Transmitter Device Dealers in Cg Road, Ahmedabad

• Color: Green
• Condition: New
• Automatic Grade: Automatic
• Power Source: Electric
• Application: Industrial Automation
• Style: Head Mounted
• Certification: CE Certified
• Type: Temperature Transmitters
• Country of Origin: India

Temperature transmitters are workhorses in industrial process control and automation. They convert the signal from temperature sensors (like Resistance Temperature Detectors (RTDs) or thermocouples) into a standard electrical signal, typically a 4-20mA current loop. This allows for accurate and reliable transmission of temperature readings over long distances. Here's a breakdown of their typical specifications: General Specifications · Temperature Range: This specifies the range of temperatures the transmitter can accurately measure. It can vary widely depending on the sensor type and application (e.g., -200°C to +1500°C for some industrial applications). · Sensor Input: The type of temperature sensor the transmitter is compatible with (e.g., RTD Pt100, thermocouple K, etc.). · Output Signal: The standardized electrical signal the transmitter sends, most commonly a 4-20mA current loop. Other options include 0-5V or 0-10V voltage outputs. Performance Specifications · Accuracy: Expressed as a percentage of full scale (%FS) or in temperature units (°C or °F). Typical accuracy for good quality transmitters is ±0.1%FS to ±1%FS. · Resolution: The smallest temperature change the transmitter can detect and convert into an output signal. Higher resolution translates to more precise measurements. · Response Time: The time it takes for the transmitter output to respond to a change in temperature (usually in seconds or milliseconds). Environmental Specifications · Ingress Protection (IP rating): A rating that specifies the level of protection against dust and water ingress. For example, an IP67 rated transmitter is dust tight and can withstand immersion in water up to 1 meter deep. · Operating Temperature Range: The range of ambient temperatures the transmitter can function within without compromising performance. This may differ from the temperature measurement range. · Material of Construction: The materials used in the transmitter housing and wetted parts (those that come into contact with the process environment). Common materials include stainless steel, aluminum, and high-temperature plastics. Additional Features · Communication Protocol (Optional): Some transmitters include communication protocols like HART or Modbus for remote configuration, diagnostics, and calibration. · Display (Optional): Some models may have a built-in display for local temperature reading. · Calibration: Transmitters need periodic calibration to ensure accuracy. Some models offer features like zero and span adjustments for easier calibration. Factors to Consider When Selecting a Temperature Transmitter · Temperature Range: Choose a transmitter with a range that comfortably covers the temperatures you intend to measure. · Sensor Input: Ensure compatibility between the transmitter and your chosen temperature sensor type. · Accuracy: Select a transmitter with accuracy that meets your application's requirements. · Output Signal: Choose a standard output signal compatible with your data acquisition system. · Environmental Considerations: Consider the ambient temperature range, dust/moisture levels, and required enclosure rating for your application environment. · Additional Features: Consider optional features like communication protocols or a display based on your needs. By understanding these specifications and factors, you can select a temperature transmitter that effectively converts temperature sensor signals into a reliable and standardized output for accurate temperature measurement and control in your application.

We Offer Vibration Transmitters & sensors. Process Plants that depend on rotating machinery have long recognised that high vibrations are the most obvious indicator of a machine’s condition. By installing continuous vibration measuring devices, optimised plant uptime, maximised productivity and reduced maintenance costs have given organisations a competitive advantage. Apart from these efficiencies, there are also environmental benefits. It is well established that an excessively vibrating machine will consume up to 15% more energy, primarily due to unbalance and or mis-alignment. Recognising these advantages, Indian Industry over the past 10 years has seen an upsurge in the number installed on-line vibration measurement channels. In parallel with productivity gains, plant load factors have progressively risen, especially in the power sector. On average 4 channels or vibration test points per machine train are connected to a continuous monitoring system that, in most plants, is managed from the DCS (Distributed Control System).