Learning Center
Free guides on maintenance fundamentals, repair troubleshooting, knowledge management, and AI-driven maintenance for manufacturing teams.
Most teams fix symptoms and move on. RCA forces you to find the actual failure point so the same problem stops showing up every month. Here is how to run one that produces real answers.
When a critical machine goes down, the first 15 minutes decide whether you are back in production by lunch or losing an entire shift. This guide covers exactly what to do, in order, when the call comes in.
A 40-page PDF sitting in a shared drive does not help a technician standing in front of a faulting machine. Video SOPs put the right procedure in their hands, on the floor, when they need it.
Watching a video is passive. Adding quizzes, chapter markers, and completion tracking turns it into real training with measurable skill gains. Here is how to set it up without a massive budget.
Your senior technicians carry decades of knowledge in their heads. When they walk out the door, that knowledge goes with them. Here is a practical system to capture it before it is too late.
Most knowledge bases fail because nobody updates them and nobody searches them. The ones that work share three traits: they are fast to add to, easy to search, and tied to the equipment on the floor.
OEE tells you how much of your scheduled production time actually produces good parts. If your OEE is 60%, you are losing 40% of your capacity to downtime, slow cycles, and defects. Here is how to measure it and where to start improving.
MTTR measures how long it takes to get a machine running after a failure. A high MTTR means your team spends too long diagnosing, waiting for parts, or figuring out procedures. This guide breaks down what drives MTTR up and how to bring it down.
A technician describes what they see: strange noise, high temperature, intermittent fault code. An AI diagnostic tool matches those symptoms against thousands of past repairs and points to the most likely fix. Here is how it works in practice.
A CMMS tracks work orders and schedules PMs. An AI maintenance platform does that, but also diagnoses problems, recommends fixes, and learns from every repair. Here is where they overlap and where they differ.
MTBF tells you the average run time between breakdowns. If your MTBF on a packaging line is 72 hours, you can expect roughly one unplanned stop every three days. This guide covers how to calculate it, what good numbers look like, and how to push them higher.
A CMMS cuts maintenance admin time by 30% and stops work orders from getting lost. Learn what features matter, how to pick the right system, and how to get your team to actually use it.
Preventive maintenance replaces the 'run it until it breaks' approach with scheduled inspections and part replacements. Plants that run a solid PM program see 25-30% fewer emergency work orders within the first year. Here is how to build one that sticks.
Predictive maintenance uses sensor data to spot problems before they cause downtime. A vibration sensor catching a bearing defect two weeks early costs you a $200 part swap instead of a $15,000 emergency rebuild. This guide explains the tech, the math, and where to start.
Condition-based maintenance means you service equipment when measurements say it needs it, not on a fixed calendar. Oil analysis shows contamination, you change the oil. Thermography shows a hot connection, you fix it. This approach cuts unnecessary PM tasks by 20-40%.
Total Productive Maintenance turns operators into your first line of defense. Learn the 8 TPM pillars, how to implement autonomous maintenance, and why plants with mature TPM programs see 15-25% OEE gains.
RCM asks a simple question for every asset: what is the right maintenance strategy for this specific failure mode? Some failures justify predictive monitoring. Others just need a scheduled replacement. A few are best handled by running to failure. RCM helps you sort them out systematically.
Wrench time is the percentage of a technician's shift spent actually turning wrenches on equipment. Industry average sits around 25-35%. The rest goes to walking, waiting for parts, searching for manuals, and paperwork. Here is how to measure yours and push it above 50%.
PM compliance measures the percentage of scheduled preventive maintenance tasks completed on time. If you are below 90%, your PM program is not protecting your equipment. This guide covers how to calculate it, common reasons it slips, and practical steps to keep it above target.
Every plant has a maintenance backlog. The question is whether yours is a manageable 2-4 weeks of work or an out-of-control list that grows faster than your team can work through it. This guide explains how to measure backlog in weeks, set a target, and systematically bring it down.
Reactive maintenance feels cheaper because you only pay when something breaks. But emergency repairs cost 3-5x more than planned ones when you factor in overtime, expedited parts, collateral damage, and lost production. Here is how the numbers actually work.
Preventive maintenance follows a calendar. Predictive maintenance follows the data. Neither is universally better. The right choice depends on failure patterns, asset criticality, and whether you have the sensors and skills to support a PdM program. This guide helps you decide asset by asset.
Cost per unit is direct materials plus direct labor plus manufacturing overhead, divided by units produced. Getting that overhead number right is where most teams struggle. This guide walks through the calculation step by step with real factory floor numbers.
Unplanned downtime costs industrial manufacturers an estimated $50 billion per year globally. Most plants can cut theirs by 30-50% with straightforward changes to PM compliance, spare parts stocking, and technician access to repair information. Here are 10 steps that work.
The 15 maintenance KPIs that matter most: MTTR, MTBF, OEE, PM compliance, wrench time, and 10 more. Includes formulas, benchmarks, and how to build a KPI dashboard that drives action, not just reports.
80% of hydraulic failures come from just 3 causes: contaminated fluid, overheating, or internal leaks. Stop guessing, use this step-by-step diagnostic sequence to find the root cause in minutes, not hours.
Electrical faults cause 30% of unplanned downtime. This systematic fault finding guide, visual inspection → voltage checks → component isolation → testing, helps you diagnose faults in minutes, not hours.
Every rotating machine vibrates. The pattern of that vibration tells you whether bearings are wearing, shafts are misaligned, or components are out of balance. Learning to read vibration data catches 90% of rotating equipment failures weeks before they happen.
Bearings are the most commonly replaced component in industrial machinery. Yet 16% of premature bearing failures come from improper installation: wrong fit, contamination during mounting, or inadequate lubrication at startup. This guide covers the full process from selection to run-in.
Pumps fail for predictable reasons: cavitation, dry running, seal wear, misalignment, and a handful of others. Once you know the eight patterns, you can set up monitoring and PM tasks that catch each one early. This guide covers every common failure mode with prevention steps.
Electric motors make up 70% of industrial electricity consumption and are involved in most production lines. When one trips, overheats, or vibrates, you need a fast, structured diagnostic path. This guide maps symptoms to likely causes so you reach the fix faster.
When a PLC faults, production stops and everyone looks at the maintenance technician. Knowing how to read fault codes, check I/O status, and trace logic in a ladder diagram gets you from alarm to fix in minutes instead of hours. This reference covers the essentials.
Compressed air is the most expensive utility in most plants, and leaks waste 20-30% of compressor output. An ultrasonic leak survey typically finds $10,000-50,000 in annual savings. This guide covers detection methods, repair prioritization, and how to keep leaks from coming back.
Poor lubrication causes up to 40% of bearing failures. Wrong grease, wrong amount, wrong interval, or contaminated supply are the usual culprits. Getting lubrication right is the single highest-ROI maintenance improvement most plants can make.
Misalignment is the second leading cause of rotating equipment failure after lubrication problems. Laser alignment takes 30 minutes and prevents months of accelerated wear on bearings, seals, and couplings. This guide covers the basics of angular and offset misalignment correction.
The best SOPs are written by the technicians who do the work, reviewed by a second tech, and short enough to follow while standing at the machine. If your SOPs are 20-page Word documents that nobody opens, this guide shows how to fix that.
Good documentation turns every repair into a future reference. Bad documentation fills your CMMS with 'fixed it' entries that help nobody. This guide defines what fields matter, how detailed work order notes should be, and how to build the habit across your team.
Every shift change is a potential information gap. The outgoing crew knows about the intermittent fault on Line 3, the part that was ordered but has not arrived, and the workaround on the packaging machine. If that does not transfer, the incoming crew starts from zero.
Digital twins let you see equipment health, simulate failures, and predict breakdowns, without walking to the machine. Here are 5 real maintenance use cases delivering ROI today.
Your technicians are on the floor, not at a desk. A mobile app that takes 8 taps to close a work order will not get used. The apps that stick give techs fast access to work orders, manuals, and parts info with minimal friction. Here is what to look for.
A 5-minute walkthrough video teaches a new technician more about a machine than a 50-page manual. You do not need a production studio. A smartphone, a clip-on mic, and a structured script produce training content that is good enough to cut onboarding time by 40%.
Your SOPs are useless if half the team can't read them. Learn how visual-first design, AI translation, and smart subtitles deliver safety-critical training to every technician, in their language.
New maintenance hires typically take 6-12 months to become fully productive. Video-based onboarding with structured equipment walkthroughs, safety modules, and skill checkpoints can cut that to 3-4 months. This guide covers what to include and how to structure the program.
Completion rates tell you who watched the video, not who learned anything. The metrics that matter are time-to-competency, first-time fix rate after training, and reduction in repeat failures. This guide shows how to set up measurement that connects training to real outcomes.
The hype around AR/VR in manufacturing has outpaced the reality. AR overlays for guided repairs are delivering real value today. Full VR training simulations still have limited use cases. This guide separates what works now from what is still two to three years out.
AI can auto-classify incoming work orders, suggest priority levels based on asset criticality, and route them to the right technician based on skill match and availability. Plants using AI work order routing report 15-20% faster response times on critical requests.
Instead of browsing through folders or guessing CMMS search terms, natural language search lets a technician type 'how to reset fault code E-47 on the Fanuc robot' and get the exact procedure. This guide explains how it works and what it takes to implement.
Traditional FMEA workshops take days and still miss failure modes. AI can draft an initial FMEA in minutes by pulling from equipment manuals, historical work orders, and industry failure databases. Your team then reviews and refines instead of starting from a blank sheet.
Machine learning models learn normal equipment behavior from sensor data and flag when readings drift outside expected patterns. You do not need a data science team to get started. This guide covers the practical path from raw sensor data to useful predictions.
The Model Context Protocol (MCP) lets AI tools connect to your existing maintenance systems, pulling data from CMMS, historian, and document repositories through a standardized interface. This guide explains MCP, why it matters for maintenance, and how it enables truly connected AI tools.
Understand the key differences between predictive and preventive maintenance. Learn when to use each strategy, cost comparisons, and how AI is changing the equation.
Master TPM's 8 pillars. Learn how to implement autonomous maintenance, reduce the six big losses, and build a culture of continuous improvement on your plant floor.
The essential maintenance KPIs with formulas, benchmarks, and improvement strategies. OEE, MTTR, MTBF, PM compliance, schedule compliance, and more.
Implement CMMS without the common pitfalls. Step-by-step plan covering data migration, team training, configuration, pilot rollout, and go-live.
The trends reshaping maintenance management in 2026. AI copilots, voice-based work orders, IoT + CBM going mainstream, and the shift to cloud-only platforms.
RCM methodology explained practically. The 7 questions, FMEA integration, decision logic, and how to implement RCM without paralyzing your team with analysis.
Go paperless on the plant floor. Digital checklists, voice-based reporting, electronic work orders, and compliance documentation. A practical migration roadmap.
Optimize your spare parts inventory. Critical vs non-critical classification, BOM management, reorder point formulas, and AI-driven demand forecasting.
Talk to our team about how Dovient can reduce downtime and capture knowledge across your factory floor.