Guided radar (TDR) level transmitter for the nuclear industry

• Continuous measurement of level, distance, volume, mass or dielectric constant
• Designed and tested for industrial nuclear environments
• Measuring range: 0.6…40 m / 2…131 ft
• -50…+150°C / -58…+302°F; -1…100 barg / -14.5…1450 psig

 

Vibration level switch for solid applications 

• Point level detection of powders and fine-grained bulk solids
• Probe length: 220 mm / 8.7"
• Density: <8  g/l / <0.49 lb/ft³
• -50…+250°C / -58…+482°F; -1…16 barg / -14.5…232 psig

Vibration level switch with cable extension for solid applications 

• Point level detection of solids
• Probe length: up to 80 m / 262.5 ft
• Density: <8 g/l / <0.49 lb/ft³
• -20…+80°C / -4…+176°F; -1…6 barg / -14.5…87 psig

Vibration level switch with rigid extension for solid applications 

• Point level detection of solids
• Probe length: up to 6 m / 20 ft
• Density: <8 g/l / <0.49 lb/ft³
• -50…+250°C; -1…16 barg

Vibration level switch for process applications

• Point level detection of liquids
• Large choice of process fittings, housings and electronics
• Density: ≥0.5 g/cm³ / 0.018 lb/in³
• -50…+250°C / -58…+482°F; -1…64 barg / -14.5…928 psig

 

Vibration level switch for heavy-duty applications

• Point level detection of liquids under extreme conditions
• Probe length: up to 3000 mm / 118 ft
• ≥0.47 g/cm³ / 0.017 lb/in³ (optional: ≥0.42  g/cm³ or 0.015 lb/in³)
• -196…+450°C / -321…+842°F; -1…160 barg / -14.5…2321 psig

 

Vibration level switch with rigid extension for process applications

• Point level detection of liquids
• Probe length up to 6000 mm / 236"
• Density: ≥0.5 g/cm³ / 0.018 lb/in³
• -50…+250°C / -58…+482°F; -1…64 barg / -14.5…925 psig

 

Magnetic level indicator for basic liquid applications

• Cost-effective level measurement; no power supply needed
• Measuring range: 0.3…5.5 / 1...18 ft (others on request)
• Density: 700…1200 kg/m³  / 43.7…74.91 lb/ft³
• -70…+200°C / -94…+392°F; -1…40 barg / -14.5…580 psig

 

Magnetic level indicator for corrosive liquids

• Made of PVC, PP or PVDF for high corrosion resistance to aggressive chemicals; no power supply needed
• Measuring range: 0.5…4 m / 1.64…13 ft (others on request)
• Density: 560…1200 kg/m³ / 34.96…74.91 lb/ft³
• -20…+100°C /-4…+212°F; 0…6 barg / 0...87 psig

 

Magnetic level indicator for liquefied gas

• Designed for low temperature and cryogenic media; no power supply needed
• Measuring range: 0.3…5.5 m / 1...18 ft (others on request)
• Density: 500…1200 kg/m³ / 31.21…74.91 lb/ft³
• -196…+200°C / -320.8…+392°F; -1…40 barg / -14.5…580 psig

 

Magnetic level indicator for extreme operating conditions

• Designed for level and interface measurement of high-temperature and high-pressure liquids; no power supply needed
• Measuring range: 0.3…5.5 m / 1...18 ft (others on request)
• Density: 370…1200 kg/m³ / 23.9…74.91 lb/ft³
• Up to +400°C / +752°F; 400 barg / 5801 psig

Magnetic level indicator with level transmitter for liquids in redundant measurement 

• Designed for redundant level measurement combining magnetic level indicator and guided radar (TDR), radar (FMCW) or displacer technology
• Measuring range: 0.3…5.5 m / 1...18 ft (others on request)
• Density: 370…1200 kg/m³ / 23.9…74.91 lb/ft³
• Up to +400°C / +752°F; 400 barg / 5801 psig

Product Features Not reliant on chemical properties of the liquid No moving parts Simple installation with no calibration necessary Available in a wide variety of process connection materials Remote self-test to verify operation of the electronics and sensor (Models KUST & KUSG) Vibration Resistant

KENCO’s Thermal Differential Switches are designed for a wide range of flow and level applications. These switches can be used to direct either the overall liquid level or a liquid-liquid interface. They can also be used to detect a specific flow rate or flow/no flow condition in liquids and gasses. Level and Interface Detection Flow Detection for Liquids and Gasses Fast Response Time No Moving Parts Temperature Compensation

The KENCO Model KEFS uses a float to determine the presence or absence of liquid in a vessel at the process connection. The float arm assembly consists of a float at one end and a magnet at the other. As the level in the vessel rises, the float rises and the magnet falls. The magnet actuates a second magnet on the other side of the pressure boundary. This second magnet causes the switch to change state.