Tips for Improving Process Reliability and Safety

4M CONDITION CHECKLIST FOR MANUFACTURING PROCESS 4M Condition Table specifically tailored for the manufacturing sector, focusing on production process control, machine reliability, material conformity, and operator discipline. 1. Man (Operator) The operator is at the heart of any manufacturing process. Ensuring their readiness and discipline is critical. Operators must be trained and certified for the specific machines or tasks they handle. They should have clear awareness of safety procedures, quality standards, and work instructions. Physical and mental fitness must be monitored to avoid fatigue-related errors. Proper use of PPE (Personal Protective Equipment) such as gloves, helmets, and goggles is mandatory. Adherence to 5S and standard operating procedures (SOPs) ensures a clean and organized work area. 2. Machine (Equipment) The condition of machines directly affects production performance and product quality. Machines should be well-maintained, with preventive maintenance done as per schedule. Tools, jigs, and fixtures must be properly set and in good working condition. Safety systems like guards and emergency stops must be functional at all times. Machines should be free from abnormal noise, vibration, or leakage, indicating stable health. Critical spares must be available to avoid production delays due to breakdowns. 3. Material (Raw and In-process) Material quality and handling significantly influence the final product outcome. All materials must be received as per BOM (Bill of Materials) specifications and verified through incoming inspection. Proper labeling and traceability (batch number, lot number) must be maintained. Storage conditions should be appropriate to avoid damage, contamination, or rust. FIFO (First In, First Out) must be followed to manage shelf life and batch usage. Material must be available in the right quantity at the right time to prevent stoppages. 4. Method (Process) A standardized and controlled method ensures consistency and reduces variation. SOPs or work instructions must be available at the workplace and strictly followed. All process parameters (like temperature, pressure, torque) should be defined and monitored. In-process quality checks should be performed and recorded regularly. Cycle time and takt time must be maintained as per planning. Any changes in methods or processes must be documented through change control procedures.

Process Safety - static electricity - fit and forget safeguards The recent fatal explosion during a chemical mixing operation in Gimpo, South Korea was attributed to the ignition of flammable vapours by static electricity. (https://lnkd.in/eAJ6EywA) The tragedy is a reminder of the importance of static electricity safeguards. Static discharge is a well-known ignition mechanism, but can be overlooked or underweighted in risk assessments, design reviews, HAZOPs, and operational assurance. Static electricity is generated by fluid flow, mixing, splashing, filtration, and phase separation: mechanisms inherent to many routine operations. Minimum ignition energies for many solvent vapours are orders of magnitude lower than the energy available from a static discharge. Static hazards are routinely controlled by bonding and earthing installed during construction. Bonding and earthing are not “fit-and-forget” safeguards. Electrical continuity across flanges can be compromised by non-conductive gaskets, corrosion, coatings, sealants, vibration, or routine maintenance. Bonding jumpers may be removed and not reinstated, or remain physically present but electrically ineffective due to poor contact or degraded earth paths. Effective control of static electricity requires more than installation standards. It requires defined inspection intervals, continuity testing, verification following maintenance or modification, and clear assignment of responsibility. Bonding and earthing should be managed as safety-critical barriers with defined performance requirements - not as passive design features. Many static-related incidents do not occur because safeguards were absent, but because they were assumed to remain effective indefinitely. In process safety terms, any control that is not periodically verified should be considered unreliable. How does your site demonstrate bonding effectiveness?

🔺 Process Safety: It's Not Just a System—It's a Mindset 🔺 Case Study: Williams Olefins Plant Explosion (2013) On June 13, 2013, a catastrophic explosion rocked the Williams Olefins plant in Geismar, Louisiana. Two workers tragically lost their lives, over 160 were injured, and the blast was felt miles away. At the heart of the explosion: a failure in process safety management (PSM)—not equipment, not malice, but preventable misjudgments in how systems and changes were managed. 📌 The plant had two reboilers (heat exchangers), A and B. After some modifications years earlier, Reboiler B could be isolated from the process—but also, unknowingly, from pressure relief protection. When hot water was introduced into the vessel, hydrocarbons that were thought to be absent rapidly vaporized, building pressure until the vessel exploded. Within 3 minutes of heating, the reboiler ruptured in a BLEVE (Boiling Liquid Expanding Vapor Explosion). 💡 The root cause? Not just "operator error." It was a chain of missed opportunities: ✅ Incomplete Management of Change (MOC) procedures ✅ Inadequate Process Hazard Analysis (PHA) ✅ Weak Pre-Startup Safety Reviews (PSSR) ✅ Assumptions instead of verification ✅ Overreliance on administrative controls ✅ A safety culture that didn't challenge the status quo 🚨 What can we learn? ✅ Never isolate safety systems (like pressure relief) without a thorough hazard analysis. ✅ Assumptions kill. "It’s probably empty" or “we’ve done this before” should never replace data and procedure. ✅ Design out risk. Reliance on human memory or procedural barriers is a last line of defense—not the first. ✅ Treat MOC, PHA, and PSSR as lifelines—not paperwork. Every bypassed step is a chance for disaster. ✅ Safety culture starts at the top. If leadership treats safety as a formality, it trickles down to front-line behavior. This incident is not just about one plant or one team. It’s a stark reminder for any industry dealing with hazardous processes: 🛑 Safety is not the absence of incidents. It’s the presence of robust, resilient systems. 🚨 Process Safety is not an “EHS responsibility”—it’s everyone’s responsibility, from operators to executives. Let’s keep sharing, learning, and embedding these lessons into every change, every decision, every design. Because when it comes to process safety, what you don’t know—or assume—can hurt you. #ProcessSafety #PSM #Leadership #SafetyCulture #Engineering #ChemicalIndustry #OperationalExcellence #WilliamsOlefins #LearningFromIncidents #ManagementOfChange #PHA #PSSR #HumanFactors #HighHazardIndustries #LinkedInLearning

The incident at the Husky Superior Refinery on April 26, 2018, involved an explosion and fire that occurred in the Fluid Catalytic Cracking (FCC) unit. i) Incident Overview: On April 26, 2018, an explosion occurred at the Husky Superior Refinery in Wisconsin during a scheduled maintenance shutdown. The explosion happened after a mix of hydrocarbons was released into the air from the FCC unit, which ignited, causing a massive fire. The explosion injured several workers and led to a large-scale evacuation of the surrounding area due to the potential for toxic releases and further explosions. ii) Cause of the Incident: The U.S. Chemical Safety and Hazard Investigation Board (CSB) investigated the incident and found that: 1. Equipment Failure: The explosion was traced back to the failure of a piece of equipment known as a slide valve in the FCC unit. This valve was critical for controlling the flow of hydrocarbons. 2. Hydrocarbon Release: When the slide valve failed, it led to the release of a mixture of hydrocarbons into the air. These hydrocarbons then found an ignition source, resulting in the explosion. 3. Human Error: Contributing factors included operational errors and the possible failure to adhere to safety protocols during the shutdown procedure. iii) Prevention Measures: To prevent such incidents in the future, the following measures can be implemented: 1. Improved Equipment Design and Maintenance: Ensure that critical components like slide valves are regularly inspected, maintained, and replaced when necessary. Upgrades to more reliable and fail-safe designs should also be considered. 2. Enhanced Shutdown Procedures: Establish and rigorously enforce detailed shutdown and startup procedures for FCC units. Ensure that all personnel are properly trained and understand the risks involved. 3. Safety Management Systems: Implement a comprehensive safety management system that includes regular safety audits, risk assessments, and adherence to process safety protocols. 4. Emergency Preparedness: Improve emergency response plans and conduct regular drills to prepare for potential incidents, ensuring that all personnel know how to respond swiftly and safely.

If you're the Head of Maintenance in an asset-intensive operation and want to structurally reduce breakdowns, here’s where to start (for operations using SAP). Emergency work isn’t usually an equipment problem. It’s a system discipline problem. Here are 10 things that must be fixed. 1. Notification Discipline Every failure must start with a SAP notification with the correct: • Functional location • Equipment • Failure code • Cause code • Description No notification = no data = no reliability improvement. 2. Follow the Workflow The correct process exists for a reason: Notification → Planning → Work Order → Scheduling → Execution → Confirmation → History Skipping planning leads to longer downtime and repeat failures. 3. Build Proper Failure Codes Most SAP systems lack structured failure libraries. Create clear codes for mechanical, electrical, instrumentation and process failures. Then run monthly Pareto analysis. 20% of failure modes cause ~80% of breakdowns. 4. Kill the “Hero Maintenance” Culture Organizations often reward technicians who fix things fast. World-class maintenance rewards preventing failures. Focus on MTBF improvement, not firefighting. 5. Increase Planned Work Breakdown-heavy sites often operate like this: • 50% breakdown work • 30% reactive • 20% planned Target: • 70–80% planned work • <10% emergency work 6. Use Preventive Maintenance Properly Many PM tasks are outdated or copied from OEM manuals. Move toward condition-based maintenance where possible: • Vibration monitoring • Oil analysis • Thermography • Ultrasonics 7. Build Reliability Engineering Without reliability engineers, maintenance stays reactive. Their job: • Root cause analysis • Bad actor identification • Strategy reviews • Failure elimination 8. Eliminate Bad Actors In every plant: 10 assets cause ~50% of downtime. Use SAP history to identify and permanently fix them. 9. Fix Spare Parts Strategy Breakdowns escalate when parts aren't available. Your spare strategy must include: • Critical spares lists • Minimum stock levels • Lead time control 10. Track the Right KPIs Focus on: • Planned Work % • Schedule compliance • MTBF • MTTR • Emergency work % If emergency work exceeds ~15%, the system needs fixing. Breakdown-heavy operations rarely have a technician problem. They have a system problem. Fix the system → breakdowns drop. 🔹🔹🔹🔹🔹🔹🔹🔹🔹🔹🔹🔹🔹🔹 I’m Allan Inapi. I help asset-intensive organisations fix maintenance at the system level - with SAP PM, M&R, and Asset Management practices that actually work in the real world. 14+ years across Oil & Gas, Mining, and Industrial Ops. Consistent, defensible 30%+ cost reductions - without burning teams out.

🚀 Engineering Insight: What I Learned from Process Design Standards Today I explored some key principles from a Process Engineering Design Basis Manual, and it reminded me how much engineering decisions shape plant safety, reliability, and efficiency. Here are the most important takeaways: 🔹 1. Good Engineering Starts with Good P&IDs Pipe sizing, pressure-drop limits, minimum nozzle sizes, and flow-regime control are not small details — they define how safe and stable a process unit will operate. 🔹 2. Equipment Is Never Designed at 100% Load I learned how design margins protect real operations: • Heat exchangers: 10–20% extra duty • Pumps: 10–20% extra flow • Compressors/blowers: 10% margin These margins secure performance during fouling, aging, or unexpected process variations. 🔹 3. Safety Relief Philosophy Is Non-Negotiable Scenarios like cooling failure, blocked discharge, power loss, or tube rupture must be anticipated. Relief valves must comply with API 520/521/526, ensuring systems stay protected even during worst-case events. 🔹 4. Insulation & Tracing = Energy + Safety The manual highlights how insulation thickness is selected based on temperature ranges. Proper insulation reduces heat loss, prevents freezing, protects workers, and saves major energy costs. 🔹 5. Surge Volume & Level Philosophy Improves Plant Stability Surge time requirements like: • Feed to unit: 15–20 min • Feed to tower: 5–7 min • Furnace feed: 4–10 min help ensure the plant runs smoothly during disturbances and manual interventions. 🔹 6. Noise Engineering Protects Operators Designing equipment to maintain < 90 dBA in process units protects workers and meets industrial safety standards. Noise control is a real engineering discipline. 🔧 My Takeaway Engineering is much more than drawings and calculations — it’s a mindset of safety, optimization, and problem-solving. Every detail in a design basis document represents lessons learned from years of industrial experience. #ProcessEngineering #ChemicalEngineering #IndustrialEngineering #ProcessDesign #SafetyEngineering #EngineeringStandards #PlantOperations #EnergyEfficiency #EngineeringGrowth #LearningJourney

Introducing process safety into a company or facility for the first time is not just about implementing standards and procedures. It’s about planting a seed and nurturing it until it grows strong roots. Like gardening, it requires patience, observation, planning, and balance. Think of process safety as a green plant. Before you plant the seed, you must prepare the soil — the culture, the mindset, and the environment. Without this foundation, no seed will take root, no matter how good it is. Then comes the seed itself — the process safety elements and improvement initiatives. But it doesn’t stop there. You must water the plant regularly. The water represents the initiatives, the training, the awareness sessions, and the small wins that keep the momentum going. Be careful — too much water, just like too many initiatives launched at once, will drown the plant. People will feel overwhelmed, and the system will collapse under the pressure. On the other hand, too little water means the plant dries out — your efforts fade, and people lose interest. Each time you start a development step, pause, observe the impact, give your organization time to absorb the change, adapt, and respond, then continue. Throwing seeds everywhere, launching random programs without direction, or watering inconsistently will only lead to chaos and frustration. You will end up with a scattered field — no roots, no growth, and no results. Tips for practical implementation of PSM without overwhelming your team: 1- Prepare the Soil - Build the Right Foundation Start by checking your company’s readiness. Does leadership understand what process safety is about? Do people feel it is something for them, not just to them? 2- Plant Only the Essential Seeds First Don’t throw all the seeds at once. You will only confuse the field. Choose the most critical elements — things like PHA, MOC, Asset Integrity, and basic procedures. 3- Water Carefully: Balance the Load Too much water drowns the seed. Too little, it dies. Launching too many initiatives at once will tire the team, especially if they don’t see results fast enough. 4- Let It Grow: Observe Before Expanding Every new initiative needs time to grow. Track progress, talk to the people doing the work, and ask: Is it clear? Is it useful? What is getting in the way? 5- Eliminate Confusion and Redundancy Keep what is effective. Trim the rest. 6- Fertilize the Culture: Empower, Don’t Burden Reward those who report hazards early, who spot weak points, and who speak up. This is the fertilizer that feeds your safety culture. 7- Think Long-Term Have a roadmap. Know where you want to go, but be ready to change course if something isn’t working. Apply process safety like you care for a green plant. It requires your patience, being a good observer, watching for harmful weeds like resistance or shortcuts, planning your steps, visualizing your destination before you begin, and most importantly, adjust as you go.

“Reliability isn’t built by one department. It’s built together with Maintenance as the backbone of Reliability” In manufacturing, we love to measure uptime, yield, and safety scores — but we rarely measure shared accountability. That’s the real backbone of reliability. Here’s how it breaks down: 🛠 Maintenance • Sets the tone for discipline. • If we ignore leaks, walk past clutter, or skip PMs, we teach the whole plant that standards are optional. • Maintenance isn’t just about fixing — it’s about preventing, mentoring, and modeling urgency. ⚙️ Production • Runs the line, but also runs the risk. • When operators treat machines like rentals — especially temps with no ownership zones — breakdowns spike. • The fix? Give operators equipment ownership and basic inspection tasks. Reliability starts with care. 🧪 QA • Protects the standard, but depends on equipment health. • A worn seal or misaligned sensor isn’t just a maintenance issue — it’s a product integrity risk. • QA must partner with maintenance to catch systemic issues early, not just flag defects after the fact. 🦺 Safety • Lives or dies by maintenance vigilance. • Guards, lockouts, emergency stops — if maintenance glosses over these, safety culture erodes fast. • Safety isn’t just a checklist. It’s a shared mindset, and maintenance is the front line. 🔁 The Culture Loop When one team slips, the whole system feels it. ✅ Quick wins reset urgency. ✅ Ownership zones build pride. ✅ Accountability loops make standards stick. Blame escalates attitudes. Fixes build reliability. Culture keeps it alive. Let’s stop the finger-pointing and start the handshakes. Reliability isn’t a solo act — it’s a team sport.

🛠️ Pump Selection in Chemical Process Engineering – A Practical Guide In any chemical process, selecting the right pump plays a crucial role in ensuring plant reliability, safety, and long-term performance. Here’s a simplified, practical breakdown: 🔍 1. Understand the Fluid Characteristics • Is the fluid clean or does it contain solids? • Is it corrosive, viscous, abrasive, or hazardous? • What are the temperature and pressure conditions? 💧 2. Select the Appropriate Pump Type • Centrifugal Pumps – Ideal for low-viscosity fluids like water and light chemicals. • Diaphragm Pumps – Suitable for corrosive, abrasive, or slurry-type fluids. • Gear or Peristaltic Pumps – Best for thick or shear-sensitive fluids like oils or syrups. • Magnetic Drive Pumps – Perfect for handling toxic, hazardous, or leak-sensitive fluids. 📊 3. Define the Operating Conditions • Flow rate (Q): How much fluid is needed per hour • Total head (H): Includes lift, friction, and pressure differences • NPSH: Ensure NPSHa > NPSHr to prevent cavitation • Use pump curves to match flow and head, and stay near the Best Efficiency Point (BEP) 🧪 4. Choose the Right Materials • SS316 – General chemical compatibility • PTFE-lined or Plastic – Resistant to strong acids/alkalis • Hastelloy or Titanium – For aggressive or exotic chemicals 🔐 5. Select the Proper Seal Type • Mechanical Seals – Common and reliable • Gland Packing – Low cost, higher maintenance • Magnetic Drive – No seal, great for hazardous applications ⚙️ 6. Installation and Maintenance Considerations • Power and control options (e.g. VFDs) • Space, layout, and accessibility • Spare parts availability and maintenance ease 📌 Final Thought: A properly selected pump protects the process, improves efficiency, and ensures plant safety. It’s a small choice that makes a big difference. #ProcessEngineering #ChemicalEngineering #PumpSelection #ReliabilityEngineering #PlantDesign #EngineeringBestPractices #SafetyFirst #OperationalExcellence

Why Do We Install Multiple Transmitters for the Same Measurement? In critical process industries such as oil & gas, petrochemicals, and fertilizers, it is common to see two or three transmitters measuring the same parameter on essential equipment. This is not redundancy for appearance — it is a deliberate engineering decision driven by reliability, safety, and risk reduction. 1️⃣ Continuity of Operation Process plants are designed for high availability. If one transmitter fails, the others maintain control and prevent unnecessary shutdowns. This supports operational continuity and production stability. 2️⃣ Maintenance Without Shutdown Redundant transmitters allow one device to be isolated, calibrated, or replaced while the remaining transmitters continue to provide a valid signal to the control or safety system. 3️⃣ Higher Confidence in Critical Data Multiple measurements increase confidence in the process variable used for control and safety decisions — especially in high-risk applications. --- The Most Critical Reason: Voting Logic (MooN) In Safety Instrumented Systems (SIS) designed in accordance with standards such as IEC 61511, voting logic (M out of N) is widely used to improve safety integrity while minimizing spurious trips. Voting logic makes decisions based on agreement between multiple transmitters instead of relying on a single device. 🔹 1oo2 (1 out of 2) – “Any One Can Trip” If one transmitter detects a dangerous condition, the system initiates shutdown. Used where safety priority outweighs nuisance trip risk. 🔹 2oo3 (2 out of 3) – “Majority Wins” At least two transmitters must detect the dangerous condition before trip action occurs. Common in high-risk applications such as ammonia storage or high-pressure vessels. Benefits of 2oo3 architecture: ▪️ Tolerates one dangerous failure (maintains protection) ▪️ Tolerates one safe failure (reduces false shutdowns) ▪️ Improves Safety Integrity Level (SIL) performance ▪️ Balances availability and safety --- Redundant transmitters are not just about backup — they are about engineered fault tolerance, safety integrity, and smart risk management. In critical systems, the question is not “What if it fails?” It is “How does the system behave when it fails?” --- --- --- For more instrumentation & control insights: 👉 t.me/IandCwithBalen