💡 Change Management in Organisations: 5 Steps to Build a Predictive Maintenance Culture The power of predictive maintenance lies not in technology alone, but in the people and departments that turn data into smarter decisions. Here are 5 practical steps to embed predictive practices: 1️⃣ Adopt proactive decision-making: prevent failures before they happen. 2️⃣ Track leading indicators – spot subtle signals like rising temperatures early. 3️⃣ Integrate data across systems: SCADA, historians, CMMS, IoT all in one view. 4️⃣ Pilot on a single asset: show results before scaling. 5️⃣ Equip teams with resources: training + actionable insights for faster responses. 👉 These steps shift maintenance from firefighting to foresight, creating more reliable, efficient operations. This is Part 2 of 3 in our series on organisational management for predictive maintenance. Find the link to the full article in the comments! #SmartMaintenance #PredictiveMaintenance #DataDriven #IndustrialInnovation
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"Decision-Making with Integrated Condition Data" In modern railway operations, real-time asset health insights are essential for preventing failures, optimizing maintenance, and extending asset life. Fixed schedules alone can’t capture the dynamic nature of equipment wear, usage, and environmental impact. IBM Maximo integrates SCADA systems, IoT sensors, and inspection data into a single platform — transforming raw information into actionable maintenance strategies that keep assets performing at their best. 5 Key Maximo Capabilities for Condition-Based Decision-Making: 1. SCADA & IoT Integration – Collect real-time operational and environmental data from connected assets. 2. Automated Alerts & Work Triggers – Generate work orders instantly when thresholds or anomalies are detected. 3. Inspection Data Correlation – Link manual inspection results to condition data for more accurate assessments. 4. Predictive Maintenance Support – Use historical and live data to forecast failures and plan interventions. 5. Prioritization & Budget Alignment – Rank maintenance needs based on risk, impact, and available resources. The result: Data is no longer just stored — it’s acted upon, enabling better decisions, fewer service disruptions, and longer asset life. Top 3 Business Benefits: ✅ Real-time condition monitoring ✅ Data-driven decisions ✅ Extended asset life #Maximo #Railway #AssetManagement #ConditionMonitoring #PredictiveMaintenance #IoT #SCADA #AssetManagement #AssetLifeCycleManagement #Innovation #SmartMaintenance #PredictiveMaintenance #RailwayInfrastructure #DigitalRail #RailTech #SustainableRail #AIinRail #SmartInfrastructure #IBMMaximo #IBMMaximoApplicationSuite #Watsonx #LAMAEmpowerz
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🤖 𝐀 𝐒𝐦𝐚𝐫𝐭𝐞𝐫 𝐅𝐮𝐭𝐮𝐫𝐞, 𝐎𝐧𝐞 𝐃𝐢𝐠𝐢𝐭𝐚𝐥 𝐒𝐡𝐢𝐟𝐭 𝐚𝐭 𝐚 𝐓𝐢𝐦𝐞 ⚡ Industrial Digitalization Market Size is forecast to reach $438.6 Billion by 2030, at a CAGR of 9.2% during 2024-2030. 🔗 Get ROI-focused insights for 2025-2031 → Download Now@ https://lnkd.in/dKictYum 🔑 Key Market Drivers for the Industrial Digitalization Market: 🏭 Industry 4.0 Transformation Factories are embracing automation, AI, and robotics to boost efficiency, reduce downtime, and enhance productivity. 🌐 IoT & Connectivity Adoption Industrial IoT solutions enable predictive maintenance, remote monitoring, and smart asset management across manufacturing sectors. 📊 Data-Driven Decision Making The rise of big data, cloud platforms, and AI analytics is helping companies optimize operations with real-time insights. 🔋 Energy Efficiency & Sustainability Goals Digital tools are enabling greener production processes, reducing waste, and supporting compliance with ESG frameworks. 🛡 Cybersecurity in Connected Industries With rising digital adoption, investment in industrial cybersecurity is becoming essential to safeguard infrastructure. 💡 Limited-Time Offer: Get $1000 Off Your First Purchase@ https://lnkd.in/d2sskNTx Top Key Players (Global & US-based): Siemens| Honeywell | Rockwell Automation | GE (GE) | IBM | Microsoft | ABB | Schneider Electric | Emerson #Industry40 #DigitalTransformation #SmartManufacturing #IIoT #AI #Automation #CloudComputing #TechTrends2025 #DataDrivenIndustry
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🤖 𝐀 𝐒𝐦𝐚𝐫𝐭𝐞𝐫 𝐅𝐮𝐭𝐮𝐫𝐞, 𝐎𝐧𝐞 𝐃𝐢𝐠𝐢𝐭𝐚𝐥 𝐒𝐡𝐢𝐟𝐭 𝐚𝐭 𝐚 𝐓𝐢𝐦𝐞 ⚡ Industrial Digitalization Market Size is forecast to reach $438.6 Billion by 2030, at a CAGR of 9.2% during 2024-2030. 🔗 Get ROI-focused insights for 2025-2031 → Download Now@ https://lnkd.in/dKictYum 🔑 Key Market Drivers for the Industrial Digitalization Market: 🏭 Industry 4.0 Transformation Factories are embracing automation, AI, and robotics to boost efficiency, reduce downtime, and enhance productivity. 🌐 IoT & Connectivity Adoption Industrial IoT solutions enable predictive maintenance, remote monitoring, and smart asset management across manufacturing sectors. 📊 Data-Driven Decision Making The rise of big data, cloud platforms, and AI analytics is helping companies optimize operations with real-time insights. 🔋 Energy Efficiency & Sustainability Goals Digital tools are enabling greener production processes, reducing waste, and supporting compliance with ESG frameworks. 🛡 Cybersecurity in Connected Industries With rising digital adoption, investment in industrial cybersecurity is becoming essential to safeguard infrastructure. 💡 Limited-Time Offer: Get $1000 Off Your First Purchase@ https://lnkd.in/d2sskNTx Top Key Players (Global & US-based): Siemens| Honeywell | Rockwell Automation | GE (GE) | IBM | Microsoft | ABB | Schneider Electric | Emerson #Industry40 #DigitalTransformation #SmartManufacturing #IIoT #AI #Automation #CloudComputing #TechTrends2025 #DataDrivenIndustry
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MQTT (originally "Message Queuing Telemetry Transport") => a lightweight, publish-subscribe messaging protocol. => designed for fast, efficient, and reliable communication between devices, especially in environments with limited bandwidth and high latency => uses a broker to route messages from publishers (devices sending data) to subscribers (devices or apps interested in that data) without them needing to know about each other 📌 Some History => Invented in 1999 by Andy Stanford-Clark (IBM) and Arlen Nipper (Arcom) for monitoring oil pipelines over unreliable satellite links The main goal => minimal bandwidth use and battery consumption. => IBM released MQTT 3.1 as an open protocol in 2010 => Standardized by OASIS in 2013 => MQTT 5 released in 2019 Today, MQTT is the de facto standard for IoT messaging and is widely used across industries. 📌 Real-World Use Case Smart Home Automation => A smart thermostat publishes temperature data to an MQTT broker. => Smart lights or HVAC systems subscribe to that data and adjust settings automatically. => Homeowners can control and monitor all devices from a single app. Other major use cases => Industrial IoT => fleet management => smart grids => healthcare (remote monitoring) => agriculture => logistics
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MQTT (originally "Message Queuing Telemetry Transport") => a lightweight, publish-subscribe messaging protocol. => designed for fast, efficient, and reliable communication between devices, especially in environments with limited bandwidth and high latency => uses a broker to route messages from publishers (devices sending data) to subscribers (devices or apps interested in that data) without them needing to know about each other 📌 Some History => Invented in 1999 by Andy Stanford-Clark (IBM) and Arlen Nipper (Arcom) for monitoring oil pipelines over unreliable satellite links The main goal => minimal bandwidth use and battery consumption. => IBM released MQTT 3.1 as an open protocol in 2010 => Standardized by OASIS in 2013 => MQTT 5 released in 2019 Today, MQTT is the de facto standard for IoT messaging and is widely used across industries. 📌 Real-World Use Case Smart Home Automation => A smart thermostat publishes temperature data to an MQTT broker. => Smart lights or HVAC systems subscribe to that data and adjust settings automatically. => Homeowners can control and monitor all devices from a single app. Other major use cases => Industrial IoT => fleet management => smart grids => healthcare (remote monitoring) => agriculture => logistics ----------- 🗞️ Free Newsletter - https://lnkd.in/dJByxEYY
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Here's a very interesting case study of ours that I came across. A European aircraft-components manufacturer deployed an edge-based IoT predictive maintenance solution to stream sensor data in real time and forecast failures. As a result, it significantly reduced the risk of a milling-machine failure, helping minimize downtime and protect ROI. Source: Capgemini client story → https://lnkd.in/ddg45Qbf How and why this works: • Real-time data from machines (via PLCs) to a cloud platform for analytics and alerts. • Closed loop between the predictive app, system management, field service and end users. What are some of your findings on how and why predictive maintenance improves maintenance KPIs and reduces costs? If you are using preventive maintenance, what would be the arguments against the predictive approach? #PredictiveMaintenance #Industry40 #Manufacturing #Aerospace #Operations
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What I Learned Connecting 10,000 IoT Devices Across 24 Plants Spoiler: The hardest part wasn’t the devices. A few years ago, I was involved in a project to connect 10,000+ IoT devices across 24 manufacturing plants. Here’s the reality: ✅ Installing sensors? Straightforward. ✅ Getting data out of them? Achievable. ❌ Making that data useful across the enterprise? That was the real challenge. Every plant had its own PLC setup, SCADA system, MES quirks, and naming conventions. It was like trying to merge 24 different languages into one conversation. Point-to-point integrations worked initially, until complexity exploded. Maintenance became a headache. Scaling? Near impossible. The breakthrough came with a unified, real-time architecture: a single “namespace” where all systems could publish and subscribe to live data in a consistent format. The results were tangible: ✅ Zero unplanned downtime ✅ Improved OEE across all plants ✅ Real-time visibility for the business Key takeaway: The challenge isn’t the devices. It’s the data architecture. 👉 How have you approached large-scale IoT integration challenges in your organization?
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Unified Name Space (UNS) architecture is a solution to avoid complexity in integrating thousands of different IIOT devices across multiple manufacturing plants.
Driving unified data infrastructure for enterprises without silos or complexity | Senior BDR at HiveMQ 🐝 | IIoT & Industry 4.0 | Unified Namespace
What I Learned Connecting 10,000 IoT Devices Across 24 Plants Spoiler: The hardest part wasn’t the devices. A few years ago, I was involved in a project to connect 10,000+ IoT devices across 24 manufacturing plants. Here’s the reality: ✅ Installing sensors? Straightforward. ✅ Getting data out of them? Achievable. ❌ Making that data useful across the enterprise? That was the real challenge. Every plant had its own PLC setup, SCADA system, MES quirks, and naming conventions. It was like trying to merge 24 different languages into one conversation. Point-to-point integrations worked initially, until complexity exploded. Maintenance became a headache. Scaling? Near impossible. The breakthrough came with a unified, real-time architecture: a single “namespace” where all systems could publish and subscribe to live data in a consistent format. The results were tangible: ✅ Zero unplanned downtime ✅ Improved OEE across all plants ✅ Real-time visibility for the business Key takeaway: The challenge isn’t the devices. It’s the data architecture. 👉 How have you approached large-scale IoT integration challenges in your organization?
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⚙️ The Future of Maintenance in Industrial Transformation The industrial landscape is evolving at an unprecedented pace. Automation, IoT, AI, and data driven systems are transforming operations. but one thing remains constant: the value of handson skill. 🔧 Hands on Expertise ensures precision, safety, and rapid response on the shop floor. 💻 Digital Intelligence powered by CMMS, predictive analytics, and smart sensors drives efficiency, foresight, and operational excellence. The true leaders in the era of industrial transformation are those who merge practical skills with digital innovation. It’s not manual vs. digital it’s about mastering both to drive reliability, productivity, and competitive advantage. ⚡ The future of maintenance belongs to those who combine hands on skill with digital intelligence in the heart of industrial transformation. #IndustrialTransformation #FutureOfMaintenance #DigitalMaintenance #ReliabilityEngineering #SmartIndustry #Industry40 #OperationalExcellence
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Maintenance teams are going wild under the banner of “going digital”! But “digital” isn’t about chasing every shiny tech acronym. It’s about using the data you already own- smarter. Start with: - CMMS adoption - Failure logs - Simple dashboards Once the foundation is solid, layer in IoT and predictive analytics. Overcomplicating and running multiple tech initiatives simultaneously has two consequences: an overwhelmed team and failed implementations. Where’s your facility today: stuck on paper, CMMS-ready, or predictive?
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Find the full article here: https://www.ureason.com/resources/change-management-in-organizations-becoming-data-driven/ 🙂