Today everyone expects to have real-time information at their finger tips to make informed decisions about their equipment and manufacturing processes. Utilize our industrial smart sensor technologies to harness the power of Industry 5.0 which will bring your equipment, processes, and personnel closer together than ever before.
Predict equipment failures before they result in downtime or product scrap. Predictive maintenance utilizes real-time sensor data and analytics to monitor equipment condition and reliably identify when maintenance is actually required. No longer reactively service your equipment after a failure and eliminate your reliance on expensive preventive maintenance schedules that exchange components based on unreliable statical failure probabilities.
Traditional computing paradigms built on a centralized data center are not well suited for large amounts of high speed sensor data. Our smart sensors utilize a distributed architecture to perform high speed measurement and real-time analytics of the sensor data locally at the equipment.
On-board storage and visualization of sensor measurements and equipment health metrics for up to one year.
Instantly convert new sensor data into intelligence. Our industrial smart sensors utilize customized model-based data analytics to deliver immediate real-time visibility into your equipment operation and health.
Automatically identify the source of the equipment issues for quick resolution with minimal impact to your throughput and production line uptime.
Web browser based access of all functionality from your smartphone, tablet or personal computer without having to install new software or apps.
All data resides inside your equipment securely behind your firewall.
Our smart sensors connect to your factory intranet using Ethernet or Wi-Fi. The data can be integrated to any factory system or software using a wide variety of industrial network protocols gateways.
Material chemical composition measurement of gases, liquids, and solids to determine concentration, conductivity, density, and specific gravity. Composition sensing technologies include chromatography, electrometry, mass spectrometry, optical emission spectroscopy, diffraction, and x-ray fluorescence spectroscopy.
Electrical measurement of current, voltage, resistance, power, capacitance, and inductance of any electronic device. Contact and non-contact electrical sensing technologies include resistive, capacitive, hall effect, magnetic transformer, and Rogowski coil.
Liquid and gas flow measurement inside pipes and tubing of various materials and diameters. Flow sensing technologies include Coriolis, differential pressure, electromagnetic, laser doppler anemometer, mass flow, paddle wheel, positive displacement, propeller, thermal anemometer, turbine, ultrasonic, and vortex.
Compression, load, strain, and tension measurements on solid objects or structures. Force sensing technologies include capacitive, fiber optic, resistive strain, pattern interferometry, piezoresistive, resistive strain, quartz crystal, MEMS, and vibrating wire.
Measure light intensity, color, and bubble density in liquids. These sensors can also be used for energy harvesting for powering wireless devices. Light sensing technologies include LED, photodiode, photoelectric, photometric, and photo resistance.
Humidity, dewpoint, leak , moisture content, and balance measurement of gases and liquids. Moisture sensing technologies include capacitive, conductive, infrared, LED, and spectroscopy.
Measure circular, linear, non-uniform, oscillatory, periodic, rotational, translational, and uniform movement of objects. Motion sensing technologies include doppler, infrared, optical, microwave, radar, and ultrasonic.
Monitor air quality, particle mass, and particle concentration in the atmosphere or in controlled environments. Particle sensing technologies include dynamic light scattering, electrophoretic light scattering, and static light scattering using fiber lasers, gas lasers, liquid lasers, solid-state lasers, and semiconductor laser diodes.
Distance, orientation, presence, and proximity measurement of objects. Position sensing technologies include capacitive, eddy-current, hall-effect, inductive, laser, and light emitting diodes.
Applications include pressure monitor of exhaust atmosphere, gas, liquid, vacuum, and vapor. Pressure sensors include absolute, differential, and gauge pressure types.
Monitoring of electromagnetic fields, gamma rays, infrared, nuclear, radio frequency, ultraviolet, visible light, and x-rays. Radiation sensing technologies include gas ionization, scintillation detectors, and semiconductor detectors.
Immediately understand and react to the local impact of earthquakes on equipment. Monitor the effects of man made vibration on highly sensitive equipment that adversely effects the process. Seismic sensing technologies include MEMS and piezoelectric accelerometers.
Measure ambient noise intensity, noise source identification, and abnormal machine operation. Microphone technologies include condenser, diaphragm displacement, electret, fiber optic, piezoelectric, resistive, and solid state.
Contact and non-contact temperature measurement of gases, solids, and liquids. Temperature sensing technologies include heat conduction, infrared, resistance temperature detectors, thermistors, and thermocouples.
Piezoelectric and MEMS vibration sensors monitor friction, fatigue, and imbalance, and impact on automation, rotational machines, and structures. Vibration sensing technologies measure either displacement, velocity, or acceleration.
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