Skip to content

AI Failure Detection

On this page you will learn about Kelvin AI Failure Detection in Kelvin Core and how it fits into Kelvin Collaborative Control Software.

What is Kelvin AI Failure Detection ?

Kelvin AI Failure Detection is the AI / Machine Learning section. Kelvin.ai uses advance machine learning techniques and decades worth of industrial data to create advanced failure detection models for all types of machines.

Failure detection uses a semi-supervised machine learning anomaly detection system. Machine learning models have been created and tuned using many decades worth of industrial data on many types of machinery and components.

How is this Data Used ?

Failure detection is used in a number of areas of the Kelvin Core to provide insights into the data and its effect on your operations and processes;

Preventative Alarms

When a failure detection is detected, this does not mean that the asset has yet failed. In most cases, unless there is a catastrophic failure or disassembly, this alarm is a pre-warning on a potential failure of your asset.

After analyzing the alarm and its data, you can then plan proper maintenance schedule to replace or maintain the problem.

Carbon Maps

Carbon Maps is a built-in analytical tool that helps identify where assets are performing poorly. With this data it can calculate the monetary losses incurred by these assets and help you plan your maintenance expenditure and production efficiency against all your asset real-time performances.

It also calculates the additional carbon emissions produced by these inefficient assets through the higher electricity consumption and converts these figures into the additional carbon dioxide emissions entering the atmosphere.

This is a good tool to promote your company's ambitions to protecting the environment and limiting the carbon emissions being released.

Failure Detection Alarms

The Failure Detection Alarms are created by the Kelvin Machine Learning Model algorithms.

Data is not enough to create good models. The Kelvin Data Scientists also worked closely with Industrial Experts to create the right feature engineering processing on the data based on their domain experience so that failure detections are reliable.

What is Detected ?

If you are not familiar with the new Kelvin Asset, Kelvin Component, Kelvin Part and Kelvin Sensor structure of Kelvin Assets, we highly recommend you read about Kelvin Assets first before reading here. We will reference the Kelvin Asset structure many times throughout this page.

Kelvin AI Failure Detection can detect failures in many different areas of a machine through direct or indirect methodology.

The Kelvin AI Failure Detection will use the available sensors in an asset to try and detect any preventative maintenance failures, imminent failures or actual physical failures on many of the parts in an asset.

Kelvin Part Detection

Using the Kelvin Sensors, the Kelvin AI Failure Detection will monitor the health of many of the Kelvin Parts in the Kelvin Asset.

When an anomaly is detected, you will receive a Kelvin Alarm that will identify the Kelvin Part which has the detected problem along with a description of the type of problem and possible solutions.

Kelvin Component Detection

If the Kelvin AI Failure Detection detects an anomaly but can not identify which Kelvin Part is causing the anomaly, you will receive a Kelvin Alarm which will identify the Kelvin Component which has the problem.

You will need to inspect the asset and identify yourself which part in the Kelvin Component is causing the anomaly.

Plug and Play

The Kelvin Core takes out all the hard work of applying AI to your data.

Activating the AI is as simple as a click of a button and setting a few simple a parameters. The analysis will then immediately start monitoring and analyzing your real time data stream.

Be careful when setting the parameters as this can have a significant impact on the accuracy of the failure detection. For example the bearing failure detection relies on the right axis (x, y or z) of an accelerometer being selected during setup.

Activating Failure Detection

The failure detection models are built into the Kelvin Assets, Components, Parts and Sensors in the Asset Templates. When you drag and drop any Kelvin Template you will have the failure detection options available in properties.

Failure detection features are available for the complete Kelvin Assets or on a per Kelvin Component level and requires minimal setup to start detecting failures.

Details of Failure Detection

When a failure is detected, then an Alarm will be generated. You can go to the Asset to see the details of the data which created the Alarm.

To understand more how to setup the Kelvin AI Failure Detection, see the documentation at Kelvin Manager UI -> Manager -> Assets -> Assets -> Add New Asset or just click here.

Rules for Setup Failure Detection

The Failure Detection has a number of rules that you need to follow while setting up (by adding New Kelvin Assets). If they are configured wrong, then you will find the Failure Detection does not work as expected.

Principles of Failure Detection

The Kelvin AI Failure Detection will detect failures in Kelvin Parts by monitoring any Kelvin Sensors attached to the machine.

If you do not understand how Kelvin Assets are structured, then we strongly advise you read about Kelvin Assets first before proceeding here. We will reference Kelvin Assets, Kelvin Components, Kelvin Parts and Kelvin Sensors continuously in our examples.

The Kelvin Sensors do not need to be attached to the direct parent Kelvin Component where the Kelvin Part is being monitored.

For example, the bearings (Kelvin Part) on a pump (Kelvin Component 1) can be monitored by vibration sensors mounted on the AC Motor (Kelvin Component 2).

Run Validation

When you add a new Kelvin Asset (or add a new Kelvin Component, Kelvin Part or Kelvin Sensor to an existing Kelvin Asset), then you need to Run Validation before you can save it.

Run Validation will check that the failure detection structure and all properties have been properly setup.

There are a few areas not checked by Run Validation. These are the value types such as integer, float or date formats in the failure class properties. Even though it will come up with a "Validation was successful" message you should ensure all values are valid otherwise the failure detection will not work as expected.

List of AI Failure Detections Available

Centrifugal Pump

Failure Types

Kelvin Component Kelvin Parts Failure Detections
AC Motor Bearings

Fatigue
Fluting
Wear

Housing Distortion
Rotor Fatigue
Shaft

Fatigue
Wear

Stator / Winding

Single Phase
Thermal Deterioration

Pump - Centrifugal Bearings

Corrosion
Fatigue
Fluting
Wear

Impeller Wear
Seal Wear
Shaft

Fatigue
Wear

Base / Foundation Foundation Fatigue

Required Information

Kelvin Component Kelvin Sensor Parameters Mandatory
AC Motor Vibration Axial Orientation Yes
Bearings

Manufacturer
Part No.

No
Temperature Yes
Pump Centrifugal Vibration Axial Orientation Yes
Temperature Yes

Vibration Sensor

For the vibration or accelerometer sensors, you need to select which axis is in the same plane as the pump shaft. This ensures the failure detection will be monitoring the correct plane for anomalies.

Failure Detection Definitions

Failure Detections Failure Reasons
Corrosion No protection such as lubrication oil or grease leading to corrosion on metal moving parts.
Distortion Excessive heat on equipment, footing of equipment loose, etc.
Fatigue Undue stress on moving parts leading to fatigue failure. This could be caused by excessive vibration, misalignment, imbalance, excessive force, etc.
Fluting Faulty or loose wiring, etc.
Single Phase Missing one or two phases of a three phase motor. This could be caused by faulty contactor, broken wire, faulty connections, blown fuse, etc.
Thermal Deterioration Deterioration of equipment due to thermal stress. In motors this could be due to excessive loads, faulty terminal connections, unbalance voltage between phases, etc.
Wear Commonly known as wear and tear, this usually is due to age (useful life) but can also be because of contamination, lack of lubrication, loose fastenings, imbalance, misalignment, etc.

Failure Class Properties

When entering numbers, be careful not to accidentally type in any spaces. This will affect the ability for Kelvin AI Failure Detection to work.

Kelvin Assets

Failure Class Failure Class Properties Values / Units Mandatory
Centrifugal Pump None No

Kelvin Components

Failure Class Failure Class Properties Values / Units Mandatory
Base/Foundation Attachment Anything No
Installation Date Float No
Repair Date Float No
Motor AC None
Centrifugal Pump Component None
Coupling-Jaw Manufacturer Anything No
Serial Number Anything No
Attachment Anything No
Installation Date Float No
Repair Date Float No

Kelvin Parts

Failure Class Failure Class Properties Values / Units Mandatory
Bearing Manufacturer Anything No
Bearing Number Anything No
Bearing Type Anything No
Lube Type Anything No
Lube Manufacturer Anything No
Lube Product Anything No
Viscosity Grade Anything No
Casing Manufacturer Anything No
Model Number Anything No
Serial Number Anything No
Orientation Anything No
HP Float No
Flow Rate Float No
Pressure Float No
Size Float No
Coupling Jaw Part None
Fan Blade Count Integer No
Foundation Construction Material Anything No
Housing Manufacturer Anything No
Frame Anything No
Model Number Anything No
Seal Type Anything No
Serial Number Anything No
Hub None
Impeller Blade Count Integer No
Insert Construction Material Anything No
Rotor/Rotor Bar Rotor Bar Count Integer No
Seal Manufacturer Anything No
Model Number Anything No
Seal Type Anything No
Serial Number Anything No
Shaft Orientation Anything No
Running Speed RPM Float No
Stator/Winding Amps Float No
Efficiency Float No
Field Current Float No
Field Volts Float No
HP Float No
Insulation Class Anything No
kW Float No
Phase Float No
Service Factor Float No
Volts Float No
Winding Configuration Anything No

Kelvin Sensors

Failure Class Failure Class Properties Values / Units Mandatory
Spot Radiometer Baseline Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
Maximum Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
IR Thermal Imaging Baseline Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
Maximum Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
Resolution Resolution of Imaging ( Float ) No
Thermocouple Baseline Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
Maximum Temperature Fahrenheit or Celsius depending on Metric value ( Float ) Yes
Vibration MEMS Sampling Rate Hertz ( Float ) Yes
Sample Duration Seconds ( Float ) Yes
Axial Orientation X, Y or Z Axis predefined options Yes
Horizontal Radial Orientation X, Y or Z Axis predefined options Yes
Vertical Radial Orientation X, Y or Z Axis predefined options Yes
Vibration Piezo Sampling Rate Hertz ( Float ) Yes
Sample Duration Seconds ( Float ) Yes
Axial Orientation X, Y or Z Axis predefined options Yes
Horizontal Radial Orientation X, Y or Z Axis predefined options Yes
Vertical Radial Orientation X, Y or Z Axis predefined options Yes

Interesting links related to Kelvin AI Failure

Last Modified

Last Modified on 22nd June 2023

22nd June 2023

* Updated Kelvin Platform to the new Kelvin Core Services and Kelvin Core Server

* Updated status of development of the AI models

* Added the new features in Kelvin Maps related to Kelvin AI Failure Detection

30th June 2022

* Started new detailed last modified section

Logo

Kelvin Documentation AI Support

Hi. My name is KevDocBot. How can I help you?