Print Design Production

Tales From The Shelf. Most packaging starts spinning a yarn before a single word is read. Shape, colour and illustration frame the product long before anyone checks the label. People read those signals instinctively to decide what something is, where it comes from and whether it belongs in their basket. Storytelling sits inside packaging more than we notice. It shapes how products are recognised and remembered, often through design alone. Illustration, typography and layout carry that load. When they're handled with care, a product gains clarity and presence. The pack speaks through what it shows and how it holds together. Haterk Honey is a good example. The black and white illustrations move through forests, meadows and mountains, echoing where the honey comes from and how it's made. The drawings are restrained and sit naturally against the deep golden colour in the jar. Line a few jars up and the illustrations connect across the shelf. Separate labels start reading as one continuous landscape. You recognise the system before you read the name. That consistency gives the product a stable visual anchor, something a shopper can recognise and return to without thinking. The black and white honey with the drawn hills is easier to retrieve than a blur of similar yellow labels. Well‑constructed narratives on pack also narrow the gap between marketing claims and real attributes. When illustration is anchored in origin, process or values, it gives context to mandatory details like variety, region and certification instead of floating beside them. A front panel that signals mountain honey from mixed wildflower sources through image and composition carries more weight than three extra lines of copy fighting for space on the back. Most people remember the landscape, not the label. 📷Backbone Branding

If you're a packaging designer and get stuck at typography and layout. Here's the detailed learning: Since, typography for packaging design serves to communicate the marketing message on a 3D medium. These are the principles that will help typographic decision making for packaging design. 1. Define the typography Personality The visual personality is what communicates how consumers perceive a design. Research, experimentation, proper type selection (font, size and weight). 2. Limit Typeface Three typefaces are a general limit for any primary display panel in packaging design. Sometimes, it's difficult to limit the no. of typefaces due to the quantity of copy. In that case use typefaces with the same family. 3. Create Typography Hierarchy The organisation of the visual information, provides the framework for how information is "read" from greater to lesser importance - this is how the consumer knows at a quick glance what to "get" from a packaging design. Hierarchy can be created by grouping related items and spacing unrelated items farther apart. All typography on a packaging design must be situated with a purpose, and the type choice and layout should support the design. 4. Define Typographic Positioning This is the positioning of the typography within the primary display area: the individual location of letters, words, and bodies of text in relation to other design elements. 5. Determine Font Alignment Alignment defines the overall architecture of the layout. The alignment of each word on a packaging design should be carefully considered since words that are Centred, flush left, flush right or justified communicate differently. 6. Vary Typography Scale In typography, scale refers to the size relationships of typographic elements in relation to one another. For ex. Brand identities (logo, brand name) are bigger in scale that the product description. All copy on the front panel of package must be scaled to size that is legible from short distance - that between the consumer and the package on the shelf. 7. Choose the Contrast Contrasting typefaces is one means to communicate words or lines of copy that maybe equally important but distinctly different. Typography contrast can be created - light vs. bold, italic vs. roman, serif vs. sans serif. 8. Stack characters carefully The general rule in packaging design is not to stack type. Stacking characters and letters on top of one another in a vertical line does not work well in western culture, where letterforms are ready horizontally. The ascenders and descenders of lowercase letters so not sit on top of each other properly, which diminishes readability. Although, there are cases where this works, stacking type should be considered carefully. 9. Remove your Visual Bias Since every designer perceives visuals in a different context, it's important that personal preferences do not interfere with the design. #packagingdesign #designprinciples #packagingdesigner

When you introduce narrative onto pack there are 2 main considerations, what you say and how it is presented. Each of those has an important role. Tackle either incorrectly and you will have a challenge convincing your consumer that your product meets their needs. Have a look at the Rustlers product below that misses the mark on both counts. Let’s look at what they say specifically first. The strap line on the SRP proudly states “better than you think “, Now, this comes across as an admission that your product doesn’t probably look the best and the consumer is going to take a bit of arm twisting in order to agree. Honesty is always the best policy, but it’s always better to handle this in a positive way. Onto the second point, how this messaging is presented. The choice of fonts is absolutely immense and with food products, it’s always good to pick fonts that communicate appetite appeal and as in this case, provenance. Where the pack communicates “cheese “ it feels incredibly washed out on the background and its ‘chubby’ execution talks less about taste and more about artificiality. Think of your narrative as an actor on a stage, how they are presented and how they deliver their lines cues a reaction in the audience. Always ensure they are the protagonist and not the antagonist. #Marketing, #Design, #Branding, #Packaging —————————————— If you like this post then subscribe to my monthly newsletter. The aim of this is to give advice to brand owners and marketeers who are looking to make their branding & packaging design more relevant. 👉 https://lnkd.in/ep3uG9kv —————————————— Click the 🔔 on my profile to stay up to date and/or share with your network. ——————————————

TPM (Total Productive Maintenance) What is TPM? TPM (Total Productive Maintenance) is a Lean Manufacturing tool focused on improving machine efficiency, reducing breakdowns, and increasing productivity by involving all employees in maintenance activities. 👉 Main Goal: • Achieve Zero Breakdown • Achieve Zero Defects • Achieve Zero Accidents TPM was developed in Japan and became an important part of the Toyota Production System (TPS). ⸻ Why TPM is Important in Industry In manufacturing industries such as SMT/PCB assembly, automotive, electronics, and packaging: • Machines are the backbone of production. • Frequent machine failures cause: • Production loss • Rework • Downtime • Quality defects • Delivery delays TPM helps industries: ✅ Improve machine reliability ✅ Increase OEE (Overall Equipment Effectiveness) ✅ Reduce maintenance cost ✅ Improve product quality ✅ Increase machine life TPM Pillars (8 Pillars of TPM) 1️⃣ Autonomous Maintenance (Jishu Hozen) Operators perform basic maintenance activities themselves. Activities: • Cleaning • Lubrication • Inspection • Tightening Benefits: • Early problem detection • Reduced breakdowns • Better machine ownership 👉 Example in SMT: Operator cleans stencil printer and checks nozzle condition daily. ⸻ 2️⃣ Planned Maintenance Maintenance is scheduled before machine failure occurs. Types: • Preventive Maintenance • Predictive Maintenance • Periodic Maintenance Benefits: • Reduced downtime • Better spare planning • Improved reliability 👉 Example: Monthly maintenance of SMT pick-and-place machine. ⸻ 3️⃣ Quality Maintenance Focuses on preventing defects caused by equipment. Goal: Maintain perfect machine condition for defect-free products. 👉 Example in SMT: Maintaining proper reflow oven temperature profile. ⸻ 4️⃣ Focused Improvement (Kaizen) Continuous improvement to eliminate losses and improve efficiency. Focus Areas: • Minor stoppages • Speed losses • Rework reduction 👉 Example: Reducing feeder changeover time in SMT line. ⸻ 5️⃣ Early Equipment Management Improvement ideas are applied during new machine installation/design. Goal: • Easier maintenance • Higher efficiency • Lower lifecycle cost ⸻ 6️⃣ Training & Education Employees receive technical and operational training. Purpose: • Improve skill level • Reduce human errors • Increase machine understanding ⸻ 7️⃣ Safety, Health & Environment (SHE) Ensures safe working conditions. Goal: • Zero accidents • Safe workplace • Environmental protection 👉 Example: Proper ESD safety in SMT production area. ⸻ 8️⃣ Office TPM TPM is also applied in office processes. Focus: • Reduce paperwork delay • Improve communication • Faster production planning #smt #leanmanufacuring #tpm #pcba #pillers #PCB #learning #lean

𝗠𝗮𝗰𝗵𝗶𝗻𝗲 𝗠𝗮𝗶𝗻𝘁𝗲𝗻𝗮𝗻𝗰𝗲 𝗠𝗮𝘁𝗿𝗶𝘅: 𝗠𝗮𝗰𝗵𝗶𝗻𝗲𝘀 𝗿𝗮𝗿𝗲𝗹𝘆 𝗳𝗮𝗶𝗹 𝘀𝘂𝗱𝗱𝗲𝗻𝗹𝘆. In most cases, equipment gives early signals long before a breakdown happens. But in many factories, maintenance action only starts when the machine has already stopped working. That’s where the problem begins. Machines typically move through five lifecycle stages: 𝗛𝗲𝗮𝗹𝘁𝗵𝘆 𝗢𝗽𝗲𝗿𝗮𝘁𝗶𝗼𝗻 → 𝗘𝗮𝗿𝗹𝘆 𝗗𝗲𝗴𝗿𝗮𝗱𝗮𝘁𝗶𝗼𝗻 → 𝗣𝗲𝗿𝗳𝗼𝗿𝗺𝗮𝗻𝗰𝗲 𝗟𝗼𝘀𝘀 → 𝗙𝗮𝗶𝗹𝘂𝗿𝗲 → 𝗥𝗲𝗽𝗮𝗶𝗿 & 𝗦𝘁𝗮𝗯𝗶𝗹𝗶𝘇𝗮𝘁𝗶𝗼𝗻 At each stage, a different maintenance strategy is most effective. ✔ Autonomous Maintenance during normal operation ✔ Predictive Maintenance when early degradation appears ✔ Corrective Maintenance when performance starts dropping ✔ Breakdown Maintenance when failure occurs ✔ Planned Maintenance to stabilize the system The key insight? Maintenance cost increases dramatically the later you act in the machine lifecycle. World-class factories shift their maintenance focus earlier in the lifecycle: 𝗥𝗲𝗮𝗰𝘁𝗶𝘃𝗲 → 𝗣𝗿𝗲𝘃𝗲𝗻𝘁𝗶𝘃𝗲 → 𝗣𝗿𝗲𝗱𝗶𝗰𝘁𝗶𝘃𝗲 Because the real goal of maintenance is not repairing machines… It’s preventing failures before they occur. I created this Maintenance Matrix: Machine Lifecycle vs Maintenance Type to help teams visualize: • When each maintenance strategy should be applied • Who is responsible (operators, maintenance, reliability teams) • How business impact increases across the lifecycle This framework can be used for CNC machines, assembly lines, compressors, pumps, or any production equipment. Where does your plant spend most of its maintenance effort today? 1️⃣ Mostly Breakdown Maintenance 2️⃣ Preventive Maintenance 3️⃣ Predictive / Condition Monitoring Comment below 👇 Want the editable Maintenance Matrix template for your plant? Comment your email ID below, and I’ll send the editable version you can customize for your equipment and maintenance strategy. ------------------------------------------------------- If you find it useful, please 👍🏻👏🏻❤️💡🔁 For more insightful content, follow Manickavasagam Natarajan 🚀🦋 #Manufacturing #Maintenance #Reliability #TPM #Industry40 #Production #Quality #OperationalExcellence #Design #Automotive #AssetManagement #MaintenanceEngineering

Total Productive Maintenance (TPM) is a comprehensive approach to equipment maintenance that aims to achieve perfect production: zero breakdowns, zero defects, and zero accidents. It integrates maintenance into the daily operations of all employees, from operators to managers, to maximize equipment effectiveness and promote a culture of ownership. The Pillars of TPM: TPM is built on 8 pillars, each focused on proactive and preventive maintenance to enhance operational efficiency: Autonomous Maintenance (Jishu Hozen): Operators take ownership of routine maintenance (cleaning, inspection, lubrication). Empowers operators and reduces dependency on maintenance teams. Planned Maintenance: Scheduled preventive maintenance based on failure data and lifecycle analysis. Reduces unplanned downtime and extends equipment life. Quality Maintenance: Uses root cause analysis and preventive tools to eliminate defects caused by equipment. Focuses on maintaining conditions that assure quality output. Focused Improvement (Kobetsu Kaizen): Cross-functional teams tackle chronic problems and inefficiencies through structured problem-solving. Drives small, incremental improvements in performance. Early Equipment Management: Involves maintenance and production input during equipment design or procurement to improve maintainability, safety, and ease of operation. Education and Training: Develops skills across all levels to ensure correct operation, maintenance, and continuous improvement knowledge. Safety, Health, and Environment: Ensures machines and processes are safe and environmentally friendly. Aims for a zero-accident workplace. TPM in Administrative Functions: Applies TPM principles to office and support areas, optimizing workflows, information flow and efficiency. Benefits of TPM: Fewer breakdowns and unplanned stoppages Higher equipment uptime and productivity Improved product quality Reduced safety incidents Increased employee engagement and accountability Lower total maintenance costs Real-World Example: Context: A bottling plant suffered from frequent filler machine breakdowns, causing lost time and overworked maintenance teams. TPM Applied: Operators were trained to clean and inspect the machine daily (Autonomous Maintenance). Maintenance scheduled a monthly deep inspection (Planned Maintenance). The cross-functional team did a root cause analysis of breakdowns (Focused Improvement). Operator logs and visual indicators were introduced (Education/Training). Result: Breakdowns dropped by 70%, and the plant’s OEE rose from 65% to 85% within six months.

Total Productive Maintenance (TPM) What Is TPM? TPM is a holistic approach to equipment maintenance that strives to achieve perfect production: • No breakdowns • No small stops or slow running • No defects • No accidents The traditional approach to TPM consists of 5S as a foundation and eight supporting activities (pillars). The 5S Foundation The goal of 5S is to create a work environment that is clean and well-organized. It consists of five elements: 1. Sort: Eliminate anything that is not truly needed in the work area 2. Set In Order: Organize the remaining items 3. Shine: Clean and inspect the work area 4. Standardize: Create standards for performing the above three activities 5. Sustain: Ensure the standards are regularly applied The Eight Pillars 1. Autonomous Maintenance Places responsibility for routine maintenance, such as cleaning, lubricating, and inspection, in the hands of operators. Benefits • Gives operators greater “ownership” of their equipment. • Increases operators’ knowledge of their equipment. • Ensures equipment is well-cleaned and lubricated. 2. Planned Maintenance Schedules maintenance tasks based on predicted and/or measured failure rates. Benefits • Enables most maintenance to be planned for times when equipment is not scheduled for production. • Reduces inventory through better control of wear-prone and failure-prone parts. 3. Quality Maintenance Design error detection and prevention into production processes. Apply root cause analysis to eliminate recurring sources of quality defects. Benefits • Specifically targets quality issues with improvement projects focused on removing root sources of defects. • Reduces number of defects. 4. Focused Improvement Have small groups of employees work together proactively to achieve regular, incremental improvements in equipment operation. Benefits • Recurring problems are identified and resolved by cross-functional teams. 5. Early Equipment Management Directs practical knowledge and understanding of manufacturing equipment gained through TPM towards improving the design of new equipment. Benefits • Maintenance is simpler and more robust due to practical review and employee involvement prior to installation. 6. Education And Training Fill in knowledge gaps necessary to achieve TPM goals. Applies to operators, maintenance personnel and managers. Benefits • Operators develop skills to routinely maintain equipment and identify emerging problems. • Managers are trained on TPM principles as well as on employee coaching and development. 7. Safety, Health, And Environment Maintain a safe and healthy working environment. Benefits • Specifically targets the goal of an accident-free workplace. 8. Administrative And Office Maintenance Apply TPM techniques to administrative functions. Benefits • Supports production through improved administrative operations (e.g., order processing, procurement, and scheduling). Source: https://lnkd.in/dX5RJUUA

TPM (Total Productive Maintenance): Building a Culture of Reliability and Continuous Improvement In today's competitive manufacturing environment, equipment reliability is not just a maintenance responsibility—it's a shared commitment across the entire organization. Total Productive Maintenance (TPM) is a proven methodology that focuses on maximizing equipment effectiveness by involving operators, maintenance teams, and management in continuous improvement activities. The ultimate goal is simple yet powerful: ✅ Zero Breakdowns ✅ Zero Defects ✅ Zero Accidents The TPM journey starts with basic disciplines such as Cleaning, Inspection, Lubrication, and Standardization, but its true strength lies in creating ownership at every level of the organization. Key Benefits of TPM: 🔹 Improved Overall Equipment Effectiveness (OEE) 🔹 Reduced Machine Breakdowns and Downtime 🔹 Enhanced Product Quality 🔹 Lower Maintenance Costs 🔹 Increased Equipment Life Cycle 🔹 Improved Workplace Safety 🔹 Higher Productivity and Operational Excellence The 8 Pillars of TPM: 1️⃣ Autonomous Maintenance 2️⃣ Planned Maintenance 3️⃣ Quality Maintenance 4️⃣ Focused Improvement (Kaizen) 5️⃣ Education & Training 6️⃣ Early Equipment Management 7️⃣ Safety, Health & Environment 8️⃣ Office TPM Understanding the Six Big Losses: To achieve world-class manufacturing, organizations must systematically eliminate: ✔ Breakdowns ✔ Setup & Adjustment Losses ✔ Minor Stops ✔ Reduced Speed Losses ✔ Startup Losses ✔ Quality Defects By addressing these losses, organizations can significantly improve OEE and operational performance. TPM is More Than a Tool – It's a Culture Successful TPM implementation transforms the mindset from: "Maintenance Department's Responsibility" ➡️ "Everyone Owns Equipment Reliability" When operators take ownership, maintenance becomes proactive rather than reactive, leading to sustainable improvements and long-term business success. The TPM philosophy can be summarized in five simple steps: Clean → Inspect → Improve → Standardize → Sustain These steps create a strong foundation for continuous improvement and operational excellence. As manufacturing professionals, our focus should always be on creating reliable processes, empowering people, and eliminating waste to achieve world-class performance. What TPM practices have delivered the biggest improvements in your organization? Share your experience in the comments. — Rajeshwar Gholap #TPM #TotalProductiveMaintenance #ManufacturingExcellence #OperationalExcellence #LeanManufacturing #ContinuousImprovement #Kaizen #OEE #MaintenanceManagement #Industry40 #QualityManagement #Productivity #Reliability #Engineering #Manufacturing #Leadership #ProblemSolving #EquipmentReliability #WorldClassManufacturing #RajeshwarGholap

Flexographic printing plate potanial solutions:- Flexographic (flexo) printing plates can face various challenges that affect print quality. Below are some common issues and potential solutions: 1. Plate Lifting or Edge Curling Cause: Poor adhesion to the mounting tape or incorrect tape selection. Solution: Use the correct adhesive tape thickness and type. Ensure the plate and cylinder are clean before mounting. Apply even pressure when mounting to avoid air pockets. 2. Dot Gain or Loss of Fine Details Cause: Excessive pressure, improper plate material, or poor ink transfer. Solution: Use a high-resolution plate with proper surface texture. Adjust the impression pressure to minimize distortion. Use correct anilox roll specifications for better ink control. 3. Ink Spreading or Dirty Printing Cause: Over-impression, incorrect ink viscosity, or worn plates. Solution: Reduce impression settings to avoid excessive ink transfer. Maintain proper ink viscosity for smooth application. Regularly inspect and replace damaged plates. 4. Registration Issues (Misalignment of Colors) Cause: Improper plate mounting or press settings. Solution: Use a precise plate mounting system with optical alignment. Check and adjust press registration settings before production. Ensure plates are mounted securely to avoid movement. 5. Plate Cracking or Premature Wear Cause: Incorrect plate material or excessive cleaning with harsh chemicals. Solution: Choose durable, high-quality photopolymer plates. Use gentle, approved cleaning solutions. Store plates properly to prevent exposure to UV light and heat. 6. Inconsistent Ink Transfer (Ink Not Sticking Properly) Cause: Improper plate surface treatment or ink compatibility issues. Solution: Use plates with correct surface treatment for better ink receptivity. Ensure ink formulation is compatible with the plate material. Adjust anilox roll specifications for better ink release. 7. Air Bubbles Under the Plate Cause: Poor mounting technique or dust contamination. Solution: Clean the mounting surface thoroughly before application. Use a squeegee or roller to press the plate evenly onto the tape. Apply the plate slowly and carefully to avoid trapping air.