Product Overview

The ZZYS30 vortex flowmeter is an advanced velocity flow instrument designed for a plethora of applications.
This versatile device is perfect for measuring, monitoring, and managing the flow of liquids, steam, and most gases.
Engineered with an innovative structure, it boasts exceptional resistance to mechanical vibrations, impacts, and contamination.
Featuring no moving parts, it guarantees no wear and tear, eliminating the need for mechanical maintenance. Experience low pressure loss, stable performance, and unparalleled accuracy.
Installation is a breeze, with the flexibility to match the sensor and signal converter as needed.

Product features:

Broad application range, making it ideal for steam, gas, and liquid flow measurement.
Outstanding vibration resistance with zero drift at zero point, effectively neutralizing external vibration influences.
The ZZY30 also offers integrated temperature and pressure options, which can significantly save on installation costs.
Provides flexible output options including (0-5) kHz frequency output, (4-20) mA output, or HART/Modbus protocol communication.
Supports parameter setting through Bluetooth communication. It is wear-resistant, dirt-resistant, requires no mechanical maintenance, has a long service life, and is explosion-proof for enhanced safety.

Technical Index

Measurement Medium: Gas, Liquid, Steam
Connection Method: Flange Clamp Type, Flange Type, Insertion Type
Caliber Specifications:
Flange Clamping Type: 25mm, 32mm, 50mm, 80mm, 100mm.
Flange Connection Type: Caliber Selection of 100mm, 150mm, 200mm
Flow Measurement Range: Normal measurement flow velocity range with a Reynolds number of 1.5×104~4×106; gas velocity 5~50m/s; liquid velocity 0.5~7m/s.
Normal Measurement Flow Range: Liquid,
Gas Flow Measurement Range: Please refer to Table 2.
Steam Flow Range: Please refer to Table 3.
Measurement Accuracy: Class 1.0, Class 1.5
Measured Medium Temperature:
Room Temperature -25ºC~100ºC, High Temperature -25ºC~150ºC, -25ºC~250ºC. Output Signal: Pulse voltage output signal, High level 8~10V, Low level 0.7~1.3V. Pulse duty cycle is approximately 50%, transmission distance up to 100m.
Pulse Current Remote Transmission Signal: 4-20 mA, transmission distance up to 1000m. Instrument Use Environment: Temperature -25ºC~+55ºC, Humidity 5~90% RH at 50ºC. Material: Stainless Steel, Aluminum Alloy.
Power Supply: DC24V or Lithium Battery 3.6V
Explosion-Proof Grade: Intrinsically Safe iaIIbT3-T6, Protection Level: IP65.

PACKING & SHIPPING

Installation Requirements

Piping condition
The installation of the vortex flowmeter necessitates a certain straight pipe section both before and after the sensor. The common scenarios are as follows (D represents the diameter of the pipe):

1.
The sensor should be mounted on a horizontal, vertical, or inclined pipe (with liquid flowing from bottom to top). The pipe should have the same diameter as the sensor. Ensure a straight pipe length of 15-20D upstream and 5-10D downstream to meet the installation criteria.
2.
The pipe adjacent to the liquid sensor should be completely filled with the liquid being measured.
3.
Avoid installing the sensor on pipes that experience strong mechanical vibrations.
4.
The inner diameter of the straight pipe section should match the sensor's diameter as closely as possible. If it is not feasible, use a pipe with a slightly larger diameter, ensuring an error of ≤3% and not exceeding 5mm. The sensor should not be placed in areas with strong electromagnetic interference, restricted space, or where maintenance is inconvenient. Installation requirements.
5.
Horizontal pipeline installation is the most prevalent for flow sensors. When measuring gas flow with minor liquid content, the sensor should be installed at a higher pipeline point. For liquid flow measurements with minor gas content, the sensor should be placed at a lower pipeline point.
6.
Vertical pipeline sensor installation: For gas flow measurements, the sensor can be mounted on a vertical pipe without flow direction constraints. If the gas contains minor liquid content, the flow should be from bottom to top. For liquid flow, the flow should also be from bottom to top to avoid excessive probe weight.
7.
Side installation on horizontal pipelines: Sensors can be side-mounted irrespective of the fluid type, especially for superheated steam, saturated steam, and low-temperature liquids. Side mounting is preferred when feasible to minimize temperature effects on the amplifier.
8.
Inverted sensor installation on horizontal pipelines is generally inadvisable. It is unsuitable for measuring general gases or superheated steam but can be used for saturated steam and high-temperature liquids. It is also suitable for pipelines requiring frequent cleaning.
9.
When installing sensors on pipelines with insulation layers, ensure that the insulation does not exceed one-third of the bracket height, especially when measuring high-temperature steam.
10.
Selecting pressure and temperature measurement points: Depending on the requirements, the pressure measurement point should be located 3-5D downstream of the sensor, and the temperature measurement point should be 6-8D downstream.

1. The structure is ingeniously simple yet incredibly robust, boasting no moving parts. This design ensures exceptional reliability and fosters long-term operational dependability.Operation is highly dependable.

1. Installation is a breeze, and maintenance is remarkably convenient.

1. The detection sensor remains isolated from the measured medium, guaranteeing stable performance and an extended lifespan.

1. The output is a pulse signal directly proportional to the flow rate, ensuring no zero drift and maintaining high accuracy.

1. Wide measurement range,range down up to 1:50.

1. Low pressure loss translates to reduced operating costs and significant energy-saving benefits. Within a specific range of Reynolds numbers, the output signal frequency remains unaffected by variations in the physical properties and composition of the fluid. The meter coefficient's constancy with the shape and size of the vortex shedding body eliminates the need for compensation when measuring fluid volume flow. Typically,recalibration of the meter coefficient is unnecessary even after component changes.