signal: Each rotation of the turbine generates a signal that is proportional to the flow rate.
4. Battery Power: The flow meter is powered by an internal battery, which is replaceable.
5. Output: The flow rate data is displayed locally on the meter or transmitted to a remote location via wired or wireless communication.

Advantages:

• Portability: Can be easily moved or installed in remote locations.
• Ease of Installation: Generally easier to install compared to meters that require wiring for external power.
• Flexibility: Suitable for a wide range of liquid flow measurements in various industries including water treatment, chemicals, and oil and gas.

Applications:

• Measuring flow rates in remote agricultural locations.
• Monitoring flow in mobile fueling stations.
• Checking flow rates in temporary setups or during field operations.

Overall, a battery-operated turbine flow meter provides a versatile solution for measuring liquid flow rates in situations where external power sources are limited or unavailable.

Everest Turbine-type oil flow meter is a specific kind of flow meter that measures the flow rate of oil using a rotating turbine mechanism. These meters are commonly used for applications requiring high accuracy and reliability, especially when dealing with clean, low-viscosity fluids like turbine oil.

How a Turbine-Type Oil Flow Meter Works:

1. Flow Mechanism:
   • The oil passes through the flow meter, causing the turbine rotor inside to spin.
   • The rotational speed of the turbine is directly proportional to the flow rate of the oil.
2. Sensing:
   • Magnetic or optical sensors detect the rotational speed of the turbine.
   • The detected speed is converted into a flow rate (e.g., liters per minute or gallons per minute) using calibration data.
3. Output:
   • The flow rate can be displayed on an onboard digital or analog readout.
   • Outputs may also include electronic signals (e.g., 4-20 mA or pulse signals) for integration with control systems.

Key Features:

• High Accuracy: ±0.5% to ±1% of the reading.
• Repeatability: Excellent repeatability ensures consistent measurements.
• Wide Flow Range: Suitable for various flow rates depending on the turbine and meter size.
• Low Pressure Drop: Ensures minimal resistance to oil flow within the system.
• Durability: Constructed with materials like stainless steel, making them robust and compatible with turbine oil.

Advantages:

• Compact and lightweight design.
• High reliability with minimal maintenance requirements.
• Suitable for high-pressure systems.
• Provides real-time flow data for process optimization.

Applications:

• Power Plants: Monitoring the flow of lubrication oil in gas or steam turbines.
• Hydraulics: Measuring hydraulic oil in industrial systems.
• Aerospace: Tracking lubrication in aircraft systems.
• Petrochemical and Refineries: Monitoring process oils.

Limitations:

• Not ideal for highly viscous or contaminated oils, as particles can interfere with the turbine mechanism.
• May require periodic calibration for maintaining accuracy.

 

Everest Diesel flow meter is a device specifically designed to measure the flow rate of diesel fuel in various applications, such as fueling stations, diesel generators, and fuel transportation systems. These meters are engineered to handle the specific properties of diesel, including its viscosity, density, and chemical composition.

Working of Flow Meters:

1.  
   • Utilize a spinning turbine to measure flow.
   • Ideal for clean diesel with a steady flow rate.
   • Accurate and reliable for applications like fuel dispensing.

Features

• Accuracy: Diesel flow meters typically offer accuracies ranging from ±0.2% to ±1.0% of the reading.
• Flow Rate Range: Ensure the meter matches the expected diesel flow range (e.g., liters per minute or gallons per hour).
• Material Compatibility: Should be made from materials resistant to diesel's chemical properties, such as stainless steel or durable plastics.
• Pressure and Temperature Ratings: Must withstand the conditions of the specific application.
• Output Options: Digital readouts, pulse outputs, or analog signals for integration with monitoring systems.
• Power Source: Options include battery-powered, AC, or DC units.

Applications

1. Fuel Dispensing Stations: To measure diesel dispensed to vehicles.
2. Industrial Equipment: Monitoring fuel usage in diesel generators or machinery.
3. Logistics: Tracking fuel consumption in transportation fleets.
4. Marine and Aviation: Measuring diesel fuel flow for ships and aircraft.
5. Oil and Gas Industry: Monitoring fuel flow in processing and storage facilities.

Installation Considerations

• Ensure proper alignment and orientation of the meter to avoid errors.
• Use filters upstream to prevent debris from damaging the meter.
• Perform regular calibration to maintain accuracy.

Description:

• A turbine flow meter is constructed with rotor and blades that use the mechanical energy of the fluid to rotate the rotor in the flow stream. Blades on the rotor are angled to transform energy from the flow stream into rotational energy. The rotor shaft spins on bearings: when the fluid moves faster, the rotor spins proportionally faster. Shaft rotation can be sensed mechanically or by detecting the movement of the rotor blades.
• Rotor movement is often detected magnetically, where movement of the rotor generates a pulse. When the fluid moves faster, more pulses are generated. Turbine flow meter sensors detecting the pulse are typically located external to the flowing stream to avoid material of construction constraints that would result if wetted sensors were used. The RPM of the turbine wheel is directly proportional to the mean flow velocity within the tube diameter and corresponds to the volume flow over a wide range.