Wireless Temperature Transmitter

$ 795.00$ 925.00

The SRS Wireless Temperature Transmitter approach gives you the freedom to choose your path.  You can have as much or as little wireless as you want, where you want.  With little to no up-front engineering and design required, scalable architecture and easy deployment.  Installation costs are over 90%.

Description

SRS’s Wireless Temperature Transmitter solution helps you touch more of your plant with intelligence than ever before.  The Greatest benefit of wireless is the massive savings in 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 temperature transmitter is a device that measures and wirelessly transmits temperature data from a remote location to a receiving device or system.  It offers the convenience of monitoring temperature 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 temperature transmitter.

Key Components

The wireless temperature transmitter consists of several key components.  Firstly, there is a temperature sensor, which is typically a thermocouple, a resistance temperature detector (RTD), or a thermistor.  The sensor accurately measures the temperature of the environment and converts it into an electrical signal proportional to the temperature value.  This data is then processed by an analog-to-digital converter (ADC) to convert it into a digital format suitable for transmission.

The transmitter also contains a microcontroller unit (MCU) or a microprocessor, which controls the overall operation of the device.  It performs tasks such as signal conditioning, data processing, and communication protocols. Additionally, the transmitter includes a wireless transceiver module, which facilitates wireless communication between the transmitter and the receiving device.  Common wireless technologies used in temperature transmitters include Wi-Fi, Bluetooth, Zigbee, or proprietary RF protocols.

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

Integration

Wireless temperature transmitters can be integrated into various systems and applications.  Additionally, in industrial settings, they are used for monitoring temperature in manufacturing processes, HVAC systems, data centers, and cold storage facilities.  Also, in healthcare, they are employed for monitoring patient body temperature in hospitals or for monitoring the temperature of vaccines and drugs during storage and transportation.

The working principle of a wireless temperature transmitter involves several stages. Firstly, the temperature sensor detects the ambient temperature and converts it into an electrical signal.  This analog signal is then conditioned and amplified to improve its accuracy and reliability.  The conditioned signal is then digitized by the ADC, yielding a digital representation of the temperature value.

Next, the microcontroller processes the digital temperature data, applying any necessary calibration or compensation algorithms.  Moreover, the transmitter may incorporate temperature compensation techniques to account for environmental factors that can affect the accuracy of the measurements, such as self-heating or ambient temperature changes.

Microcontroller

The microcontroller then utilizes the wireless transceiver module to establish a wireless connection with the receiving device.  This may involve establishing a secure authentication and encryption protocol, ensuring the confidentiality and integrity of the transmitted data.  Once the wireless connection is established, the transmitter sends the digital temperature data packets to the receiving device.

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

Conclusion of Wireless Temperature Transmitters

In conclusion, a wireless temperature transmitter is a sophisticated device that enables remote and wireless monitoring of temperature.  Its components, including a temperature sensor, microcontroller, and wireless transceiver, work together to capture, process, and transmit temperature data to a receiving device or system.  The flexibility, convenience, and range of applications make wireless temperature transmitters invaluable in various industries, from industrial automation to healthcare and beyond.

Also, Remote locations, physical obstructions, and the high cost of engineering and integrating the necessary technologies are no longer the barriers they were.  

Furthermore, SRS’s Wireless makes extending your “information reach” easy and affordable, enabling you to unleash your imagination and operation. 

In addition, 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.  

 

In addition, do we have other Types of Wireless Instruments?

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Gateway for Instrumentation

Converting Instruments to Wireless

Additional information

Weight 4 lbs
Dimensions 10 × 10 × 16 in
Size

1/2", 3/4", 1", 1-1/2", 2"

Type of Connection

Flanged, NPT Threaded, Triclamp

Element Length

2", 4", 6", 8", 12"

Thermowell

Yes, No

Classification

Explosion Proof, General Duty

Power

Battery, Solar+Battery

Communication Protocol

RS485, 4-20MA, RELAY

Remote Display

Yes, No

Display

Yes, No

QC Test Certificate

Yes, No

Specifications

Input:  Single sensor capability with universal sensor inputs (RTD, T/C, mV, ohms)
Output Signal:  Wireless HART / Zigbee protocol
Housing:  Dual-compartment field mount
Display/Interface:  Large LCD with percent range graph
Diagnostics:  Basic diagnostics including open/short sensor diagnostics
Calibration Options:  Transmitter-sensor matching
Certifications/Approvals:  Hazardous location, marine type, see full specs for a complete list of certifications
Update Rate:  1 sec. to 60 min., user selectable
Power Module Life:  Up to 10-year life, field replaceable (order separately)Antenna Type:  External (standard and extended range)

Wireless Temperature Transmitter HART / Zigbee technology is secure, cost-effective, and delivers >99% data reliability

Best-in-class wireless accuracy and stability for process automationDurable dual-compartment housing offers added field reliabilityThe technology measures temperature without a process penetration for reduced design, installation, and maintenance costsWireless Temperature Transmitter sensor matching produces better accuracy, matching exact sensor characteristics with the transmitterLCD offers access to measurement and diagnostic information in the field, enhancing process visibilityThe internal module provides up to 5-year maintenance-free operation and field replacement without transmitter removal

Easy installation enables quick instrumentation of measurement points without the cost of wiring

Communication Options

LoRa (Long Range), NB-IoT (Narrowband IoT), and 4G are different wireless communication technologies, each with unique characteristics and use cases:

LoRa

  • LoRa is a low-power, long-range wireless communication technology designed for connecting battery-operated devices over long distances.
  • It operates in the unlicensed radio spectrum, offering long-range connectivity with minimal power consumption, making it suitable for Internet of Things (IoT) applications such as smart city infrastructure, agriculture, and industrial monitoring.
  • LoRa is known for its ability to penetrate obstacles and provide reliable communication in challenging environments.

NB-IoT

  • NB-IoT, or Narrowband IoT, is a Low Power Wide Area Network (LPWAN) technology designed for long-range, low-power IoT applications using licensed cellular bands.
  • It provides deeper coverage compared to traditional cellular networks and is optimized for efficient data transmission from a large number of IoT devices.
  • NB-IoT is well-suited for applications that require long battery life, such as asset tracking, smart meters, and remote monitoring.

4G

  • 4G is a standard for wireless broadband communication, providing high-speed data transmission and low latency for mobile devices and applications.
  • It operates in licensed bands and is commonly used for high-bandwidth applications, such as mobile internet access, video streaming, and voice communication.
  • 4G offers fast and reliable data connectivity, making it suitable for applications that require real-time data transmission and high-speed internet access.

In summary, LoRa and NB-IoT are tailored for low-power, long-range IoT applications, with the former working in unlicensed spectrum and the latter leveraging licensed cellular bands. On the other hand, 4G provides high-speed, high-bandwidth communication for mobile and data-centric applications.  The choice of technology depends on the specific requirements of the application, such as range, power consumption, and data transmission speed.

Q&A

Q:  What is a Wireless Temperature Transmitter?

A:  A Wireless Temperature Transmitter is a device that measures temperature and wirelessly transmits the data to a monitoring system or control center without the need for physical wiring.

Q:  How does a Wireless Temperature Transmitter benefit industrial applications?

A:  Wireless Temperature Transmitters eliminate the need for wiring, enabling easy installation, remote monitoring, and real-time temperature data collection in industrial environments, improving efficiency and safety.

Q:  What types of temperature sensors are commonly used in Wireless Temperature Transmitters?

A:  Wireless Temperature Transmitters can utilize various types of temperature sensors such as thermocouples, RTDs (Resistance Temperature Detectors), thermistors, or infrared sensors based on the specific requirements of the application.

Q:  What is the typical wireless range of a Wireless Temperature Transmitter?

A:  The wireless range of a Wireless Temperature Transmitter can vary based on the technology used (e.g., Bluetooth, Wi-Fi, Zigbee) and environmental factors, but ranges of up to several hundred meters are common in industrial settings.

Q:  How secure is the data transmission in Wireless Temperature Transmitters?

A:  Data security is crucial in industrial applications. Wireless Temperature Transmitters incorporate encryption, authentication, and secure communication protocols to ensure the integrity and confidentiality of temperature data.

Q:  Can multiple Wireless Temperature Transmitters be integrated to monitor different locations? A: Yes, multiple Wireless Temperature Transmitters can be deployed to monitor temperature variations at various locations within a facility, providing comprehensive temperature data for analysis and control.

Q:  What factors should be considered when selecting a Wireless Temperature Transmitter?

A:  Factors to consider include temperature range, accuracy, wireless range, battery life, data transmission frequency, compatibility with monitoring systems, and environmental conditions where the transmitter will be deployed.

Feel free to customize these questions or add more based on the specific details of the Wireless Temperature Transmitters you are interested in!

Advantages / Disadvantages

Advantages of Wireless Temperature Transmitters

Wireless temperature transmitters offer several advantages over their wired counterparts. They provide flexibility in terms of installation, enabling the monitoring of temperature 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 temperature transmitters may incorporate self-diagnostic capabilities for identifying faults or irregularities in the measurement process.  They can also support over-the-air (OTA) firmware updates, allowing for easy software upgrades and ensuring compatibility with evolving wireless protocols or security standards.

Ease of Installation:  Wireless temperature transmitters eliminate the need for complex wiring, making installation quick and straightforward, especially in hard-to-reach or remote locations.

Flexibility:  Wireless transmitters offer flexibility in terms of placement and relocation, allowing for easy adjustments to changes in the monitoring environment without the constraints of physical cables.

Remote Monitoring:  Real-time temperature monitoring and data transmission enable remote access to critical temperature readings, allowing for prompt response to variations or anomalies without the need for on-site visits.

Cost Savings:  Wireless temperature transmitters can reduce installation and maintenance costs associated with wiring, conduit, and labor, making them a cost-effective solution for temperature monitoring in industrial settings.

Scalability:  Wireless systems can be easily scaled up by adding more transmitters as needed, allowing for expansion or modification of the monitoring network without significant infrastructure changes.

Disadvantages of Wireless Temperature Transmitters

Interference:  Wireless signals may be prone to interference from other electronic devices, physical obstructions, or environmental factors, potentially affecting data accuracy and reliability.

Power Source Dependency:  Wireless transmitters require a power source, which may be limited in remote or inaccessible locations, requiring careful consideration of power management and battery replacement.

Data Security Concerns:  Transmitting temperature data wirelessly introduces security risks such as data interception or unauthorized access, necessitating robust encryption and authentication mechanisms to safeguard sensitive information.

Range Limitations:  The wireless range of temperature transmitters may be limited, especially in large industrial facilities or areas with interference, requiring strategic placement of repeaters or signal boosters.

Latency:  Wireless communication may introduce latency in data transmission, which could be a concern for applications requiring real-time temperature monitoring and immediate action based on the data received.

By understanding both the advantages and disadvantages of wireless temperature transmitters, businesses can make informed decisions about implementing these devices in their industrial temperature monitoring systems. Proper planning and consideration of these factors can help maximize the benefits and mitigate potential challenges associated with wireless temperature monitoring technologies. I

Applications

Wireless temperature transmitters are suitable for numerous applications across various industries where remote and real-time temperature monitoring is essential.  Some common applications where wireless temperature transmitters are beneficial include:

Industrial Monitoring:  Wireless temperature transmitters are ideal for monitoring temperature in industrial settings such as manufacturing plants, oil refineries, chemical processing facilities, and food production environments.  They allow for continuous monitoring of critical temperatures without the need for manual checks.

HVAC Systems:  In heating, ventilation, and air conditioning (HVAC) systems, wireless temperature transmitters can be used to monitor and regulate temperature levels in buildings, offices, and commercial spaces, ensuring efficient operation and occupant comfort.

Cold Chain Management:  For industries like pharmaceuticals, food storage, and logistics, wireless temperature transmitters help in monitoring temperature-sensitive products throughout the supply chain, ensuring that they are stored at optimal temperatures to maintain quality and safety.

Environmental Monitoring: Wireless temperature transmitters are utilized in environmental monitoring applications such as weather stations, agricultural settings, and research facilities to track temperature variations, analyze trends, and study climate changes.

Laboratories and Research:  In scientific research, laboratories, and healthcare facilities, wireless temperature transmitters play a crucial role in monitoring temperature-sensitive experiments, samples, vaccines, and storage conditions to maintain integrity and compliance.

Energy Management:  Wireless temperature transmitters help in energy management by monitoring temperature levels in heating and cooling systems, optimizing energy usage, and identifying areas for efficiency improvements in commercial and industrial buildings.

Data Centers: In data centers and server rooms, wireless temperature transmitters are used to monitor equipment temperature, prevent overheating, and ensure optimal conditions for the reliable operation of IT infrastructure.

Greenhouses and Agriculture:  Wireless temperature transmitters are valuable in greenhouse monitoring for controlling and maintaining optimal growing conditions for plants, crops, and agricultural produce by monitoring temperature variations.

Equipment Monitoring:  Wireless temperature transmitters are employed to monitor temperature-sensitive equipment, machinery, and processes in industries like aerospace, automotive, and electronics manufacturing to prevent overheating and avoid potential damage.

Safety Compliance:  In environments where temperature monitoring is critical for safety and regulatory compliance, such as industrial ovens, chemical storage facilities, and clean rooms, wireless temperature transmitters ensure adherence to standards and prevent hazards.

These applications showcase the versatility and importance of wireless temperature transmitters in various sectors where accurate and reliable temperature monitoring is essential for operational efficiency, product quality, and maintaining safety standards.  If you have a specific application in mind or need more detailed information, feel free to ask for further assistance!

Downloads

SRSACT-Z3 – Temperature Sensors

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