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Radar Level Transmitters Suppliers, UAE

Radar level transmitters measure the distance to a liquid or solid surface by emitting microwave pulses and timing the reflection, providing non-contact level measurement unaffected by temperature, pressure, or vapour conditions in the tank. They have become the preferred technology for demanding GCC applications including crude oil storage tanks, LPG spheres, and chemical reactors where reliability and accuracy are paramount. Procurement considerations include radar frequency, antenna type, and tank-specific application engineering.

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Radar level transmitters use microwave pulses (guided wave or free-space) to measure the distance from the sensor to the liquid or solid surface, calculating level by subtracting this distance from the known tank height. This non-contact technology is unaffected by temperature, pressure, density, vapour, and condensation, making it the most reliable level measurement option for demanding GCC applications.

Two radar technologies serve different applications: non-contact (free-space) radar transmits through the vapour space and is preferred for large storage tanks, aggressive chemical vessels, and applications where the sensor must not contact the product. Guided wave radar (GWR) uses a probe immersed in the product, offering superior performance in small tanks, interface measurement (oil-water), and vessels with internal obstructions, turbulence, or heavy foam.

Key specifications include operating frequency (6 GHz, 26 GHz, or 80 GHz; higher frequencies provide narrower beam angles and better performance in small nozzles and tanks with obstructions), accuracy (typically 1 to 3 mm for custody transfer, 5 to 15 mm for process control), process temperature and pressure ratings, antenna type and material, and hazardous area certification.

GCC applications include crude oil storage tank gauging (ADNOC and Saudi Aramco tank farms), LPG and LNG sphere level monitoring, refinery column level control, chemical reactor level measurement, desalination plant tank inventory, and water reservoir monitoring. Procurement managers should engage the radar manufacturer's application engineers early in the project to confirm suitability for each specific tank, as factors such as tank internals, product dielectric constant, and nozzle dimensions affect radar selection. For custody-grade tank gauging, specify systems with NMi or PTB certification per OIML R85.

Frequently Asked Questions β€” Radar Level Transmitters

Should we choose non-contact radar or guided wave radar for a GCC storage tank?
Non-contact radar is preferred for large storage tanks (above 3 meters diameter) with clean vapour space, as it requires no in-tank components that need maintenance. Guided wave radar is better for small tanks (below 3 meters diameter), interface measurement (oil on water), turbulent surfaces, heavy foam, and vessels with low-dielectric products. For crude oil and refined product storage, non-contact 80 GHz radar is the current industry standard.
What accuracy can radar level transmitters achieve for custody transfer?
Premium custody-grade radar tank gauging systems achieve accuracy of plus or minus 0.5 to 1 mm, meeting OIML R85 and API MPMS Chapter 3.1B requirements for static inventory measurement. Standard process-grade radar transmitters achieve 2 to 5 mm accuracy, suitable for level control and alarm functions but not for fiscal inventory purposes.
How do we handle radar level measurement in tanks with agitators or internal structures?
Internal structures, agitators, and baffles can create false reflections (echoes) that confuse the radar. Solutions include using 80 GHz narrow-beam radar to avoid obstructions, installing a stilling well (bypass pipe) that guides the radar signal, or using guided wave radar with the probe positioned away from agitator blades. The manufacturer's application engineering team should review tank drawings and recommend the optimal installation configuration.