Voltage Pressure Transducer Comparison

Q: What is the input voltage of a pressure transducer?

The input voltage of a pressure transducer , also known as the excitation voltage, typically ranges from 5 to 36 volts DC, but it varies by model. Always refer to the manufacturer's specifications.

Q: How do you check the voltage on a pressure transducer?

To check the voltage on a pressure transducer , you'll need a digital multimeter. Attach the multimeter's probes to the transducer's output wires and apply pressure. The multimeter should display the corresponding voltage.

Posted on June 1, 2023 by KimGuo11

Imagine being in a world where pressure measurements are a hassle. You’re constantly struggling with inaccurate readings, device malfunctions, and complicated setup processes. Sounds exhausting, right? Now enter voltage pressure transducers. These little devices are the unsung heroes of the industrial world, transforming your pressure measurement process from a frustrating chore into a smooth, reliable operation. Let’s dive in and learn more about these game-changing tools.

RFQ

What is a Voltage Pressure Transducer?

A voltage pressure transducer is an electromechanical device that converts pressure into an analog voltage signal. This signal can be easily read and analyzed, making pressure monitoring a breeze. But how does it all work? Let’s find out.

More detailed guide about pressure transducers here:

The Inner Workings of Voltage Pressure Transducers

At the heart of every voltage pressure transducer is a sensing element, often a strain gauge or a piezoresistive sensor. When pressure is applied, this element deforms slightly. This deformation alters the electrical resistance of the sensor, and this change is converted into a voltage signal proportional to the applied pressure.

Voltage pressure transducers come in a variety of types, each suited to specific applications. Some popular types include strain-gauge pressure transducers, piezoresistive pressure transducers, and capacitive pressure transducers.

Why Voltage Output Signals?

Pressure changes can trigger variations in a sensor’s electrical resistance. In voltage output transducers, these changes convert into a voltage signal that matches the shift in pressure. These voltage signals usually fall within 0-5Vdc or 0-10Vdc, although the range can vary depending on the transducer and its application.

Voltage output signals, common in pressure and temperature sensors, are a type of analog output signal. There are many output options to choose from in this category. The most frequently seen ones in industrial settings are 1-5VDC, 1-6VDC, and 0-10VDC, particularly when power usage isn’t a main concern.

In our growing world of IoT and IIoT, sensors can now run on low power while using less current. This is a big win for remote equipment where replacing batteries often can be expensive and time-consuming.

In response to the demand for low power, various voltage output choices now run on 3V, 3.3V, 3.7V, 5V, and 9V power supplies and batteries. Some common signal pairings with these supply voltages include millivolt, 0.5-2.5VDC non-ratiometric, and 0.5-4.5VDC ratiometric outputs. The 0.5-2.5VDC output option is becoming more popular due to increased usage of 3 to 5VDC lithium-ion batteries.

While millivolt signals are ratiometric, 0.5-4.5VDC output, ratiometric to a regulated 5VDC excitation, is more commonly associated with the term “ratiometric.” This type of signal has gained popularity in automotive and off-road applications because it is proportional to the supply. For instance, a 10% drop in supply from the 5V source would result in a 10% decrease in the output signal. This type of signal continues to be used in similar applications and has also found use in industrial applications like compressors and water pumps.

Voltage Output Wiring Configurations

Voltage output pressure transducers typically come in two wiring configurations: three-wire and four-wire systems.

In a three-wire system, one wire is connected to the positive voltage supply, another to the output, and the third one to the ground. This setup is straightforward and commonly used.

The four-wire system, on the other hand, uses two wires for the supply voltage and two wires for the output. This configuration reduces errors due to voltage drop in the supply leads, providing more accurate readings, especially over longer distances.

Our Top Voltage Pressure Transducer Picks

**SI-300 Pressure Transducer 4-20mA/Voltage**

**SI-390 Industrial Pressure Transmitter**

**SI-512H High Temperature Pressure Sensor**

**SI-706 Combined Pressure and Temperature Sensor-Dual function**

**High Frequency Dynamic Pressure Sensor**

**Diffused silicon Gauge Pressure Transmitter**

**Explosion-proof Pressure Transmitter**

Applications of Voltage Output Pressure Transducers

Tank Level Monitoring: Paired with a SCADA system, these sensors are ideal for remotely monitoring fuel or water levels, especially in locations where conserving battery life is essential.
Oil Field Equipment: In far-flung oilfields, these sensors help conserve battery life while providing ample signal strength for measuring and transmitting data to telemetry units and then to the cloud.
Industrial Internet of Things (IIoT): Factories are increasingly adopting IoT technology to measure pressure and temperatures of various equipment, particularly where installing power sources is costly or difficult.
HVAC and Refrigeration: For HVAC/R installations, these affordable, user-friendly sensors swiftly provide pressure, temperature, and combined readings, making them popular for use in confined spaces like boiler rooms.
Automotive Systems: In vehicles, these sensors are crucial for monitoring systems like brakes and fuel, delivering real-time data for optimal operation.
Aerospace and Aviation: These sensors offer real-time measurements in critical monitoring areas such as cabin pressure, engine oil pressure, and hydraulic systems, ensuring safe and efficient flights.

FAQ

A voltage pressure transducer is a device that converts pressure into a voltage signal, enabling easy monitoring and control of pressure.

The input voltage of a pressure transducer, also known as the excitation voltage, typically ranges from 5 to 36 volts DC, but it varies by model. Always refer to the manufacturer’s specifications.

To check the voltage on a pressure transducer, you’ll need a digital multimeter. Attach the multimeter’s probes to the transducer’s output wires and apply pressure. The multimeter should display the corresponding voltage.

A 4-20mA pressure transducer is a type of pressure transducer that outputs a current signal instead of a voltage signal. The 4-20mA signal is less susceptible to electrical noise, making it ideal for long-distance signal transmission.

Voltage output signals in pressure transducers play a crucial role in pressure monitoring and control. Understanding the workings of these signals and their appropriate applications can help you choose the right transducer for your specific needs.

Remember, at Sino-Inst, we offer a variety of voltage pressure transducers tailored to your requirements. Our experienced team is ready to assist you in finding the best pressure measurement solutions. Reach out to us today!

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KimGuo11

Wu Peng, born in 1980, is a highly respected and accomplished male engineer with extensive experience in the field of automation. With over 20 years of industry experience, Wu has made significant contributions to both academia and engineering projects.

Throughout his career, Wu Peng has participated in numerous national and international engineering projects. Some of his most notable projects include the development of an intelligent control system for oil refineries, the design of a cutting-edge distributed control system for petrochemical plants, and the optimization of control algorithms for natural gas pipelines.

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What Is a Differential Pressure Sensor?

Posted on May 25, 2023 by KimGuo11

What is a Differential Pressure Sensor?

A differential pressure sensor is a special instrument used to measure the pressure difference between two points in a system. It contains important parts like diaphragms, strain gauges, or capacitive elements. These sensors come in different types, such as diaphragm-based, piezoresistive, and capacitive. Each with its own benefits and uses. Unlike regular pressure sensors that measure absolute or gauge pressure, differential pressure sensors specifically concentrate on the pressure difference between two points.

RFQ

Differential pressure sensors are more than just another piece of machinery; they are the eyes and ears of many industrial systems, diligently measuring the pressure difference between two points in a process. By doing this, they provide invaluable insights that keep systems operating smoothly and safely. Whether in HVAC systems, medical devices, or industrial processes, these sensors are everywhere, silently playing their part.

So, why should you care about these sensors? Let’s dive deeper.

types of differential pressure sensors

Here are some common types of differential pressure sensors:

Resistive Differential Pressure Sensors: These sensors use changes in resistance to measure pressure differences.
Capacitive Differential Pressure Sensors: These sensors utilize changes in capacitance to detect pressure variations.
Piezoelectric Differential Pressure Sensors: These sensors convert pressure changes into electrical signals using piezoelectric materials.
Optical Differential Pressure Sensors: These sensors employ optical principles to measure pressure differences.
Microelectromechanical Systems (MEMS): These sensors utilize miniature mechanical structures to detect and measure pressure changes.

These different types of sensors offer various advantages and are used in a wide range of applications.

Working Principles of Differential Pressure Sensors

Typically, the two pressures to be measured are applied to opposite sides of a single diaphragm. The deflection of the diaphragm, whether positive or negative, determines the pressure differential.

Diaphragm-based sensors use the deformation of the diaphragm to detect differential pressure. Whereas piezoresistive sensors use strain gauges that change electrical resistance under pressure. Capacitive differential pressure sensors measure the change in capacitance caused by a pressure difference. These conversion mechanisms enable accurate and reliable measurement of differential pressure.

Some industrial differential pressure sensors use two separate absolute sensors with internal electronics to calculate and provide differential pressure.

Another way to achieve differential pressure measurement is to use two absolute pressure sensors and then calculate the difference on the industrial control system.

This is useful in situations where two different types of sensors are required due to the measured medium (i.e. liquid and gas) or the measurement environment.

The principle of differential pressure measurement states that differential pressure (also shown as DP or Δp) is the difference between two applied pressures.

For example, if the pressure at point A equals 100psi and the pressure at point B equals 60psi, the differential pressure is 40psi (100psi – 60psi).

Featured Industrial Differential pressure Transmitters

**Extended Diaphragm Seal DP Level Transmitter**
Extended Diaphragm Seal DP Transmitter is a level transmitter direct mounted on pipe or tank. The isolation diaphragm is in direct contact with the liquid medium.

**Flange Mounted Differential Pressure Transmitter**
Flange Mounted Differential Pressure Transmitter is also called single flange DP level transmitter. For liquid, gas or vapor pressure measurement.

**Smart Differential Pressure Transmitter**
Smart Differential Pressure Transmitter measures industrial differential pressure. Can Works with diaphragm seals, capillary, HART. Outputs standard signals (such as 4 ~ 20mA, 0 ~ 5V).

**Piezoresistive Differential Pressure Transmitter**
Piezoresistive Differential Pressure Transmitter utilizes the piezoresistive effect of semiconductor silicon materials. Realize accurate measurement of differential pressure.

**Remote Seal Differential Pressure Transmitter**
Remote Seal DP Transmitter is often used as a tank level transmitter. The smart pressure transmitter is connected with a stainless steel flange by capillary. The pressure is sensed by a remote transmission device installed on a pipe or container.

**Differential pressure(DP) level transmitter**
Differential pressure (DP) level transmitter is a perfect solution for tank level measurement. Flanges, seal diaphragms, capillaries, and DP transmitter are often used to measure liquid levels.

**Differential Pressure Gauge**
Quickly measure the positive, negative or DP of air or non-corrosive gas. Sino-Inst supplies Differential Pressure Gauges made in China. DWYER 2000 Differential Pressure Gauges, Magnehelic differential pressure gauges are also available.

Differential Pressure Sensors Vs. Pressure Sensors

When it comes to the world of pressure measurement, two types of sensors often come into focus: differential pressure sensors and pressure sensors. Both have significant roles in various industries. But they serve different functions and have unique characteristics. Let’s dive into the key differences between them.

Pressure Sensor: A pressure sensor measures the absolute pressure applied on it. It takes one pressure reading, typically against a vacuum (zero pressure). This method is similar to how we might measure the weight of an object or the temperature of a room.

Differential Pressure Sensor: A differential pressure sensor, on the other hand, measures the difference in pressure between two points. Imagine having a scale that measures the weight difference between two objects rather than the absolute weight. That’s the kind of measurement a differential pressure sensor does.

Pressure Sensor: These sensors are often used when you need to measure the overall pressure level in a system, such as barometric pressure in weather forecasting, tire pressure in vehicles, or blood pressure in medical monitoring.

Differential Pressure Sensor: Differential pressure sensors are used in applications where the pressure difference matters, such as across a filter in an HVAC system to determine when the filter needs to be replaced, or in fluid dynamics to calculate the flow rate based on pressure drop across a restriction.

Pressure Sensor: Typically, pressure sensors are simpler and less expensive than differential pressure sensors. They can be ideal for applications that don’t require the added complexity of differential pressure measurement.

Differential Pressure Sensor: These sensors are typically more complex and may cost more due to the added intricacy of measuring pressure at two points. However, they provide more detailed information, which can be crucial for certain applications.

In conclusion, while both types of sensors serve to measure pressure, the choice between a pressure sensor and a differential pressure sensor depends largely on the specific application and requirements. Understanding these differences is the first step in determining which sensor is the most suitable for your needs.

Applications of Differential Pressure Sensors

The versatility and precision of differential pressure sensors make them highly valuable in a variety of industries. Here are 6 key ones, explained in the simplest terms:

HVAC Systems: These sensors help control how much air is moving in heating and air conditioning systems. They also tell us when to change filters by measuring the pressure drop across them.
Industrial Control: In factories and plants, these sensors help manage the flow of chemicals, oil, gas, food and drink by monitoring pressure changes in pipes.
Flow Measurement: By checking the pressure drop across a blockage in a pipe, these sensors can tell how fast a liquid or gas is flowing. More about DP flow meters.
Filter Monitoring: The sensors can tell when a filter is getting clogged by noticing a change in pressure across it. This helps in timely cleaning or replacing the filter.
Medical Equipment: In devices like breathing machines and infusion pumps, these sensors help control the flow of air or medication to ensure the patient’s comfort.
Tank Level Measurement: By measuring the pressure difference from the top to the bottom of a tank, these sensors can accurately tell how full a tank is, be it water, fuel, or grains. More about: Use Differential Pressure Transmitter to Measure Liquid Level.

In a nutshell, from air conditioning systems to medicine, and fuel storage to food factories, differential pressure sensors make things work better and safer. They are truly a vital part of many systems and processes.

FAQ

A differential pressure sensor measures the pressure difference between two points within a system. This information can be used to control or monitor a process.

A pressure sensor measures the force exerted by a fluid on a surface, while a differential pressure sensor measures the difference in pressure between two points.

In air applications, a differential pressure sensor can be used to monitor and control airflow in HVAC systems or to monitor the status of filters.

Yes, a differential pressure sensor is a type of transducer as it converts pressure into an electrical signal.

The main purpose of a differential pressure sensor is to measure the difference in pressure between two points within a system. This information is vital in many applications, from HVAC systems to industrial processes.

A differential pressure flow sensor works by measuring the pressure drop across a restriction in a pipe. This pressure drop can be used to calculate the fluid flow rate.

Top Digital Pressure Transducers with Display

Posted on May 8, 2023 by KimGuo11

Digital pressure transducers with display is One of the most innovative solutions for pressure measurement. These devices offer real-time, accurate pressure readings, making them indispensable tools in many industries.
Pressure measurement is a crucial aspect of various industrial processes. It ensures safety, improves efficiency, and maintains process quality. LCD or LED display brings great convenience to pressure monitoring.

RFQ

Top Digital Pressure Transducers with Display

To help you make an informed decision, we’ve compiled a list of the top digital pressure transducers with display we supply. These devices offer superior performance, durability, and ease of use.

**Diffused silicon Gauge Pressure Transmitter**
A gauge pressure (GP) transmitter compares a process pressure against local ambient air pressure. Gauge pressure transmitters have ports to sample the ambient air pressure in real-time.

**Capacitive Gauge Pressure Transmitter**
Gauge pressure (GP) transmitters compare process pressure with local ambient air pressure. Gauge pressure transmitters have ports for real-time sampling of ambient air pressure.

**Explosion-proof Pressure Transmitter**
Explosion-proof Pressure transmitter, or explosion-proof pressure transducer, with the explosion-proof enclosure.
For applications in hazardous areas.

**Diaphragm Seal Pressure Transmitter**
When the process medium should not come into contact with the pressured parts of the measuring instrument. Diaphragm sealed pressure transmitters are used for pressure measurement.

**Hygienic / Sanitary Pressure Transmitter**
Also called Hygienic pressure Transmitters, or tri clamp pressure transmitter. Sanitary pressure Transmitters is used to food &beverage or pharmaceutical application.

**High-Temperature Pressure Transmitter**
**High-temperature pressure transmitters** with a 4-20mA output.
which has a temperature capability of over 850 °C and is not pyroelectric.

**Absolute Pressure Transmitter**
Absolute pressure transmitter with 4-20mA output for measuring pressure with absolute type reference. Absolute pressure (AP) transmitter is a measure of the ideal (complete) vacuum pressure.

Advantages of Pressure Transducer with Display

Real-time monitoring: Pressure transducers with display provide instant, real-time pressure readings, enabling quick decision-making and faster response times in critical situations.
Easy to read: The built-in display allows for easy reading of pressure measurements without the need for additional equipment or software.
High accuracy: These devices offer precise and reliable pressure measurements, ensuring consistent performance and improved process control.
Wide range of applications: Pressure transducers with display can be used across various industries, such as oil and gas, petroleum chemicals, power generation, water management, and more, making them versatile and adaptable tools.
Compact and durable design: Pressure transducers with display are typically designed to be compact and robust, allowing for easy installation and long-lasting performance in harsh environments.
User-friendly interface: Many pressure transducers with display feature intuitive interfaces, making them easy to use and configure, even for users with limited experience.
Customization options: Pressure transducers with display can be customized to fit specific application requirements, such as different pressure ranges, output signals, or mounting options. Even, when the pressure transmitter is used to measure liquid level, it can display liquid level.
Low maintenance: These devices generally require minimal maintenance, ensuring a longer service life and lower operating costs.
Enhanced safety: Real-time monitoring of pressure levels can help detect potential issues early, preventing accidents and ensuring the safety of both personnel and equipment.
Improved process efficiency: Accurate pressure monitoring and control can optimize various processes, leading to increased productivity and reduced downtime.

FAQ

While both terms are often used interchangeably, pressure sensors generally refer to devices that detect pressure and convert it into an electrical signal. Pressure transducers, on the other hand, are more specific types of pressure sensors that output an analog or digital signal proportional to the applied pressure.

A digital pressure transducer is a device that converts pressure into a digital signal, typically using microprocessors or microcontrollers. These transducers often come with built-in displays, allowing users to view real-time pressure readings directly on the device.

A 4-20mA pressure transducer is a type of analog pressure transducer that outputs a current signal proportional to the applied pressure. The output current ranges from 4mA (representing the minimum pressure) to 20mA (representing the maximum pressure). This type of signal is commonly used in industrial control systems due to its noise immunity and ability to transmit signals over long distances.

Pressure transducers can be either analog or digital, depending on their output signal. Analog pressure transducers output a continuous signal proportional to the applied pressure, such as voltage or current (e.g., 4-20mA). Digital pressure transducers, on the other hand, output a discrete digital signal, usually in the form of a serial communication protocol like RS-232 or RS-485.

Process Applications of Digital Pressure Transducers with Display

Digital pressure transducers with display are used in many different jobs to check and control pressure. They are important because they show pressure information right away, are accurate, and are easy to use. Here are some examples of where they are used:

Oil and Gas Industry: These devices help make sure that oil and gas move safely and easily through pipes, refineries, and drilling places. They can stop accidents caused by changes in pressure. The U.S. Energy Information Administration talks about the importance of checking pressure in the oil and gas industry.

Water Treatment and Management: Digital pressure transducers with display help check pressure in water systems, wastewater plants, and systems that water plants.

Power Generation: In power plants, these devices are used to check the pressure of steam, water, and other liquids. This helps make power in a good way and stops machines from breaking.

Medicine Making: Digital pressure transducers with display are used when making medicine to keep the right pressure in machines, containers, and pipes.

Food and Drink Making: Pressure checking is important in making food and drinks, like when heating milk, putting bubbles in drinks, and putting food and drinks in packages. Digital pressure transducers with display help make sure the food and drinks are good and safe.

These examples show how digital pressure transducers with display are used in many different jobs. They help make things work better and keep people and machines safe by giving good pressure information right away.

Why Shielded Twisted Pair Cables for Industrial Instrumentation

Posted on April 26, 2023 by KimGuo11

Shielded twisted pair cables (STP cables) have emerged as a preferred option for many industrial applications due to their ability to mitigate interference and deliver superior signal quality.
The communication signals we see all use shielded twisted pair cables. Shielded twisted pair cables are used like PROFIBUS. For instruments like flow meters, level meters, and pressure transmitters. Signal transmission can use Shielded twisted pair cables (STP cables ).

RFQ

In daily communication, the interference of electric and magnetic fields must be shielded first. Secondly, most of them use shielded twisted pair to filter out the high frequency part of the communication signal.

The Benefits of Shielded Twisted Pair Cables in Industrial Instrumentation

Reduced Electromagnetic Interference (EMI)
One of the primary advantages of using STP cables is their ability to minimize EMI, which can cause signal degradation and affect the performance of sensitive instrumentation. The shielding in STP cables effectively blocks external electromagnetic fields, ensuring reliable data transmission.
Enhanced Signal Quality
By reducing EMI, shielded twisted pair cables maintain superior signal quality and ensure accurate data transmission for critical industrial processes.
Increased Noise Immunity
The twisted design of STP cables, combined with their shielding, provides exceptional noise immunity, making them an ideal choice for industrial environments with high levels of electrical noise.

Reasons for Single-Ended and Double-Ended Grounding in Shielded Cables

Grounding is a crucial aspect of shielded cable installations, as it determines the effectiveness of the shield against interference signals.

Single-Ended Grounding for Shielded Cables

In ideal conditions, single-ended grounding can effectively shield against weak interference signals. However, when the interference frequency increases (e.g., above 20 kHz) or the cable length exceeds λ/20, the grounding impedance and the shield’s impedance should be considered inductive rather than resistive. As a result, the overall grounding impedance increases, and the voltage in the circuit rises with the increased interference frequency. In such cases, single-ended grounding might not be sufficient to provide adequate protection against high-frequency interference.

Double-Ended Grounding for Improved High-Frequency Interference Shielding

Double-ended grounding is designed to shield against high-frequency interference. Since most communication signals are high-frequency signals and sensitive to high-frequency interference, many communication cables employ double-ended grounding (some signals are sensitive to both high-frequency and low-frequency signals). Likewise, shielding against high-frequency magnetic field interference is achieved by forming a current loop through the shielding layer, generating a reverse magnetic field that cancels out the interfering magnetic field. Without grounding, the shielding would be ineffective!

The Importance of Equipotential Grounding

Equipotential grounding is essential for maintaining the effectiveness of the shield. If equipotential grounding is not established, ground loop currents can negatively impact the shielding performance. Therefore, before implementing double-ended grounding, equipotential bonding must be performed. It is important to note that the shielding layer should not be used as a conductor for equipotential bonding.

Understanding the reasons for single-ended and double-ended grounding in shielded cables is crucial for ensuring effective protection against interference signals, particularly in high-frequency communication systems. By selecting the appropriate grounding method based on the specific conditions and frequency ranges, you can maximize the shielding performance of your cable installations and maintain the integrity of your communication signals.

Applications of Shielded Twisted Pair Cables in Industrial Instrumentation

In chemical plants, where precise control over temperature, pressure, and flow is crucial, STP cables can help ensure accurate data transmission between sensors and control systems.

For instance, numerous case studies have shown that implementing shielded twisted pair cables in chemical plants can significantly reduce signal noise (by up to 70% in some cases), resulting in improved process control.

Water treatment facilities often rely on instruments like flow meters and level meters for monitoring and controlling water flow. STP cables are commonly used in these applications to ensure reliable communication between instruments and control systems.

In the oil and gas industry, pressure transmitters play a vital role in monitoring and controlling processes such as drilling and extraction. Using STP cables in these applications can help minimize the impact of EMI, leading to more accurate pressure measurements and enhanced process control.

Product Recommendations and Customization

**Capacitive Gauge Pressure Transmitter**

Shielded twisted pair cables are an invaluable asset for industrial instrumentation, providing reliable data transmission and improved process control across various industries. As an experienced manufacturer and supplier, Sino-Inst offers a wide range of industrial instrumentation products, including flow meters, level meters, and pressure transmitters. We also support customization to meet your specific requirements. Contact us today to learn more about how our solutions can help optimize your industrial processes.

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KimGuo11

drurylandetheatre.com

Custom Case: Pressure Transducer Connector with 6 Pin Bendix Connector

Posted on April 21, 2023 by KimGuo11

6 Pin Bendix Connector is not a regular configuration for our pressure transmitters. We will share a custom case study involving a pressure transducer connector with a 6-pin Bendix connector, meeting unique customer requirements to ensure the utmost efficiency and effectiveness in their operations.

RFQ

Common Types for Pressure Transducer Connectors

In order to let everyone better understand the electrical interface of the pressure transmitter, the following briefly introduces the types of the electrical interface of the pressure transmitter.

The first type: DIN43650 interface

The DIN43650 interface is what we often call the Hessmann interface, and the sealing level is IP65.
It can be well dustproof and splashproof, so that the signal transmission has high reliability.
In addition, the wiring of the Hessman connector is simple and convenient. The Hessman connector has four terminals, which can meet most of the two-wire or three-wire output situations.
At the same time, its unique wiring method also ensures the stability of the sensor. The line is not easy to fall off and there is no interference between the lines.

The second type: cable interface

The cable interface is divided into general cable interface and sealed cable interface, and the general cable interface directly leads the cable.
The sealed cable interface is a sealed structure with the inlet end meeting the IP68 sealing protection level. It is often used in liquid level transmitters and can be soaked underwater for a long time.

The third type: aviation plug/socket interface

The aviation plug comes from the military industry, so it is named, referred to as the aviation plug. It is a relatively advanced electrical connector. The most important thing is that the aviation plug has the function of connecting or disconnecting the circuit. There are many types of options and a wide range of applications.
There are as many as 12 types of it, and the best ones to remember are the Russian military standard aviation plug and the American military standard aviation plug. Aviation sockets for communication facilities and special aviation sockets developed by ourselves.
Secondly, it is convenient for connection; it is convenient for signal distinction and will not be confused.
Such as M12*1 four-pin plug.

**SIJC-1000HSM-Silicon Pressure Sensor**

Custom Case: Meeting Unique Requirements for Low-Temperature Applications

A client from the United States approached us with a specific request for low-temperature pressure transducers featuring customized connectors. They required the use of 6 pin Bendix connectors, with the model PT02A-10-6P. To cater to their unique needs, we designed and manufactured the following custom pressure transducers:

Pressure Transducer* (2 units)
Model: SI-2088
Range: 0-500 psi
Temperature: -196°C
Output: 4-20mA
Connector: 6 pin Bendix connector (PT02A-10-6P)
Thread: ¼” NPT

Pressure Transducer* (1 unit)
Model: SI-2088
Range: 0-10000 psi
Temperature: -196°C
Output: 4-20mA
Connector: 6 pin Bendix connector (PT02A-10-6P)
Thread: ¼” NPT

These custom pressure transducers provided the client with the precise measurements and reliable connections needed for their low-temperature applications, showcasing our ability to tailor solutions to specific requirements.

6 Pin Bendix Connector

The 6 Pin Bendix Connector is a type of circular connector designed for use in harsh environments and applications requiring high reliability. It is known for its durability, resistance to extreme temperatures, and mechanical stress. The 6-pin configuration allows for multiple connection points, making it suitable for various industrial devices, including pressure transducers, sensors, and control systems.

Features of the Model PT02A-10-6P:

The PT02A-10-6P is a specific model of the 6 Pin Bendix Connector, offering several features that make it ideal for industrial applications:

High-quality materials: The PT02A-10-6P is constructed using high-quality materials such as aluminum alloy, ensuring durability and resistance to corrosion and wear.

Sealed design: This model features a sealed design, providing protection against dust, water, and other contaminants, making it suitable for use in harsh environments.

Easy installation: The PT02A-10-6P is designed for easy installation, with a user-friendly design that allows for quick and secure connections between devices.

Compatibility: The PT02A-10-6P is compatible with a wide range of industrial devices, ensuring seamless integration into various systems.

FAQ

A pressure transducer is typically connected to a control system or data logger, which interprets the electrical signal produced by the transducer and displays the corresponding pressure value. This enables operators to monitor and control various industrial processes.

To hook up a pressure transducer, you need to connect the transducer’s electrical wiring to the appropriate terminals on your control system or data logger. The process may vary depending on the specific transducer and connector types being used. It’s essential to follow the manufacturer’s guidelines and ensure compatibility between the transducer and the receiving device.

In a catheterization laboratory (cath lab), a pressure transducer is used to measure blood pressure within the heart and blood vessels. This information is crucial for diagnosing and treating various cardiovascular conditions.

The terms “pressure sensor” and “pressure transducer” are often used interchangeably. However, a pressure sensor generally refers to a device that detects changes in pressure, while a pressure transducer converts those changes into an electrical signal. Pressure transducers are a type of pressure sensor, designed specifically for transmitting pressure data to control systems or data loggers.

Wetted Materials of Pressure Senors – Definition and Overview

Posted on April 19, 2023 by KimGuo11

Wetted materials play a crucial role in the performance and reliability of pressure sensors. Understanding their importance and selecting the right materials for your application can significantly impact the accuracy and longevity of your instruments.We will explore the concept of wetted materials, their significance in pressure sensors, and tips for making the best selection.

RFQ

Defining Wetted Materials and Parts

Wetted materials pertain to the sensor’s sub-components that interact directly with the process media. When selecting these materials, it is crucial to consider their chemical resistance and adherence to regulatory specifications, as dictated by the specific manufacturing process.

Wetted parts include elements such as the sensor diaphragm, process connections, seals, and housing components that are in direct contact with the media being measured.

Common Wetted Materials in Pressure Sensors

Some of the most frequently used wetted materials in pressure sensors include:

Stainless Steel: Widely used for its durability, corrosion resistance, and affordability. It is suitable for most applications, including water, oil, and gas.
Hastelloy: An alloy known for its excellent corrosion resistance, particularly in harsh environments and aggressive media.
Monel: A corrosion-resistant alloy ideal for applications involving exposure to saltwater or corrosive chemicals.
Tantalum: Known for its exceptional chemical resistance, tantalum is often used in applications involving highly corrosive media.
PTFE (Teflon): A popular choice for its chemical inertness and compatibility with a wide range of media, PTFE is often used in seals and gaskets.
Ceramic: Often used for diaphragms in pressure sensors, ceramic materials provide excellent chemical resistance and stability.

**SI-350 Sanitary Pressure Transmitter**

**Remote Diaphragm Seal Pressure Transmitter**

**Flange Mounted Differential Pressure Transmitter**

**Extended Diaphragm Seal DP Level Transmitter**

Selecting the Right Wetted Materials for Your Application

To choose the best wetted materials for your pressure sensor application, consider the following factors:

a. Chemical Compatibility: Ensure that the wetted materials are compatible with the process media to prevent corrosion, degradation, or contamination.

b. Operating Conditions: Consider the temperature and pressure ranges in your application, as well as any potential mechanical stresses or vibrations.

c. Regulatory Requirements: Familiarize yourself with any industry-specific regulations that may dictate the use of particular wetted materials.

d. Cost: Balance the cost of wetted materials with their performance and durability to ensure the best return on investment.

RFQ

Wetted parts refer to the components of an instrument, such as a pressure sensor, that come into direct contact with the process media. These parts include elements like the sensor diaphragm, process connections, seals, and housing components.

Wetted parts of instruments are the components that are directly exposed to the process media. In a pressure sensor, wetted parts may include the sensor diaphragm, process connections, seals, and housing components.

Wetted parts of a valve are the components in direct contact with the fluid being controlled. These may include the valve body, stem, ball, seats, and seals.

Wetted parts of a transmitter are the components that come into direct contact with the process media. In a pressure transmitter, wetted parts may include the sensor diaphragm, process connections, seals, and housing components.

Choose Stainless Steel Pressure Transducers

Posted on April 17, 2023 by KimGuo11

Stainless steel pressure transducers are indispensable tools in various industries, providing accurate, reliable, and stable measurements in demanding environments.

We’ll also provide a comparison with other pressure sensor materials and showcase some popular stainless steel pressure sensor models.

RFQ

Stainless steel pressure transducers are designed to measure pressure by converting the applied force into an electrical signal. These devices typically utilize piezoresistive, capacitive, or piezoelectric sensing elements, which are housed in a stainless steel casing. The stainless steel construction provides numerous advantages, including corrosion resistance, durability, and temperature tolerance.

Popular Stainless Steel Pressure Transducers

**SI-703 Flush diaphragm pressure sensor**

Advantages of Stainless Steel Pressure Transducers

Some key benefits of stainless steel pressure transducers include:

Corrosion resistance: Stainless steel is resistant to corrosion, making it suitable for use in harsh environments and with corrosive fluids.
Durability: The rugged construction of stainless steel pressure sensors ensures long-lasting performance, even in demanding conditions.
High-temperature tolerance: Stainless steel can withstand high temperatures, making it ideal for use in heat-intensive applications.
Low maintenance: Stainless steel pressure sensors require minimal maintenance, contributing to reduced downtime and lower overall costs.

5 Main Groups of Stainless Steel and Their Applications in Pressure Transducers

Stainless steel is a versatile material commonly used in the manufacturing of pressure transducers due to its excellent mechanical properties and corrosion resistance. There are five main groups of stainless steel, each with distinct characteristics and applications in the field of pressure transducers. In this section, we’ll explore these five groups, their properties, and their roles in pressure transducer manufacturing.

Ferritic stainless steel is ferromagnetic and cannot be hardened by heat treatment due to its low carbon content. One example is type 430, a low-cost stainless steel with limited properties compared to other types. It offers less corrosion resistance, lower strength, poorer weldability, and toughness. Type 430 is used in lower-cost pressure transducer assemblies and in the construction of electromechanical components, such as sensing diaphragms.

Similar to ferritic stainless steel, martensitic stainless steel has a higher carbon proportion, allowing it to be strengthened by heat treatment. However, this type is not commonly used in pressure transducer manufacturing.

Austenitic stainless steel is the most common group, offering good all-around performance with workability and weldability. This group cannot be hardened by heat treatment, but the addition of nickel increases toughness. Some popular austenitic stainless steels include:

Type 303: Easily machinable due to the inclusion of sulfur, but with lower corrosion resistance and toughness compared to other austenitic steels. Used for making fittings and manifolds.
Type 304: Offers higher corrosion resistance than type 303 and has excellent forming and welding characteristics. Commonly used for components exposed to pressure media and formed parts such as electronic housings.
Type 316: More corrosion-resistant than type 304 due to the addition of molybdenum. Its increased resistance to crevice corrosion and pitting, along with good weldability, make it popular for marine applications. Used in the manufacture of thin diaphragms for sensing elements and other pressure-side components.
Type 316L: A low-carbon variant of type 316 that improves the corrosion resistance of welds.
Type 316Ti: Similar properties to 316L, with weld decay prevented by the inclusion of titanium rather than lowering the carbon content.

Duplex stainless steel is a mixture of ferritic and austenitic types, resulting in a stronger steel with high weldable and forming properties. Its most significant benefit is its enhanced protection from corrosion cracking. Duplex materials are typically used in special applications, such as offshore oil production, where high levels of pressure are measured with highly corrosive media.

This type of stainless steel is heat-treated via the precipitation hardening process, enhancing its strength considerably over normal martensitic types. An example is type 17-4PH, which has high strength and toughness, with similar corrosion protection to type 304. This steel can be used in the manufacture of sensing diaphragms and pressure containment components, particularly in high-pressure applications, but offers limited corrosion protection.

In conclusion, understanding the five main groups of stainless steel and their applications in pressure transducers can help you make informed decisions when selecting the right material for your specific needs. Partnering with an experienced manufacturer and supplier, Sino-Inst, ensures you receive a high-quality stainless steel pressure transducer tailored to your application requirements.

Key Factors to Consider When Selecting a Stainless Steel Pressure Transducer

When choosing a stainless steel pressure transducer, consider the following factors:

Pressure range: Ensure the transducer’s pressure range is compatible with the maximum pressure in your application.
Accuracy: Select a transducer with an accuracy level that meets your specific requirements.
Temperature range: Consider the temperature range of your application and choose a transducer that can withstand those conditions.
Output signal: Determine the type of output signal your system requires (e.g., 4-20mA, 0-10V, etc.) and select a transducer accordingly.
Media compatibility: Ensure the transducer’s wetted materials are compatible with the media being measured (e.g., liquids, gases, etc.).
Process connection: Choose a transducer with a process connection that matches your system’s requirements.

FAQ

A pressure sensor converts pressure into an analog electrical signal (e.g., voltage or current), while a pressure transducer converts pressure into a digital electrical signal (e.g., 4-20mA or 0-10V output). Pressure transducers generally offer better accuracy, resolution, and reliability compared to pressure sensors.

Pressure transducers can be made from various materials, including stainless steel, ceramic, and plastic. The choice of material depends on the application, media compatibility, and environmental conditions.

The most common type of pressure transducer is the piezoresistive transducer, which measures pressure by monitoring the resistance changes in a strain-sensitive material (e.g., silicon, metal, or ceramic) when pressure is applied.

The three main types of electrical pressure transducers are:

Piezoresistive transducers: These transducers measure pressure by monitoring resistance changes in a strain-sensitive material when pressure is applied.

Capacitive transducers: These transducers measure pressure by detecting changes in capacitance between two plates as pressure is applied.

Piezoelectric transducers: These transducers measure pressure by generating an electrical charge in response to mechanical stress caused by pressure.

Top 5000 PSI Pressure Transducers: A Pre-Purchase Guide

Posted on April 16, 2023 by KimGuo11

Pressure transducers play a crucial role in various industries for monitoring and controlling process pressures. In high-pressure applications, such as oil and gas, hydraulics, and process control, 5000 PSI pressure transducers are essential. This comprehensive pre-purchase guide will help you understand the key features, technical specifications, and applications of top 5000 PSI pressure transducers, ensuring you make an informed decision when selecting the best product for your specific needs.

RFQ

Understanding 5000 PSI Pressure Transducers

A 5000 PSI pressure transducer is an electronic device designed to convert pressure into an electrical signal, typically 4-20mA, 0-5V, or 0-10V. With an operating pressure range of up to 5000 pounds per square inch (PSI), these transducers are well-suited for high-pressure applications and provide accurate, reliable, and stable pressure measurements.

You may be used to different units,

5000 PSI = 5000 * 6,894.76 Pa = 34,473,800 Pa
5000 PSI = 5000 * 0.0689476 Bar = 344.738 Bar
5000 PSI = 5000 * 0.06804596 atm = 340.2298 atm
5000 PSI = 5000 * 6.89476 kPa = 34,473.8 kPa
5000 PSI = 5000 * 68.9476 mbar = 344,738 mbar
5000 PSI = 5000 * 51.71493 Torr = 258,574.65 Torr
5000 PSI = 5000 * 2.03602 inHg = 10,180.1 inHg

Read more about: Conversion Relationships Between Pressure Units

Top 5000 PSI Pressure Transducers

We supply 5000 PSI Pressure Transducers in different prices. From USD80/pc to USD300/pc. According to your different measurement parameters, different function configurations, the price is also different.

Key Features and Technical Specifications

When selecting a 5000 PSI pressure transducer, consider the following essential features and specifications:

a. Accuracy: The accuracy of a pressure transducer is crucial for reliable measurements. Look for products with a high accuracy rating, typically expressed as a percentage of full-scale output (FSO).

b. Pressure Range: Ensure the transducer can accurately measure pressures up to 5000 PSI, as well as any required lower pressure ranges.

c. Output Signal: Common output signals include 4-20mA, 0-5V, or 0-10V. Choose a transducer with an output signal compatible with your existing control and monitoring systems.

d. Wetted Materials: The wetted materials should be compatible with the process media to prevent corrosion and ensure a long service life. Common materials include stainless steel, Hastelloy, or Inconel.

e. Connection Type: Pressure transducers are available with various connection types, such as NPT, BSP, or SAE.

f. Environmental Conditions: Consider the operating temperature, humidity, and ingress protection (IP) rating to ensure the transducer can withstand the specific environmental conditions in your application.

Refer to our guide on selecting the ideal pressure transducer for more information.

Applications and Industries

5000 PSI pressure transducers are commonly used in various industries, including:

a. Oil and Gas: High-pressure measurements are essential in drilling, production, and transportation processes to ensure safety and efficiency.

b. Hydraulics: Pressure transducers monitor and control hydraulic systems in industrial and mobile equipment, such as presses, cranes, or excavators.

c. Process Control: Accurate pressure measurement is crucial for maintaining stable and safe processes in chemical, petrochemical, and pharmaceutical industries.

d. Water and Wastewater: High-pressure transducers are used for pump control, water treatment, and leak detection in water supply and wastewater management systems.

FAQ

The maximum pressure for a pressure transducer varies depending on the specific model and manufacturer. Some transducers can measure pressures up to 5000 PSI or even higher. Of course, we also have ultra-high pressure pressure sensors up to 700MPa for option.

PSI transducers are available in various pressure ranges, from low-pressure applications (e.g., inches of water column) to high-pressure applications (e.g., 5000 PSI or higher).

A pressure sensor is a general term for a device that measures pressure, while a pressure transducer is a specific type of pressure sensor that converts pressure into an electrical signal (e.g., 4-20mA, 0-5V, or 0-10V).

The cost of a high-pressure transducer depends on factors such as the pressure range, accuracy, output signal, and manufacturer. Prices can range from a few hundred to several thousand dollars.

Submersible Pressure Transducers 101: Guide to Precise Level Measurements

Posted on April 14, 2023 by KimGuo11

A submersible pressure transducer is a device designed to measure the pressure and level of liquids in tanks, wells, and other underwater environments. These transducers are engineered to withstand harsh conditions, such as high pressure and corrosive materials, making them ideal for use in a variety of industries. The core function of a submersible pressure transducer is to convert pressure signals into electrical signals, which can then be analyzed and processed by other devices.

RFQ

How Does a Submersible Pressure Transducer Work?

Submersible pressure transducers typically use a diaphragm, which deforms under pressure.
As the liquid level increases, the pressure on the diaphragm also increases, causing it to change shape.
This change is then detected by a sensing element, such as a strain gauge or piezoelectric sensor, which generates an electrical signal proportional to the pressure.
The electrical signal is then transmitted to a processing unit or display, which converts the signal into a pressure or level reading.

Applications of Submersible Pressure Transducers in Water Resources Investigations

Submersible pressure transducers are widely used in various water resources management applications, including:

Groundwater Monitoring: Submersible pressure transducers are used to measure the water level in wells and aquifers, providing essential data for water resource management and conservation.
Surface Water Monitoring: These transducers can be used to monitor the levels of rivers, lakes, and reservoirs, which is vital for flood management and water quality control.
Wastewater Treatment: Submersible pressure transducers are utilized in wastewater treatment plants to monitor the level of water and sludge in tanks and other processing equipment.
Irrigation Systems: These devices are used to measure water levels in irrigation channels and canals, ensuring optimal water distribution for agriculture.

Differences Between Pressure Sensors and Pressure Transducers

While pressure sensors and pressure transducers both measure pressure, there are some key differences between them:

Pressure Sensors: These devices convert pressure into an electrical signal but do not include any signal conditioning or processing. The output signal from a pressure sensor is typically raw and requires further processing to obtain a usable measurement.

Pressure Transducers: In contrast, pressure transducers incorporate signal conditioning and processing, providing a more refined and usable output signal. The output from a pressure transducer is typically in the form of a voltage, current, or digital signal that can be directly used by other devices.

**Hygienic / Sanitary Pressure Transmitter**

Factors to Consider When Choosing a Submersible Pressure Transducer

When selecting a submersible pressure transducer, consider the following factors:

Pressure Range: Or level range. Choose a transducer with a pressure range suitable for your application. The pressure range should cover the maximum and minimum pressure levels you expect to encounter.
Accuracy: Consider the accuracy required for your application. Higher accuracy transducers are often more expensive but provide more precise measurements, which can be crucial in certain industries.
Temperature Range: Ensure that the transducer can withstand the temperature range of your application, as extreme temperatures can affect the performance and longevity of the device.
Material Compatibility: Choose a transducer made of materials that are compatible with the liquids being measured to prevent corrosion or damage.
Output Signal: Select a transducer with an output signal that is compatible with your existing monitoring or control systems.
Cable Length: Consider the cable length needed to connect the transducer to your monitoring equipment, ensuring it is long enough to reach the desired depth.
Installation and Maintenance: Opt for a transducer that is easy to install and maintain, reducing downtime and overall costs.

**SI-PCM260 Deep Well Water Level Sensor**

**SI-PCM261 Submersible Pressure Transducer**

**Pressure Guided Submersible Level Transmitter**

**SI-302 Anti-corrosive Submersible Level Transmitter**

FAQ

A submersible pressure transducer is a device designed to measure the pressure and level of liquids in tanks, wells, and other underwater environments. They are engineered to withstand harsh conditions, such as high pressure and corrosive materials.

Submersible pressure transducers work by using a diaphragm that deforms under pressure. As the liquid level increases, the pressure on the diaphragm also increases, causing it to change shape. This change is detected by a sensing element, which generates an electrical signal proportional to the pressure. The signal is then transmitted to a processing unit or display, which converts it into a pressure or level reading.

Submersible pressure transducers are widely used in water resources management applications, including groundwater monitoring, surface water monitoring, wastewater treatment, and irrigation systems. They provide essential data for water resource management and conservation.

The main difference between pressure sensors and pressure transducers is that pressure sensors convert pressure into an electrical signal but do not include any signal conditioning or processing. In contrast, pressure transducers incorporate signal conditioning and processing, providing a more refined and usable output signal.

0-5 Volt Pressure Transducers

Posted on April 6, 2023 by KimGuo11

A 0-5 volt pressure transducer is a specialized sensor that transforms pressure into a linear 0-5 volt output signal, corresponding to a specified pressure range. Equipped with amplified signal conditioning electronics and 3 or 4 wire configurations. This transducer’s output can be easily interpreted by various devices like data loggers, programmable logic controllers (PLCs), or microcontrollers.

RFQ

What is the 0-5 Volts signal output?

The 0-5 volts signal output is an analog voltage signal produced by devices. Such as pressure transducers. Where the output voltage varies linearly between 0 and 5 volts, depending on the input or measured parameter.

In the case of a 0-5 volt pressure transducer, the output voltage represents the pressure applied to the sensor. Making it easy for data acquisition systems and controllers to interpret and process the information.

Featured 0-5 Volts Pressure Transducers

0-5 volt pressure transducer Principle of Operation

The 0-5 volt pressure transducer typically uses a Wheatstone bridge circuit, which consists of four resistive elements. When pressure is applied to the sensing element, it causes a change in the resistance of the elements in the Wheatstone bridge. This change results in a proportional output voltage, ranging from 0 to 5 volts, depending on the pressure applied.

Purchase Checklist for 0 to 5 volts output pressure transducers

When purchasing a 0-5 volt output pressure transducer, consider the following checklist:

No.	Checklist Item	Description
1	Pressure Range	Ensure the transducer measures the required pressure range for your application.
2	Accuracy	Check the transducer’s accuracy to ensure it meets your measurement precision needs.
3	Temperature Range	Verify the transducer operates within your working environment’s temperature range.
4	Output Signal	Confirm the transducer provides a 0-5 volt output signal compatible with your system.
5	Power Supply	Ensure the transducer’s power supply requirements match the available power source.
6	Connection Type	Choose the appropriate electrical connection type (e.g., 3 or 4 wire configuration).
7	Pressure Port	Select a suitable pressure port connection (e.g., NPT, BSP) for your application.
8	Enclosure Rating	Check the transducer’s enclosure rating to ensure it withstands your application’s conditions.
9	Material Compatibility	Verify the transducer’s wetted materials are compatible with the media being measured.

What is a Voltage Pressure Transducer?

The Inner Workings of Voltage Pressure Transducers

Why Voltage Output Signals?

Voltage Output Wiring Configurations

Our Top Voltage Pressure Transducer Picks

Applications of Voltage Output Pressure Transducers

FAQ

What is a voltage pressure transducer?

What is the input voltage of a pressure transducer?

How do you check the voltage on a pressure transducer?

What is a 4-20mA pressure transducer?

What is a Differential Pressure Sensor?

types of differential pressure sensors

Working Principles of Differential Pressure Sensors

Featured Industrial Differential pressure Transmitters

Differential Pressure Sensors Vs. Pressure Sensors

1. Measurement Method

2. Application

3. Complexity and Cost

Applications of Differential Pressure Sensors

FAQ

What does a differential pressure sensor do?

What is the difference between a pressure sensor and a differential pressure sensor?

What is a differential pressure sensor for air?

Is a differential pressure sensor a transducer?

What is the purpose of a differential pressure sensor?

How does a differential pressure flow sensor work?

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Top Digital Pressure Transducers with Display

Advantages of Pressure Transducer with Display

FAQ

What is the difference between a pressure sensor and a pressure transducer?

What is a digital pressure transducer?

What is a 4-20mA pressure transducer?

Is a pressure transducer analog or digital?

Process Applications of Digital Pressure Transducers with Display

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The Benefits of Shielded Twisted Pair Cables in Industrial Instrumentation

Reasons for Single-Ended and Double-Ended Grounding in Shielded Cables

Applications of Shielded Twisted Pair Cables in Industrial Instrumentation

Chemical Plants

Water Treatment Facilities

Oil and Gas Industry

Product Recommendations and Customization

Common Types for Pressure Transducer Connectors

Custom Case: Meeting Unique Requirements for Low-Temperature Applications

6 Pin Bendix Connector

FAQ

What is a pressure transducer connected to?

How do you hook up a pressure transducer?

What is a pressure transducer in a cath lab?

What is the difference between a pressure sensor and a pressure transducer?

More Pressure Measurement Solutions

Defining Wetted Materials and Parts

Common Wetted Materials in Pressure Sensors

Selecting the Right Wetted Materials for Your Application

RFQ

What does wetted parts mean?

What are wetted parts of instruments?

What is wetted parts of a valve?

What are wetted parts of a transmitter?

More Pressure Measurement Solutions

Popular Stainless Steel Pressure Transducers

Advantages of Stainless Steel Pressure Transducers

5 Main Groups of Stainless Steel and Their Applications in Pressure Transducers

Ferritic Stainless Steel

Martensitic Stainless Steel

Austenitic Stainless Steel

Duplex Stainless Steel

Precipitation-Hardenable Martensitic Stainless Steel

Key Factors to Consider When Selecting a Stainless Steel Pressure Transducer

FAQ

What is the difference between a pressure sensor and a transducer?

What are the materials of pressure transducer?

What is the most common pressure transducer?

What are the three main types of electrical pressure transducers?

More Pressure Measurement Solutions

Understanding 5000 PSI Pressure Transducers

Top 5000 PSI Pressure Transducers

Key Features and Technical Specifications