

[Conclusion] Condition-Based Maintenance (CBM) is a strategy where maintenance is performed only when sensors detect early signs of abnormalities, based on the "actual health condition" of the equipment. This is a highly efficient alternative to Time-Based Maintenance (TBM), which involves replacing parts on a fixed schedule regardless of their condition. By preventing excessive part replacements and avoiding sudden downtime, CBM optimizes maintenance costs. Using IoT vibration sensors like conanair allows businesses to implement CBM easily and affordably.
Why is preventive maintenance becoming more essential to the market? Optimize your working conditions with maintenance.

It is more important now than ever for businesses to save money. This can be done by not replacing machines or components unless necessary. Thus, you must monitor its health. This can be done by performing health maintenance. However, this creates another question. How should businesses schedule this maintenance? Usually, these maintenances are performed by specialists or technicians hired by the business. Therefore, businesses cannot perform maintenance without a valid reason. There are methods that businesses can apply to create a maintenance schedule with reasoning. The two methods mentioned here are condition-based maintenance and predictive maintenance.
Condition-Based Maintenance is the technique of monitoring the health of a machine or component on a real-time basis through a combination of sensor data such as vibration. The monitoring method is often used as a standalone method. The monitoring can be done remotely but is defined as the process being out of control or in chaos. The three characteristics of Condition-Based Maintenance can be explained as this:
Condition-Based Maintenance provides the following type of data
To summarize, Condition-Based Maintenance detects and alerts businesses if the machine starts displaying abnormal behavior.
Here is a basic workflow of condition-based maintenance:

Sometimes, it is important to know the history behind condition-based maintenance. Here is a brief timeline for condition-based maintenance.
In industrial businesses, the usage of condition-based maintenance began with the following indicators:
The characteristic of these indicators is that it does not provide businesses with enough time to plan. Thus, businesses would have to develop solutions on the spot. As a result, businesses do not have enough time to line up the right parts, tools, and skills.
Defect detection improvements were made during this period. New factors or indicators were implemented, creating improvement in efficiency in electrical energy and consumption.
However, there were still some challenges left. These indicators did not always bring perfect results. Sometimes it requires third-party opinion as motor current or flow can vary with process conditions.
Currently, we are entering the fourth phase of condition-based maintenance. (If you are wondering about the third movement, it will be discussed later.) While details about this phase are still unclear, the main concept is going digital. The first two phases implemented more of an analog, manual method.
What examples are considered condition-based maintenance? Several techniques that use vibration, sensors, engine oil, or temperature analysis fall under condition-based maintenance. Here is a detailed machine element that can be collected with a sensor.
For example, instead of creating a monthly oil change, a business that applies condition-based maintenance will perform an oil change based on the gauge readings of the monitor oil particles.
Predictive Maintenance is a maintenance type in which machines or components are provided maintenance and care on a proactive basis. One of the keywords is “predict.” This allows businesses to be prepared or anticipate any issues with machines or components that can occur and schedule maintenance accordingly.
The workflow of Predictive Maintenance is the following
Recall that in section 2.2.3, condition-based maintenance jumped from 2.0 to 4.0 skipping 3.0. There is a reason for that. Many people believe that Condition-Based Maintenance 3.0 is Predictive Maintenance. The concept that rose during this period in businesses is “leading versus lagging.” In this case, Predictive Maintenance is the leading case as it notifies business ahead of time.
Starting in 2010, the attention to Predictive Maintenance grew because of the advancement in technology such as Artificial Intelligence (AI) and the Internet Of Things (IoT). Using these advanced tools allowed businesses to predict different kinds of failures. This was significant because most industry studies agree that lubrication is 50 to 80 percent cause of failure with rotating assets. Alerts provided by vibration or temperature detection methods from Condition-Based Maintenance were either too late or difficult to establish alerts.
Examples of Predictive Maintenance can be broken down into four categories
The following applications are suitable for predictive maintenance
An application example of Predictive Maintenance is attaching a vibration meter to a centrifugal pump motor in a coral preparation plant. The pump is a vital asset, therefore, it is important to prevent unnecessary downtime.
After learning about Condition Based and Predictive Based Maintenance, it is important to know the key differences between them.
|
Condition Based Maintenance
Some type relies on data |
Predictive Maintenance
All relies on data with advanced statistical method |
A brief summary of the differences between the two
The benefits for businesses for using condition-based maintenance includes the following:
On the other hand, what are the advantages of using Predictive Maintenance? Here is a list of them.

The disadvantage of Condition-Based Maintenance
Here are the following drawbacks of using Predictive Maintenance.
In summary, the main difference between predictive and condition-based maintenance is the timing. Condition-Based Maintenance focuses on real-time conditions, whereas Predictive Maintenance is focused on the early detection of defects 60 to 90 days in advance. In other words, predictive maintenance uses sensor data to anticipate when maintenance is needed. Condition Based alerts businesses when problems begin to display.
The core relationship between Condition-Based Maintenance and Predictive Maintenance is that Condition-Based Maintenance is one of the main components of Predictive Maintenance. However, Predictive Maintenance was more of a “nice to have” concept for businesses. In recent years, businesses have taken advancements to label Condition-Based Maintenance as a “need to have” for businesses.
From a historical context, Condition-Based Maintenance has been used in the following type of applications:
On the other hand, there are recommendations to use predictive maintenance over condition-based maintenance. The reason is simple.
With predictive maintenance, it provides business early notifications. This makes it easier for businesses to plan financially.
However, as a business, it is important for a business to practice vibration avoidance rather than vibration detection. In most cases, vibration occurs due to abnormal behavior. As the adjective describes, this is something businesses should avoid. The usage of vibration should be kept to find the root cause of failures or issues.
NSXe Co. LTD has released “conanair”, a Wi-Fi vibration sensor that allows companies to detect bearing damage. Businesses can place conanair on the surface of the device. The device collects data on the machine’s performance on a real-time basis, similar to how a doctor performs a physical examination. The device includes inexpensive Micro Electro Mechanical Systems (MEMS), an accelerometer equivalent to the orientation-sensing sensors for smartphones and Wi-Fi modules.
How does conanair achieve predictive maintenance? Recall that predictive maintenance is about providing maintenance to a machine on a specified basis. As explained, conanair takes a real-time measurement of the vibration behavior of the machine. Based on the vibration, it will notify the business if outliers occur.
conanair can also utilize the collected CSV data as raw data needed by CMMS tools. CMMS tools will become more common in the future, but there are not many devices that can collect raw data, and conanair is an inexpensive and easy way to collect that data. If you are interested in looking at raw data, have been looking for a way to collect raw data, or would like more details, please contact us through the contact form!
Many companies have adopted "Time-Based Maintenance (TBM)," performing periodic replacements based on part lifespan or operating hours. However, TBM inherently carries the waste of discarding parts that are still perfectly usable (over-maintenance) and the risk of sudden failures occurring before the next inspection. By transitioning to CBM and continuously monitoring the "current health status" of equipment with IoT vibration sensors like conanair, it becomes possible to maximize the lifespan of parts. This drastically reduces maintenance labor and part costs, significantly improving the overall productivity of the plant.
| Company Name | NSXe Co.Ltd - Nakayama Hydrothermal Industry Co., Ltd. |
|---|---|
| Head Office | 7686-10 Hirano-cho, Suzuka, Mie513-0835, Japan zip code 513-0835 |
| Phone | +81-90-2189-1398 |
| FAX | +81-59-379-4704 |
| Business Hours | 8:00~17:00 |
| Office Regular Holiday |
Saturday afternoons, Sundays and public holidays |
| URL | https://conanair.com/ |
| Company Name | NSXe Co.Ltd - Nakayama Hydrothermal Industry Co., Ltd. |
|---|---|
| Head Office | 7686-10 Hirano-cho, Suzuka, Mie513-0835, Japan zip code 513-0835 |
| TEL | +81-90-2189-1398 |
| FAX | +81-59-379-4704 |
| Business Hours | 8:00~17:00 |
| Office Regular Holiday |
Saturday afternoons, Sundays and public holidays |
| URL | https://conanair.com/ |







