What is an Orifice Plate? Types of Orifice Plates

Orifice plates are a fundamental component in various industrial applications, particularly in fluid dynamics and flow measurement. These devices are crucial for measuring and controlling the flow of liquids, gases, and steam in pipelines. This article provides a comprehensive overview of orifice plates, their types, applications, and advantages.

What is an Orifice Plate?

An orifice plate is a thin, flat piece of metal with a precisely machined hole in the middle. This hole, or orifice, is designed to create a pressure drop in the flow of a fluid, which can then be measured to determine the flow rate. The orifice plate is installed between two flanges in a pipeline, and as the fluid flows through the orifice, it causes a differential pressure that is proportional to the flow rate.

What is an Orifice Plate?

Advantages of Orifice Plates

  1. Simplicity: Orifice plates have a simple design with no moving parts, making them easy to install and maintain.
  2. Cost-Effective: They are relatively inexpensive compared to other flow measurement devices.
  3. Versatility: Suitable for a wide range of fluids and flow conditions.
  4. Reliability: Proven technology with a long history of use in various industries.


Despite their advantages, orifice plates have some limitations:

  • Pressure Loss: They create a permanent pressure drop in the system, which can be a disadvantage in some applications.
  • Sensitivity to Flow Profile: The accuracy of orifice plates can be affected by the flow profile and installation conditions.
  • Limited Range: They are not suitable for very low or very high flow rates.

Types of Orifice Plates

Types of Orifice Plates

Orifice plates come in various designs, each suited for different applications and flow conditions. Here are the main types of orifice plates:

1. Concentric Orifice Plate

  • Description: This is the most common type of orifice plate. It has a single, circular hole at the center of the plate.
  • Applications: Suitable for clean, single-phase fluid flows where the fluid does not contain any suspended solids or viscous materials.
  • Advantages: Simple design, easy to manufacture, and widely applicable in many industries.

2. Eccentric Orifice Plate

  • Description: The hole is offset from the center of the plate.
  • Applications: Ideal for measuring the flow of fluids containing solids, sludge, or other contaminants that might settle at the bottom of the pipe. This design helps avoid blockage.
  • Advantages: Reduces the risk of clogging and is useful for applications involving dirty or contaminated fluids.

3. Segmental Orifice Plate

  • Description: Features a segmental cut-out instead of a circular hole. The cut-out typically takes up a segment of the plate.
  • Applications: Suitable for measuring flows with suspended solids or highly viscous fluids, such as slurries or sewage.
  • Advantages: Allows particles and sludge to pass through without clogging, ensuring more reliable flow measurement in challenging conditions.

4. Quadrant Edge Orifice Plate

  • Description: Has a quadrant-shaped hole, with the orifice edges rounded rather than sharp.
  • Applications: Designed for low Reynolds number flows, typically used in gas flow measurements where the flow rate is low, such as in gas distribution systems.
  • Advantages: Provides more accurate measurements for low flow rates and is effective for measuring viscous fluids.

5. Conical Orifice Plate

  • Description: The orifice is conical-shaped, with the narrow end facing the flow.
  • Applications: Suitable for measuring low flow rates with high accuracy, often used in laboratories and precise industrial applications.
  • Advantages: Reduces turbulence and flow separation, offering better accuracy and performance for specific low-flow applications.

6. Restriction Orifice Plate

  • Description: Similar to a standard orifice plate but specifically designed to reduce pressure and flow rate in the pipeline.
  • Applications: Used to deliberately restrict flow in a system, for instance, to control flow rates or to protect downstream equipment from high pressures.
  • Advantages: Effective for flow control and pressure reduction, providing protection and regulation in various systems.

7. Paddle Type Orifice Plate

  • Description: A single-piece plate with an integral paddle handle for easy insertion and removal.
  • Applications: Commonly used in pipelines where frequent maintenance or inspection is required.
  • Advantages: Facilitates easy handling, insertion, and removal, simplifying maintenance procedures.

Choosing the right type of orifice plate is crucial for accurate flow measurement and optimal system performance. Each type has specific advantages and is suited for different applications and fluid characteristics. Understanding the properties and uses of each orifice plate type helps in selecting the most appropriate one for any given industrial or laboratory application.

What is Orifice Plate used for?

What is Orifice Plate used for?

An orifice plate is primarily used for measuring and controlling the flow rate of fluids (liquids, gases, or steam) in pipelines. Here are the main applications and uses of orifice plates:

Flow Measurement

  1. Differential Pressure Flow Measurement: Orifice plates create a pressure drop as fluid flows through the orifice. By measuring the differential pressure across the plate, the flow rate can be determined using established formulas and calibration data.
  2. Monitoring and Control: They are used in industrial processes to monitor and control the flow of fluids, ensuring that the desired flow rates are maintained for optimal process performance.

Industrial Applications

  1. Oil and Gas Industry: Orifice plates measure the flow of crude oil, natural gas, and other hydrocarbons in pipelines. Accurate flow measurement is essential for production control, custody transfer, and leak detection.
  2. Water Treatment and Distribution: They are used in water distribution systems to monitor the flow of water, ensuring efficient and reliable water supply. They are also used in water treatment plants to measure and control the flow of water and chemicals.
  3. Chemical Processing: In chemical plants, orifice plates help measure and regulate the flow of various chemicals, ensuring precise control over chemical reactions and processes.
  4. Power Generation: They are used in power plants to measure the flow of steam, cooling water, and other fluids. Accurate flow measurement is crucial for the efficient operation of turbines, boilers, and cooling systems.
  5. HVAC Systems: Orifice plates are used in heating, ventilation, and air conditioning (HVAC) systems to measure and control the flow of air and other gases, ensuring optimal environmental conditions.

Specific Uses

  1. Custody Transfer: Orifice plates are commonly used in custody transfer applications where the accurate measurement of fluid flow is critical for financial transactions, such as in the sale and purchase of natural gas or petroleum products.
  2. Leak Detection: By continuously monitoring the flow rates in pipelines, orifice plates can help detect leaks, ensuring the safety and integrity of the pipeline system.
  3. Process Optimization: In manufacturing and processing industries, precise flow measurement helps optimize processes, improve product quality, and reduce waste.


  • Simplicity and Reliability: Orifice plates have a simple design with no moving parts, making them reliable and easy to maintain.
  • Cost-Effective: They are relatively inexpensive compared to other flow measurement devices.
  • Versatility: Suitable for a wide range of fluids and flow conditions.

Orifice plates are essential tools in various industries for measuring and controlling fluid flow. Their simplicity, cost-effectiveness, and reliability make them a popular choice for flow measurement applications, contributing to the efficient and safe operation of industrial processes.

How does a orifice plate work ?

How does a orifice plate work ?

An orifice plate works based on the principles of fluid dynamics, particularly utilizing Bernoulli’s equation and the concept of differential pressure to measure the flow rate of fluids in a pipeline. Here’s a detailed explanation of how an orifice plate functions:

Working Principle

  1. Installation: The orifice plate is installed between two flanges in a pipeline, creating a narrow passage for the fluid to flow through. It is positioned perpendicular to the flow direction.
  2. Fluid Flow: As the fluid flows through the pipeline, it approaches the orifice plate and is forced through the small hole (orifice) in the center of the plate.
  3. Velocity Increase: Due to the reduced cross-sectional area at the orifice, the velocity of the fluid increases as it passes through the orifice. According to the principle of continuity, the fluid must speed up to pass through the narrower section.
  4. Pressure Drop: As the fluid velocity increases through the orifice, its pressure decreases. This phenomenon is explained by Bernoulli’s equation, which states that the sum of the kinetic energy and potential energy (pressure energy) in a fluid flow remains constant. Thus, an increase in velocity leads to a decrease in pressure.
  5. Differential Pressure Measurement: Pressure taps are located on both sides of the orifice plate – one upstream (before the orifice) and one downstream (after the orifice). The pressure difference between these two points, known as the differential pressure (ΔP), is measured.
  6. Flow Rate Calculation: The differential pressure is directly related to the flow rate of the fluid. By applying Bernoulli’s equation and flow equations, the flow rate (Q) can be determined. The basic formula for calculating the flow rate is:

Key Factors Affecting Operation

  1. Beta Ratio (β): The ratio of the bore diameter (d) of the orifice to the inner diameter (D) of the pipe. The beta ratio affects the differential pressure and the flow rate calculation.
  2. Discharge Coefficient (C_d): This coefficient accounts for the actual flow characteristics, including fluid viscosity, Reynolds number, and orifice geometry. It is determined through calibration and empirical data.
  3. Reynolds Number: This dimensionless number indicates whether the flow is laminar or turbulent, influencing the flow characteristics and the discharge coefficient.
  4. Fluid Properties: The density and viscosity of the fluid affect the pressure drop and flow rate. Accurate measurement requires knowledge of these properties.

Orifice Plate Dimensions

The dimensions of an orifice plate depend on several factors, including the pipeline size, the type of fluid being measured, and the desired flow rate. Key dimensions and specifications typically include the following:

Key Dimensions of an Orifice Plate

  1. Outer Diameter (OD): This is the overall diameter of the orifice plate, which should match the inner diameter of the pipeline flanges where it will be installed.
  2. Bore Diameter (d): The diameter of the hole (orifice) in the center of the plate. The size of the bore determines the flow characteristics and is calculated based on the flow rate and fluid properties.
  3. Thickness (t): The thickness of the orifice plate varies depending on the application and the material used. Standard thicknesses are typically around 3 to 12 mm (1/8″ to 1/2″).
  4. Beta Ratio (β): The beta ratio is the ratio of the bore diameter (d) to the pipe inner diameter (D). It typically ranges from 0.2 to 0.75. The beta ratio influences the differential pressure and flow rate.

Standard Sizes

Orifice plates are available in various standard sizes to fit common pipeline diameters. Here are some examples:

  • Pipeline Diameters: Standard pipeline diameters range from 1/2 inch to over 36 inches.
  • Bore Sizes: The bore size will be calculated based on the required flow rate and pipeline diameter, typically ranging from a few millimeters to several inches.

Calculation of Bore Diameter

The bore diameter of an orifice plate is calculated using formulas based on Bernoulli’s equation and continuity equation, taking into account the fluid properties and desired flow rate. The general formula is:

Custom Dimensions

In many applications, orifice plates are custom-made to meet specific flow measurement requirements. Engineers use specialized software and calculations to design the orifice plate dimensions that will achieve the desired accuracy and performance.

Orifice plates are designed with precise dimensions to ensure accurate flow measurement. The key dimensions include the outer diameter, bore diameter, thickness, and beta ratio, all of which are determined based on the specific application and flow conditions. Understanding these dimensions is essential for selecting or designing the appropriate orifice plate for any given flow measurement task.

Orifice Plate Materials

Orifice plates are manufactured from various materials depending on the application, fluid type, operating conditions, and required durability. The selection of material is critical to ensure that the orifice plate can withstand the fluid’s pressure, temperature, and chemical properties. Here are some common materials used for orifice plates:

1. Stainless Steel

  • Grades: 304, 316, 316L, 321
  • Properties: High corrosion resistance, good strength, and durability.
  • Applications: Suitable for a wide range of applications, including chemical processing, oil and gas, and food and beverage industries, particularly where corrosion resistance is essential.

2. Carbon Steel

  • Grades: A36, A105
  • Properties: Good mechanical strength and toughness, lower cost compared to stainless steel.
  • Applications: Used in non-corrosive environments or where cost is a significant factor. Common in water treatment and general industrial applications.

3. Monel

  • Grades: Monel 400, Monel K500
  • Properties: Excellent resistance to corrosion by acids, alkalis, and seawater, high strength.
  • Applications: Ideal for marine environments, chemical and hydrocarbon processing, and applications involving highly corrosive fluids.

4. Hastelloy

  • Grades: Hastelloy C276, Hastelloy B2
  • Properties: Superior resistance to a wide range of corrosive environments, including strong acids.
  • Applications: Used in chemical processing, pharmaceuticals, and other industries dealing with highly corrosive substances.

5. Inconel

  • Grades: Inconel 600, Inconel 625, Inconel 718
  • Properties: High strength, excellent resistance to oxidation and corrosion at high temperatures.
  • Applications: Suitable for aerospace, power generation, and chemical processing where high-temperature stability and corrosion resistance are required.

6. Titanium

  • Grades: Grade 2, Grade 5 (Ti-6Al-4V)
  • Properties: Excellent strength-to-weight ratio, exceptional corrosion resistance, biocompatibility.
  • Applications: Used in aerospace, medical, and marine applications, as well as in industries dealing with corrosive environments.

7. Duplex and Super Duplex Stainless Steels

  • Grades: Duplex 2205, Super Duplex 2507
  • Properties: High strength and excellent resistance to pitting, crevice corrosion, and stress corrosion cracking.
  • Applications: Ideal for applications in the oil and gas industry, particularly in offshore environments, and chemical processing.

8. Aluminum

  • Properties: Lightweight, good corrosion resistance, and easy to machine.
  • Applications: Used in low-pressure applications and where weight reduction is important, such as in certain aerospace and automotive applications.

9. Tantalum

  • Properties: Excellent resistance to corrosion, particularly to acids, and high melting point.
  • Applications: Used in chemical processing equipment, especially where exposure to strong acids is common.

10. Plastic and Composite Materials

  • Materials: PTFE (Teflon), PVC, PEEK
  • Properties: Excellent chemical resistance, lightweight, and non-conductive.
  • Applications: Used in applications involving highly corrosive chemicals and where metal contamination must be avoided, such as in the pharmaceutical and food industries.

The choice of material for an orifice plate depends on the specific requirements of the application, including the type of fluid being measured, the operating temperature and pressure, and the corrosive nature of the environment. Selecting the appropriate material ensures the durability, accuracy, and reliability of the orifice plate in its intended application.

Orifice Plate Manufacturers

Several manufacturers specialize in producing high-quality orifice plates for various industrial applications. Here are some of the notable orifice plate manufacturers around the world:

1. Emerson Electric Co.

  • Overview: Emerson is a global leader in manufacturing a wide range of industrial automation products, including orifice plates.
  • Products: Emerson’s Rosemount division offers a variety of orifice plates, flow nozzles, and differential pressure flow products.
  • Website: Emerson

2. ABB Group

  • Overview: ABB is a multinational corporation known for its automation and power technologies.
  • Products: ABB provides a range of flow measurement solutions, including orifice plates, suitable for various industrial applications.
  • Website: ABB

3. Yokogawa Electric Corporation

  • Overview: Yokogawa is a leading manufacturer of industrial automation and control systems.
  • Products: Yokogawa offers a comprehensive line of flow measurement devices, including orifice plates and other differential pressure flow meters.
  • Website: Yokogawa

4. Honeywell International Inc.

  • Overview: Honeywell is a major player in the field of industrial automation and control.
  • Products: Honeywell’s portfolio includes a variety of flow measurement devices, such as orifice plates, used in numerous industries.
  • Website: Honeywell

5. Siemens AG

  • Overview: Siemens is a global powerhouse in electronics and electrical engineering.
  • Products: Siemens offers a range of process instrumentation, including orifice plates and differential pressure flow meters.
  • Website: Siemens

6. Badger Meter, Inc.

  • Overview: Badger Meter is known for its high-quality flow measurement and control products.
  • Products: Badger Meter provides a wide range of orifice plates and flow measurement solutions suitable for various applications.
  • Website: Badger Meter

7. Dwyer Instruments, Inc.

  • Overview: Dwyer Instruments is a recognized leader in designing and manufacturing innovative controls, sensors, and instrumentation solutions.
  • Products: Dwyer offers orifice plates, flow sensors, and a variety of flow measurement devices.
  • Website: Dwyer Instruments

8. KROHNE Group

  • Overview: KROHNE is a leading manufacturer and supplier of industrial process instrumentation.
  • Products: KROHNE provides orifice plates, flowmeters, and other flow measurement devices tailored for industrial applications.
  • Website: KROHNE

9. Endress+Hauser Group

  • Overview: Endress+Hauser is a global leader in measurement instrumentation, services, and solutions for industrial process engineering.
  • Products: The company offers a range of orifice plates and flow measurement technologies.
  • Website: Endress+Hauser

10. McCrometer, Inc.

  • Overview: McCrometer specializes in flow measurement solutions for a wide range of industries.
  • Products: They provide orifice plates and other flow measurement devices, focusing on accuracy and reliability.
  • Website: McCrometer

These manufacturers are renowned for their expertise in producing reliable and accurate orifice plates and other flow measurement devices. Their products are used globally in various industries, including oil and gas, water treatment, chemical processing, and power generation.

Orifice Plate Standards

Orifice plates are governed by several international and national standards to ensure their design, manufacturing, and application meet specific quality and performance criteria. These standards provide guidelines on the dimensions, tolerances, installation, and calibration of orifice plates. Here are some of the key standards related to orifice plates:

1. ISO 5167

  • Title: Measurement of fluid flow by means of pressure differential devices inserted in circular cross-section conduits running full.
  • Description: ISO 5167 is a comprehensive standard that covers the design, installation, and use of orifice plates, as well as other differential pressure flow measurement devices like Venturi tubes and nozzles. It provides guidelines on calculating flow rates based on differential pressure measurements.
  • Parts: The standard is divided into several parts, each focusing on different types of differential pressure devices:
    • ISO 5167-1: General principles and requirements
    • ISO 5167-2: Orifice plates
    • ISO 5167-3: Nozzles and Venturi nozzles
    • ISO 5167-4: Venturi tubes
    • ISO 5167-5: Cone meters
  • Website: ISO 5167


  • Title: Measurement of Fluid Flow in Pipes Using Orifice, Nozzle, and Venturi.
  • Description: This standard from the American Society of Mechanical Engineers (ASME) specifies the requirements for flow measurement using orifice plates, nozzles, and Venturi tubes. It includes guidelines for the design, installation, calibration, and maintenance of these devices.
  • Website: ASME MFC-3M

3. AWWA C504

  • Title: Orifice Plates for Waterworks Service.
  • Description: The American Water Works Association (AWWA) provides standards for orifice plates used in waterworks applications. It covers the design, materials, manufacturing, and installation of orifice plates used in water distribution systems.
  • Website: AWWA C504

4. API 14.3 / AGA Report No. 3

  • Title: Measurement of Natural Gas by Means of Pressure Differential Devices.
  • Description: The American Petroleum Institute (API) and the American Gas Association (AGA) provide standards for measuring natural gas flow using differential pressure devices, including orifice plates. These standards focus on ensuring accuracy and consistency in gas flow measurement.
  • Website: API 14.3 / AGA Report No. 3

5. BS 1042

  • Title: Measurement of Fluid Flow in Closed Conduits.
  • Description: The British Standards Institution (BSI) provides guidelines for measuring fluid flow in closed conduits using differential pressure devices like orifice plates. BS 1042 covers the design, installation, and calculation methods for flow measurement.
  • Website: BS 1042

6. DIN EN ISO 5167

  • Title: Measurement of Fluid Flow by Means of Pressure Differential Devices Inserted in Circular Cross-section Conduits Running Full.
  • Description: This standard is the German adoption of ISO 5167 and provides comprehensive guidelines for flow measurement using orifice plates, nozzles, and Venturi tubes.
  • Website: DIN EN ISO 5167

Adhering to these standards ensures that orifice plates are designed, manufactured, and installed correctly, providing accurate and reliable flow measurements. These standards are essential for maintaining consistency and quality in flow measurement practices across various industries.


Orifice plates are essential components in the measurement and control of fluid flow across various industries. Understanding the types of orifice plates, their applications, and the materials from which they are made is crucial for selecting the right plate for a specific application.

Key Points:

  • Types: The primary types of orifice plates include concentric, eccentric, segmental, quadrant edge, conical, restriction, and paddle type, each suited to different fluid characteristics and flow conditions.
  • Applications: Orifice plates are widely used in industries such as oil and gas, water treatment, chemical processing, power generation, and HVAC systems for accurate flow measurement and control.
  • Materials: Common materials include stainless steel, carbon steel, Monel, Hastelloy, Inconel, titanium, duplex and super duplex stainless steels, aluminum, tantalum, and various plastics and composites. The choice of material depends on the fluid’s properties, operating conditions, and environmental factors.

By adhering to industry standards and selecting the appropriate orifice plate type and material, industries can ensure reliable and accurate flow measurement, optimize process efficiency, and maintain safety and compliance with regulatory requirements. Understanding these elements is vital for engineers and operators to make informed decisions that enhance the overall performance and longevity of their fluid flow systems.

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