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AI Driven Predictive Maintenance with human factors input 

Predictive maintenance powered by Artificial Intelligence (AI) is becoming a key tool in the maritime world. From avoiding costly breakdowns to keeping operations running smoothly, these systems use data to predict when machinery might fail before it actually does.But while these systems are clever, they often miss something big: the human behind the machine.What if AI could learn not just from machines, but also from the people who operate them? The answer could change everything.

Human Insight in Predictive Maintenance

Traditional AI maintenance systems focus on:- Vibration and temperature readings- Operating hours and duty cycles- Oil quality and pressureWhile useful, this data ignores a crucial element—how different operators interact with the same equipment.Some crew members may apply more force, others might operate machinery more frequently or more delicately. Posture, fatigue, grip strength, and even body size can impact how equipment wears over time.Without understanding these factors, AI may mislabel normal use as a warning sign, leading to false alarms, missed failures, and unfair evaluations.


The Human Factor

Now, a new approach is being introduced: combining human factors with machine data.This includes:- Grip force and torque applied by each operator- Frequency and duration of use per shift- Physical traits like hand size, height, and reach- Fatigue and stress indicatorsUsing tools like wearable sensors, smart interfaces, and manual input logs, AI systems can now learn from real human interaction and not just mechanical performance.


Why Gender Inclusivity Matters

Many machines and control systems have been designed with the average male user in mind. But female operators may have different ergonomic needs, smaller hands, different reach, and lower grip strength.When AI systems are trained only on data from a narrow group of users, they may misread these differences as errors or misuse.By collecting and learning from diverse data sets, AI can be trained to recognize that different styles of use are not necessarily wrong, they’re just different. And that's important for fairness, accuracy, and inclusivity.


The Benefits of Human-Centered AI

Integrating human behavior into predictive maintenance leads to:

● More accurate predictions

● Less unexpected equipment failure

● Customized maintenance schedules

● Better matching between crew and tasks

● Fairer operator performance reviews

● Inclusive design that fits all users

Ultimately, this approach improves both machine reliability and crew satisfaction.


The Technology Behind It

To support this shift, several technologies are already in use:- Wearable devices that track motion, fatigue, and force- Smart control panels that record how operators interact with machinery- Adaptive human-machine interfaces (HMIs) that adjust layouts and feedback based on user profilesTogether, these tools help AI understand how machines are used—not just how much.


Challenges to Consider

Despite the benefits, a few challenges remain:- Privacy concerns when tracking user behavior- Resistance to wearable tech among crew- Difficulty integrating AI with older ship systems- The need for inclusive, balanced training dataAddressing these challenges will require thoughtful planning, technical upgrades, and open communication among all stakeholders.


Conclusion

Predictive maintenance is no longer just about machines, it’s about people, too.By teaching AI to understand human interaction styles, we create systems that are smarter, safer, and more fair. This is especially important in diverse crews, where physical traits and work styles may vary.


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