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.