Wireless Pressure Transmitter

$ 245.00$ 695.00

Wireless Pressure Gauge is a digital gauge with local display and data storage and communication function together.   It has a 100 thousand data storage capacity, USB communication and other bundled software which has functions of data acquisition, analyze, report and graph.  Humanized interface design and efficient data processing ability.  Six figures display on big LCD screen, very striking, which is the essentials of experimental data acquisition.


SRS’s Wireless Pressure Transmitter solution helps you touch more of your plant with intelligence than ever before.  The Greatest benefit of a wireless Pressure Transmitter is the massive savings of installed cost with an average savings of up to 90% over wired technologies.  You can eliminate “blind spots” in your plant where it was previously too difficult or expensive to install wired instruments.

A wireless pressure transmitter is a sophisticated device that measures pressure and wirelessly transmits the data to a receiving device or system.  It offers the convenience of remote monitoring without the need for physical wiring, providing flexibility and ease of installation.  In this description, we will explore the various components, working principles, features, and applications of a wireless pressure transmitter.

A wireless pressure transmitter comprises several key components.  The primary element is the pressure sensor, which converts the applied pressure into an electrical signal.  These sensors can be based on various technologies such as strain gauges, piezoelectric crystals, or capacitive sensors.  The selection of the sensor technology depends on factors like the pressure range, accuracy requirements, and the environment in which the transmitter will be used.


The transmitter also consists of signal conditioning circuitry, which amplifies and filters the electrical signal from the pressure sensor to enhance its reliability and accuracy.  The conditioned signal is then digitized by an analog-to-digital converter (ADC) to convert it into a digital format suitable for wireless transmission.

Furthermore, a microcontroller unit (MCU) or a microprocessor controls the overall operation of the transmitter.  It performs tasks such as calibration, compensation, and communication protocols.  Additionally, the transmitter includes a wireless transceiver module, which enables wireless communication between the transmitter and the receiving device.  Common wireless technologies used in pressure transmitters include Wi-Fi, Bluetooth, Zigbee, or proprietary RF protocols.

Electrical Requirements of a Wireless Pressure Transmitter

One of the primary features of a wireless pressure transmitter is its ability to transmit pressure data over a wireless network.  It eliminates the need for physical cables and enables remote monitoring of pressure in real-time.  The transmitter may include a built-in power source, such as a battery, or maybe powered through external sources like solar panels or energy harvesting techniques, ensuring continuous operation over extended periods.

Wireless pressure transmitters find application in various industries and systems.  In industrial settings, they are commonly used for monitoring and controlling pressures in processes such as manufacturing, oil and gas, chemical, and water treatment.  They can be utilized in pipeline monitoring, pressure vessels, HVAC systems, and pneumatic systems, among other applications.

Working Principle

The working principle of a wireless pressure transmitter involves several stages.  First, the pressure sensor detects the applied pressure and converts it into an electrical signal.  This analog signal undergoes conditioning and amplification to improve its accuracy and reliability.  The conditioned signal is then digitized by the ADC, resulting in a digital representation of the pressure value.

Next, the microcontroller processes the digital pressure data, applying any necessary calibration or compensation algorithms.  The transmitter may incorporate temperature compensation techniques to account for variations in ambient temperature that can impact the accuracy of pressure measurements.


The microcontroller utilizes the wireless transceiver module to establish a wireless connection with the receiving device.  This typically involves establishing a secure authentication and encryption protocol to ensure the confidentiality and integrity of the transmitted data.  Once the wireless connection is established, the transmitter sends the digital pressure data packets to the receiving device.

On the receiving end, a compatible device or system receives the pressure data packets from the transmitter.  It can be a computer, a smartphone, a dedicated monitoring device, or an automation system.  The receiving device can display the real-time pressure data, log it for historical analysis, generate alerts or notifications when pressure thresholds are exceeded, or integrate it into a larger monitoring and control system.


Wireless pressure transmitters offer several advantages over their wired counterparts. They provide flexibility in terms of installation, enabling the monitoring of pressure in hard-to-reach or hazardous locations.  The absence of physical wiring simplifies maintenance and reduces the risk of damage or interference with other equipment. Wireless transmitters can also be easily repositioned or relocated as needed.

In terms of maintenance and management, wireless pressure transmitters may incorporate self-diagnostic capabilities for identifying faults or irregularities in the measurement process.  They may also support over-the-air (OTA) firmware updates, allowing for easy software upgrades and ensuring compatibility with evolving wireless protocols or security standards.

In conclusion, a wireless pressure transmitter is a sophisticated device that enables remote and wireless monitoring of pressure.  It incorporates components such as a pressure sensor, signal conditioning circuitry, microcontroller, and wireless transceiver, which work together to measure, process, and transmit pressure data.  The flexibility, convenience, and range of applications make wireless pressure transmitters invaluable in various industries, from industrial automation to oil and gas, and beyond.


While wireless pressure transmitters offer numerous advantages, they also come with a few disadvantages.  Here are some common drawbacks associated with wireless pressure transmitters:

Limited Range

Wireless pressure transmitters typically have a limited wireless range, especially when compared to wired counterparts.  The range can be affected by various factors such as obstacles, interference, and the transmitting power of the device.  In situations where monitoring points are located far apart or in challenging environments, additional repeaters or signal boosters may be necessary to ensure reliable communication.

Potential Interference

Wireless communication can be susceptible to interference from other wireless devices operating on similar frequency bands.  This interference can affect the reliability and accuracy of the transmitted pressure data.  Careful frequency planning and selection of wireless technology with good interference resistance can help mitigate the impact of interference, but it remains a challenge in certain environments.

Power Dependency

Wireless pressure transmitters require a power source to operate, whether in the form of batteries or an external power supply.  Battery-powered transmitters may introduce concerns regarding battery life and the need for regular replacement or recharging.  Power consumption also needs to be optimized to prolong the operational lifespan of the transmitter.

Potential Signal Loss or Disruption

Wireless signals can be susceptible to signal loss or disruption due to environmental factors such as obstacles, electromagnetic interference, or even wireless signal fading.  In certain environments where there are significant obstructions or high interference levels, maintaining a reliable wireless connection can be challenging.

Security Risks

Wireless communication comes with inherent security risks.  Without proper encryption and authentication protocols, transmitted pressure data can be vulnerable to interception, tampering, or unauthorized access.  Implementing robust security measures, such as encryption protocols and secure communication channels, is crucial to ensure the confidentiality and integrity of the transmitted data.

Higher Cost

Wireless pressure transmitters generally come at a higher cost compared to their wired counterparts.  The additional wireless communication components, such as transceiver modules and associated electronics, contribute to the overall cost of the device.  Moreover, the need for additional repeaters or signal boosters may also incur extra expenses in large or complex installations.

Maintenance Requirements

Wireless pressure transmitters require periodic maintenance and monitoring to ensure proper functionality and system integrity.  This includes monitoring battery levels, checking wireless signal strength, and verifying communication performance. Additionally, firmware updates may be necessary to address security vulnerabilities or to improve system performance.

It is worth noting that while these disadvantages exist, wireless pressure transmitters continue to be widely used in various applications due to their numerous benefits and the ongoing advancements in wireless communication technologies.  The disadvantages can often be addressed through careful planning, proper installation, and the implementation of appropriate measures to mitigate the associated risks.

Also, Remote locations, physical obstructions, and the high cost of engineering and integrating the necessary technologies are no longer the barriers they were.   SRS’s Wireless Pressure Transmitter makes extending your “information reach” easy and affordable, enabling you to unleash your imagination and operation.  SRS’s Wireless seamlessly scales and integrates with your wired network.  Self-organizing to provide near-perfect reliability; SRS’s Wireless offers unparalleled ease of use.

  • No-equal, scalable architecture optimizes performance, functionality, and process connections
  • Wireless HART / ZigBee technology is secure, cost-effective, and delivers >99% data reliability
  • Also, it is designed with direct threaded connections or manifolds and remote seals for a quick and cost-effective installation
  • Ultra and Classic Performance classes provide accuracy up to 0.025% of the span
  • In addition, stability and 200:1 range down produce reliable measurements and wide application flexibility
  • Moreover, Piezoresistive sensor technology allows calibrated spans from 0.3 to 10000 psi (20.7 mbar to 689 bar)
  • In addition, its Easy installation enables quick instrumentation of measurement points without the cost of wiring

Remote Diaphragm

  • Protects transmitter diaphragm from corrosive, erosive, or extreme temperature processes
  • Also, a Wide variety of seals meet varying process requirements and specifications, including industry-specific applications
  • In addition, it eliminates the need for mounting hardware to reduce installation costs
  • Adaptable direct mount gage or absolute seal system can be used for pressurized or vented tank applications
  • Finally, the system can reduce temperature effects by 10-20% and improve response time by 80% vs. traditional installations


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Additional information

Weight 4 lbs
Dimensions 13 × 13 × 13 in
Type of Connection

Flanged, NPT Threaded, Triclamp


Explosion Proof, General Duty




Product features

11 units display:  Pa, kPa, MPa, psi, bar, mbar, kgf/cm2, inH2O, mmH2O, inHg, mmHg
0.025 ~ 7200 seconds per time acquisition speed
4.1V rechargeable battery
100 thousand data storage capacity, easy to carry and collect data
Magnetic induction button design
Pressure percentage bar charts shows
Signal isolation technique, anti-electromagnetic interference and RFI technique
Zero stable technology, automatic temperature compensation technology

Product application

Oil and gas pressure data collection,  storage and analysis
Urban water network, heat supply network and gas network pressure data collection,  storage and analysis
Lab pressure test and analyze
Verify pressure (differential pressure) transmitter, precision pressure gauge, general pressure gauge
measuring corollary software of pressure monitor and other pressure instruments,
accuracy grade can arrive 0.05, which can meet high precision pressure acquisition
can work well in corrosive, impact and versatility environment
meet the lab and industrial field high precision pressure acquisition requirement

Product Parameters: 

Display unit:  Pa, kPa, MPa,  psi, bar, mbar, kgf/cm2, inH2O, mmH2O, inHg, mmHg

Measuring Range:

Gage Pressure:  -0.1MPa~260MPa
Differential Pressure:  0~3.5MPa
Absolute Pressure:  0~60MPa
Accuracy grade:  0.05  0.1  0.2  0.5

Communication:  RS485, USB

Span shift:  Suggested less than 3:1

Power supply mode:  Build-in one 4.1V rechargeable battery

Picking rate:

Picking rate 50times per second 40times per second 30times per second
Time range setting 0.02-140s per time 0.025-180s per time 0.033-240s per time
Picking rate 20times per second 10times per second one time per second
Time range setting 0.05-360s per time 0.1-720s per time 1-7200s per time

Stability Performance:  +0.1% FS per year

Battery life:

Picking rate 4 times per second 2 times per second 1 time per second 1 time per 2s
Life time 2.8 yeas 5 years 5.5 years 7 years
Picking rate 1 time per 3s 1 time per 4s 1 time per (5-10)s
Life time 9 years More than 10 yeras More than 10 years


Operating temperature: -30℃~70℃

Relative humidity: <90%

Barometric pressure: 86-106KPa


Calibration reference operating temperature 20℃±2℃
0.05 accuracy requires operating temperature 0-50℃

Medium Temperature:

General temperature range (-40~120)℃

Wide temperature range (-60~150)℃

Display mode:  Five figures dynamic display and percentage bar chart

Protection Degree:  IP65

Classification:  Exdl: ExiaIICT4 Ga

Overload Pressure:  1.5-3 times of measuring range, depending on the measuring range

Software configuration:

SRSANCNView R-SD digital instrument test software displaying instrument data, automatic recording, automatic drawing pressure curve and deriving to Excel, reading, printing and storage.

Process Connection:

Metric M20×1.5、M14×1.5、M14×1
US/UK Standard:  G1/2, G3/4, G1/8, G3/8, NPT 1/2, NPT 1/4, NPT 1/8


SRSACD-Z3 – Pressure Transmitter Specifications


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