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WHEN ORDERING PARTS, HOW MUCH OVERAGE SHOULD WE PURCHASE?

The art and science of electrical component buying go hand in hand. The "art" element is when you establish and keep up the business ties with the distributors and suppliers of the components you want. This requires patience and skill. 


The "science" involved in procurement operations is the recognition and application of best practices. Building this best practice knowledge requires asking lots of questions and then selecting the most pertinent information from the responses. 


"How much overage should I buy when ordering parts?" is one of the most frequently asked questions in component sourcing. Overage is generally thought of as the extra parts you believe you might need to finish a production run. This could range from tens to even hundreds of parts, depending on your circumstances. 

Production waste, defective or out-of-spec parts, inventory requirements for spare parts, projected part shortages, end-of-life (EOL) announcements, anticipated price increases, delivery delays, and other factors are a few of the justifications for buying too many components. 


What We've learned  


These difficult purchasing circumstances can sometimes occur simultaneously. As an illustration, the recent pandemic resulted in a shortage of labor, which slowed down manufacturing lines and produced shortages. Delivery issues made these shortages worse. Due to the shortages, purchasing departments placed excessive orders, which increased pricing pressure. Additionally, the excessive ordering lengthened delivery times and resulted in inventory accumulations. These stockpiles are currently being sold off at a loss. 

Is overbuying therefore a wise move, especially in light of the fact that a scarcity of purchased components is one of the primary causes of late product delivery? And what standards should you use when figuring overages? It's far easier to ask than to answer those questions, and a lot depends on your particular production environment. So, let's go through the possible scenarios one by one. 


Prototypes 


Your part requirements shouldn't be a problem if you're an engineer working on a prototype. It might be a good idea to add one or two more pieces in a specific order, especially if overloading the board during testing could cause it to burn up or become static-fried. However, in general, you ought to be able to locate what you require, even though you won't be able to take advantage of any discounts for large orders. 


Small Test Run 


The requirement for component increases when you move through the prototype stage and ramp up to creating beta or sample volumes of your product. There are two schools of thinking, but the common norm is 5% overage. One is that, as a result of improper handling or other production errors, smaller-sized components typically require greater overage. The other is that less overage is typically needed for more expensive components since greater care is taken to prevent loss. 5% is a decent overage to bear in mind in either case. 


Automation in small batches 


A reasonably safe aim is 5 to 10% overage, based on the same considerations as with a short test run batch, if all you need are scheduled small production runs of boards made by your own facility's in-house manufacturing personnel. Although it's wise to plan for spoilage, production mistakes, shipping damage, etc., small runs let you keep a close eye on the quality of your production and your supply of parts. Therefore, paying attention to the minutiae might truly pay off at this level. 


Manufacturing on contract 


You graduate to automated component putting or insertion via machine when you reach this level of manufacturing. Whether you are procuring the components, or the manufacturer is, most manufacturers often want complete reels for small passive components that will be machine inserted. In either case, overage needs can often vary from 10% to 20%. 

Again, the price or size of the various parts may be an exception. More care should be taken when handling and mounting expensive components, such as CPUs, to prevent spoiling. Larger parts are frequently mounted by hand as well because problems with automatic insertion machines are less likely to occur. For costlier or larger components, the normal rule is for 5% overage. 


Conclusion  


When buying electronic components, it's a good idea to order a little extra. However, as with other business practices, the best quantity to order extra will depend on your personal circumstances, as well as component availability at the time and commercial realities


By Swetha Parvathy September 25, 2025
In industrial applications, battery power is often the backbone of operations, providing reliable and efficient energy to critical systems. While standard battery packs may suffice for some uses, custom battery packs offer unparalleled benefits for industrial applications that require specific power solutions. In this blog post, we’ll explore the advantages of using custom battery packs in industrial settings and how they can enhance performance, safety, and efficiency. What Are Custom Battery Packs? Custom battery packs are tailored battery solutions designed to meet the specific needs of a particular application. Unlike standard battery packs, which are mass-produced for general use, custom battery packs are engineered with precise specifications, chemistry, and design to fit the unique requirements of an industrial application. This customization allows for optimized performance, safety, and longevity. Benefits of Custom Battery Packs in Industrial Applications 1. Optimized Performance Custom battery packs are designed to deliver the exact voltage, current, and power output required for a specific application. This ensures that the battery performs at its best, providing consistent power and reducing the risk of underperformance or overpowering, which can damage equipment. 2. Enhanced Safety Industrial environments can be harsh, with extreme temperatures, vibrations, and other factors that can affect battery performance. Custom battery packs can be designed with safety features such as overcharge protection, thermal management, and ruggedized enclosures to ensure safe operation in demanding conditions. 3. Increased Reliability Reliability is crucial in industrial applications where downtime can lead to significant losses. Custom battery packs are built to meet the specific reliability needs of an application, ensuring that the power supply remains consistent and dependable, even in critical situations. 4. Longer Lifespan By selecting the right chemistry and design for a custom battery pack, manufacturers can significantly extend the lifespan of the battery. This reduces the need for frequent replacements, lowering maintenance costs and minimizing disruptions to operations. 5. Space and Weight Optimization Custom battery packs can be designed to fit within specific form factors, allowing for more efficient use of space in industrial equipment. Additionally, by optimizing the battery design, weight can be reduced, which is particularly important in applications where portability or weight distribution is a concern. 6. Flexibility and Scalability Custom battery packs offer the flexibility to adapt to changing application requirements. Whether it’s increasing the capacity, changing the form factor, or integrating new technologies, custom solutions can be re-engineered to meet evolving needs, making them a scalable investment for the future. Applications of Custom Battery Packs in Industry Custom battery packs are used in a wide range of industrial applications, including: - Material Handling Equipment: Forklifts, automated guided vehicles (AGVs), and other material handling equipment often rely on custom battery packs for reliable and efficient power. - Industrial Automation: Robotics, conveyor systems, and other automated equipment benefit from custom battery solutions that provide precise power and durability. - Medical Devices: Custom battery packs are essential in medical devices where safety, reliability, and longevity are paramount. - Energy Storage Systems: Custom battery solutions are used in energy storage systems to optimize power output and efficiency for industrial and commercial applications. Conclusion Custom battery packs offer significant advantages for industrial applications, from optimized performance and enhanced safety to increased reliability and longer lifespan. By investing in custom battery solutions, manufacturers can ensure that their equipment operates efficiently and reliably, reducing downtime and maintenance costs. Whether it’s for material handling, industrial automation, or medical devices, custom battery packs provide the tailored power solutions needed to meet the demands of modern industrial applications.
By Swetha Parvathy May 26, 2025
As we increasingly rely on electronic devices and appliances in our daily lives, electrical safety becomes a crucial aspect of home maintenance. Electrical accidents can be devastating, causing injuries, fatalities, and property damage. In this blog post, we'll share essential tips to help you ensure electrical safety at home and avoid electrocution. 1. Keep Water Away from Electricity Water and electricity are a deadly combination. Avoid using electrical appliances near water sources, such as: - Bathrooms - Kitchens - Swimming pools - Outdoor areas during rain or snow 2. Inspect Cords and Appliances Regularly Regular inspections can help identify potential electrical hazards. Check for: - Frayed or damaged cords - Overheating appliances - Sparks or unusual smells - Loose connections or faulty wiring 3. Use GFCIs (Ground Fault Circuit Interrupters) GFCIs are designed to prevent electrical shock by interrupting the power supply when a ground fault occurs. Install GFCIs in areas prone to moisture, such as: - Bathrooms - Kitchens - Outdoor areas 4. Avoid Overloading Outlets and Extension Cords Overloading outlets and extension cords can lead to electrical fires or electrocution. Be mindful of: - Using too many appliances on a single circuit - Overloading extension cords - Using damaged or frayed extension cords 5. Keep Children Safe Children are naturally curious, and electrical safety is crucial for their well-being. Take steps to: - Secure outlets with tamper-resistant covers - Keep electrical appliances out of reach - Teach children about electrical safety 6. Hire a Licensed Electrician For any electrical work, hire a licensed electrician to ensure: - Compliance with local electrical codes - Safe installation and maintenance - Proper diagnosis and repair of electrical issues 7. Be Cautious with Outdoor Electrical Equipment Outdoor electrical equipment, such as generators or power tools, requires special care. Ensure: - Proper grounding and installation - Regular maintenance and inspection - Safe operation and storage 8. Replace Damaged or Outdated Electrical Components Don't hesitate to replace damaged or outdated electrical components, such as: - Old or damaged wiring - Outdated electrical panels - Faulty circuit breakers Conclusion Electrical safety is a critical aspect of home maintenance. By following these tips, you can significantly reduce the risk of electrical accidents and ensure a safe living environment for yourself and your loved ones. Remember, electrical safety is everyone's responsibility.