Our Promise

Innovation with Integrity. Performance with Purpose.

At the heart of our work lies a simple yet uncompromising commitment: to deliver intelligent solutions that our clients can trust—silently, continuously, and without compromise.

We understand that in many operations, the most valuable systems are those that operate behind the scenes—alert, efficient, and unseen. That’s why we approach every project with a deep respect for discretion, reliability, and precision. Whether it’s enhancing operational awareness, safeguarding critical infrastructure, or embedding seamless monitoring into existing environments, our solutions are engineered not just to function, but to excel—quietly and consistently.

From concept to deployment, we emphasize integrity in every layer of our process:

  • Discreet Design: Systems that integrate seamlessly into your operational landscape, drawing no unnecessary attention.

  • Tailored Engineering: Architectures built around your needs, challenges, and sensitivities—not off-the-shelf assumptions.

  • Lasting Trust: We value long-term partnerships grounded in transparency, confidentiality, and consistently high performance.

  • Proven Execution: We bring field-tested experience and a readiness to adapt, evolve, and scale as your environment changes.

When you work with us, you’re not just investing in technology—you’re engaging a partner that understands the importance of staying ahead, staying aware, and staying quiet.

Solutions Engineered for Confidence and Continuity

We specialize in the design and deployment of intelligent, low-profile systems that enhance operational continuity, reduce risk, and ensure clarity in even the most demanding environments. Our clients rely on us not just for performance—but for solutions that operate with discretion, precision, and lasting reliability.

Whether your needs involve monitoring critical infrastructure, managing sensitive assets, or ensuring uninterrupted situational awareness, we deliver systems that work silently and intelligently in the background. Every solution we craft is built to meet your exact specifications—ensuring seamless integration, secure communication, and total confidence in the unseen.

Solutions

Condition monitoring is a proactive approach to asset management that utilizes advanced sensor technologies and data analytics to continuously or periodically assess the health of equipment and infrastructure. This technique involves monitoring key operational parameters—such as vibration, temperature, pressure, and acoustic emissions—to detect early signs of wear, degradation, or potential failure.

By systematically collecting and analyzing real-time data, organizations can shift from reactive maintenance to predictive maintenance strategies. This not only minimizes unplanned downtime but also optimizes maintenance schedules, reduces operational costs, and enhances overall equipment reliability.

The integration of Internet of Things (IoT) solutions into condition monitoring systems has significantly advanced the field. IoT-enabled sensors facilitate remote monitoring and real-time data transmission, enabling more agile responses to emerging issues. Coupled with advanced analytical tools and machine learning algorithms, these systems can forecast asset life cycles and maintenance needs with increasing accuracy.

In industries where the reliability of critical assets is paramount, condition monitoring plays an essential role in ensuring operational continuity and efficiency. Adopting these practices allows organizations to maintain a competitive edge by improving performance and reducing the risk of unexpected equipment failures.

For more information on how our advanced condition monitoring solutions can help optimize your operations, please contact us.

Our radio monitoring solutions utilize advanced spectrum analysis and signal intelligence to ensure your wireless communications remain secure and interference-free. By continuously tracking frequency usage and detecting anomalies in real time, we help maintain optimal performance, regulatory compliance, and robust operational integrity for your critical communication networks.

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RUBYTEK DIFFERENCE

Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more. Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more.Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more.

RUBYTEK DIFFERENCE

Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more. Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more.Our condition-based maintenance range of sensors began with the emergence of eddy current proximity transducers and evolved into a range of condition-monitoring systems, which features proximity probes, Proximitor† sensors, eddy current proximity transducers for measuring rotor shaft position and vibration, and more.

In an ideal scenario, machines with rolling element bearings would be monitored in the same way as critical journal bearing machines (vibration transducers at each bearing, bearing temperature, Keyphasor† sensor, online monitor). However, it can be economically difficult to justify that level of monitoring.

The best method for monitoring bearing temperature, wear and overall condition is through online monitoring – using either a permanently installed, continuous or scanning systems. With an online system, a proper transducer suite is needed to detect when a machine is having a problem.

In the absence of an online monitoring system, a portable data collector (PDC) is the next best approach.  An important part of establishing a PDC route is defining how often the data is taken. The more often the data is collected, the more likely an early bearing failure detection will be made. But as a consequence, the cost of the condition monitoring will be higher due to more frequent data collection and analysis. The route creation and timing depend on the machine operating hours, running speed, load, process and environmental conditions, and so on.

For further information regarding roller element bearing monitoring, please contact a Bently Nevada application and solution architect or machinery diagnostic services engineer to assist you with recommendations.

In an ideal scenario, machines with rolling element bearings would be monitored in the same way as critical journal bearing machines (vibration transducers at each bearing, bearing temperature, Keyphasor† sensor, online monitor). However, it can be economically difficult to justify that level of monitoring.

The best method for monitoring bearing temperature, wear and overall condition is through online monitoring – using either a permanently installed, continuous or scanning systems. With an online system, a proper transducer suite is needed to detect when a machine is having a problem.

In the absence of an online monitoring system, a portable data collector (PDC) is the next best approach.  An important part of establishing a PDC route is defining how often the data is taken. The more often the data is collected, the more likely an early bearing failure detection will be made. But as a consequence, the cost of the condition monitoring will be higher due to more frequent data collection and analysis. The route creation and timing depend on the machine operating hours, running speed, load, process and environmental conditions, and so on.

For further information regarding roller element bearing monitoring, please contact a Bently Nevada application and solution architect or machinery diagnostic services engineer to assist you with recommendations.

Solutions

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Industrial IoT (IIoT)

A secure, intelligent platform connecting devices, sensors, and systems—delivering continuous insight, automation, and remote control across complex industrial and operational environments.

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Radio Monitoring

Real-time detection and analysis of radio frequency activity—enabling situational awareness, interference management, and discreet monitoring across open or protected spectral environments.

View more
Explore further

Test, Measurement & Inspection

Precision tools and techniques for evaluating system integrity, performance, and compliance—ensuring reliability, safety, and operational readiness across technical environments.

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Security

Integrated security solutions combining physical, digital, and environmental controls—designed to protect critical assets, data, and operations with minimal visibility and maximum resilience.

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Critical Infrastructure

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Engineering and R&D

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Solutions

Condition Monitoring
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Radio Monitoring
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Critical Infrastructure Security
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Engineering and R&D Services
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A Trusted, Proven Ally In Every Industry And Around The World

100K Monitoring systems installed worldwide
12K System 1 customers worldwide
15K+ Customer assets under management

Why Vibration Monitoring Matters

The vibration monitoring of a machine provides data analysis of machine health. Vibration data and vibration analysis can detect the root cause of equipment failure before it results in unplanned downtime and increased maintenance costs. The vibration monitoring of a machine provides data analysis of machine health. Vibration data and vibration analysis can detect the root cause of equipment failure before it results in unplanned downtime and increased maintenance costs.

Why Vibration Monitoring Matters

The vibration monitoring of a machine provides data analysis of machine health. Vibration data and vibration analysis can detect the root cause of equipment failure before it results in unplanned downtime and increased maintenance costs. The vibration monitoring of a machine provides data analysis of machine health. Vibration data and vibration analysis can detect the root cause of equipment failure before it results in unplanned downtime and increased maintenance costs.

In an ideal scenario, machines with rolling element bearings would be monitored in the same way as critical journal bearing machines (vibration transducers at each bearing, bearing temperature, Keyphasor† sensor, online monitor). However, it can be economically difficult to justify that level of monitoring.

The best method for monitoring bearing temperature, wear and overall condition is through online monitoring – using either a permanently installed, continuous or scanning systems. With an online system, a proper transducer suite is needed to detect when a machine is having a problem. In the absence of an online monitoring system, a portable data collector (PDC) is the next best approach.  An important part of establishing a PDC route is defining how often the data is taken.

The more often the data is collected, the more likely an early bearing failure detection will be made. But as a consequence, the cost of the condition monitoring will be higher due to more frequent data collection and analysis. The route creation and timing depend on the machine operating hours, running speed, load, process and environmental conditions, and so on. For further information regarding roller element bearing monitoring, please contact a Bently Nevada application and solution architect or machinery diagnostic services engineer to assist you with recommendations.

In an ideal scenario, machines with rolling element bearings would be monitored in the same way as critical journal bearing machines (vibration transducers at each bearing, bearing temperature, Keyphasor† sensor, online monitor). However, it can be economically difficult to justify that level of monitoring.

The best method for monitoring bearing temperature, wear and overall condition is through online monitoring – using either a permanently installed, continuous or scanning systems. With an online system, a proper transducer suite is needed to detect when a machine is having a problem. In the absence of an online monitoring system, a portable data collector (PDC) is the next best approach.  An important part of establishing a PDC route is defining how often the data is taken.

The more often the data is collected, the more likely an early bearing failure detection will be made. But as a consequence, the cost of the condition monitoring will be higher due to more frequent data collection and analysis. The route creation and timing depend on the machine operating hours, running speed, load, process and environmental conditions, and so on. For further information regarding roller element bearing monitoring, please contact a Bently Nevada application and solution architect or machinery diagnostic services engineer to assist you with recommendations.

Solutions

Industrial IoT (IIoT)

A secure, intelligent platform connecting devices, sensors, and systems—delivering continuous insight, automation, and remote control across complex industrial and operational environments.

Radio Monitoring

Real-time detection and analysis of radio frequency activity—enabling situational awareness, interference management, and discreet monitoring across open or protected spectral environments.

Test, Measurement & Inspection

Precision tools and techniques for evaluating system integrity, performance, and compliance—ensuring reliability, safety, and operational readiness across technical environments.

Security

Integrated security solutions combining physical, digital, and environmental controls—designed to protect critical assets, data, and operations with minimal visibility and maximum resilience.

Critical Infrastructure

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Engineering and R&D

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Edge-To-Enterprise Condition Monitoring Coverage

AHM

Asset Health Management (AHM) In 2000, the vision of “one system” was born with System 1. Since then, Bently Nevada has worked to continuously improve the connectivity, analytic, and visualization capabilities of the System 1 platform. premier plant-wide condition monitoring experience for industrial operators that extends from edge to enterprise, allowing greater accessibility to users with a strict backbone of cyber security features.

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Comprehensive Coverage With End-To-End Results

System 1: Plant-Wide Monitoring with Clarity and Context for the Refining Business

Product Resources

REFINE RESULTS

Type Name Language  
test DOWNLOAD
Brochure Condition Monitoring & Protection Solutions Overview English DOWNLOAD
Brochure Bently Nevada Approvals Quick Reference Guide_108M1756 English DOWNLOAD
Datasheet LNG Bently Nevada Solutions Brochure English DOWNLOAD
Datasheet Condition Monitoring & Protection Solutions Overview English DOWNLOAD
Datasheet System 1 Software Datasheet – 108M5214 Chinese DOWNLOAD
Blog Five Common Pitfalls of Traditional APM English DOWNLOAD
Blog Solutions for LNG Facilities Chinese DOWNLOAD
Blog Plantwide Asset Health: Choosing the Right Partner Chinese DOWNLOAD

A Comprehensive Portfolio of Products and Services to Create a Plant-wide Solution

Sensors

With over 8 million sensors currently in use and an installed base that grows every year, our unmatched quality speaks for itself.