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Explore our latest insights and strategies for procurement success. Visit now to stay ahead with valuable industry knowledge and actionable tips!

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Explorer title graphic: CADDi Quote for the Tariff Era, building pillars of success in uncertainty, empower your procurement process, over a blurred CADDi Quote project screen

The good news – although it may not sound like good news – is that everyone is going to have to deal with the challenges of the tariff era. Everyone. This is good news because any widespread crisis is an opportunity for you to pull ahead of competition.‍We think there will be three key pillars for competitive success in this era:<h3>Knowledge</h3>The foundation you need is knowledge, which isn’t just the same as “information”. You likely already have a ton of information built up from your decades of procurement decisions. Most manufacturing shops store that data somewhere. But unless you make it into an actual searchable, insightful, actionable asset, you aren’t really knowledgeable.‍The sort of knowledge you need is the type that surfaces everything you need to instantly assess the viability of a procurement choice: the costs, lead times, communication, quality data, and design information for previous orders of similar parts or from the same supplier. You also need to have all your alternatives at hand so you can do immediate comparative analysis on the qualities that matter.<h3>Flexibility</h3>To take advantage of the alternative options you’ve surfaced, you need to be flexible enough to pivot to them without eating a ton of overhead costs.‍The best way to be flexible is to be simple. The fewer component parts you need to source, the easier it is to find alternatives for your entire supply chain. The problem is that most machine shops will accumulate a huge catalogue of redundant components and aren’t able to judge which are necessary. Empowering your analysis to find these redundancies and consolidate them is critical to becoming flexible.<h3>Agile</h3>Once you’ve got a new strategy in your sights, it’s important to be agile enough to take full advantage of it. The longer you spend trapped in an unviable solution, the more money it costs you and the more it delays your projects.‍Your knowledge and flexibility already go a long way in making you more agile. But there are other, more subtle causes of slowdown, such as friction in execution. Most manufacturers have their procurement system spread over several tools. Every decision you make involves switching back and forth between tools, possibly looping in different people, and cross-referencing information.‍In isolation, none of these tasks seem like they’d take that long – maybe a minute or two at most. But multiplied for every stage of a single procurement decision, these small time losses add up fast. And when you consider the number of procurement decisions you make, it becomes a significant slowdown for your entire organization.

CADDi Quote, our new procurement platform, can build these three pillars for your supply chain.‍<h3>Build Knowledge with data made into an asset</h3><img src="https://cdn.builder.io/o/assets%2F209ee507cedf4c298e100edae4bba2df%2F86e8a67544b743819638036e98e36763?alt=media&amp;token=f8b1ba48-1243-47ea-853f-aa2cb7f9edb3&amp;apiKey=209ee507cedf4c298e100edae4bba2df" alt="CADDi Quote screenshot of a Quotation Comparison table listing demo supplier responses with lead time, unit price, material cost, processing cost and surface treatment cost, each marked Accepted.">Quote automatically surfaces all the data you need to assess suppliers and organizes it in charts, making comparison and analysis easy.‍Use our unique AI design analysis to surface data for related parts, helping you discover alternatives that would typically require manual searching and comparison to find.<h3>Grow Flexibility with consolidation and alternative analysis</h3><img src="https://cdn.builder.io/o/assets%2F209ee507cedf4c298e100edae4bba2df%2Fc254829044da4d989aedc16cf6a01603?alt=media&amp;token=017f0d0c-2244-495e-8936-81525ef8ce58&amp;apiKey=209ee507cedf4c298e100edae4bba2df" alt="CADDi Quote screenshot of a Quotation Comparison screen for a roller conveyor assembly project, showing past purchase orders for a bearing beside similar-drawing purchase orders from alternative suppliers with dates, prices and quantities.">This power to find similar parts helps you find redundancies and consolidate them down to the most cost-effective choice. This increases your flexibility, leaving you fewer component parts to source.‍CADDi Quote can automatically begin assessment and surface candidates for alternative suppliers. You’ll know right away where you can pivot when you need to.<h3>Get more Agile with a one-stop solution</h3><img src="https://cdn.builder.io/o/assets%2F209ee507cedf4c298e100edae4bba2df%2Ff4d0f79609064056ac310f864d77a3fc?alt=media&amp;token=a264467c-b826-4894-ac71-12788b0185a8&amp;apiKey=209ee507cedf4c298e100edae4bba2df" alt="CADDi Quote screenshot of a Quotation Comparison table for a roller conveyor assembly project, listing supplier recipients with status labels (Sent, Unconfirmed, Completed), response lead times in days, and quoted prices.">CADDi Quote eliminates friction by putting everything you need to manage procurement all in one place. Take an RFQ through the entire lifecycle of sourcing, from initial creation to confirming the parts have been received.‍By shaving off minutes of every step of the procurement process, Quote accelerates you ahead of the competition on every deal.<h3>Check out CADDi Quote today</h3>Try a <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">personalized demo</a> to see how CADDi Quote can help you navigate these uncertain times. The best time to build your pillars of success is today.

The Power of CADDi Quote in the Uncertain Tariff Era

Explorer cover graphic reading 'Industrial Drawing Software: What it is and how it helps', over a blueprint-style background of mechanical engineering drawings

There are many benefits to using industrial design software instead of traditional paper drafting. They include:<h3>Easier revision</h3>Most designs go through several revisions before they’re ready for production. With paper drawings, this could create a lot of mess, with people’s adjustments and comments piling up. Or it could lead to lots of photocopying, which creates multiple versions floating around simultaneously that can create confusion.With industrial drawing software, you can easily load previous versions of drawings and make changes. The most recent version is easy to access and differentiate with previous versions. Collaboration is also easier because the digital drawing lives in a centralized location that everyone can access. A paper drawing requires the collaborator to be on-site to make changes, or tedious faxing back and forth.<h3>Compatibility with Computer-integrated Manufacturing</h3>These days, many machine shops use computer-integrated manufacturing – machines that receive instructions from computers on how to adjust output settings, guide tools like laser cutters, and apply finishes. Drawings created with industrial drawing software can be compatible with these machines, allowing for things like dimensions to be uploaded to the machine’s instructions directly.<h3>Multiple format creation</h3>Depending on the needs of the drawing, <a href="https://us.caddi.com/resources/insights/manufacturing-drawings" rel="noopener noreferrer" target="_blank">different formats of drawing</a> may be more helpful. For example, an exploded view may illustrate how to assemble a product from multiple parts best. For additive manufacturing (3D printing), a 3D model of the product may be directly useful. When comparing the dimensions of two drawings, a multiple perspective drawing may be best.Without industrial drawing software, recreating a design with these different formats is very time intensive and error prone. It becomes easy with industrial drawing software, allowing you to create a design in one format and generate other formats simultaneously.<h3>Searchability</h3>Industrial drawing software can produce drawings that are more easily searchable than paper drawings. Designers, procurement teams, and salespeople all need to reference previous drawings in order to produce new drawings, find the correct suppliers, and provide accurate quotes. With paper drawings, tracking down the correct information is tedious, time-consuming, and error prone. With drawings created with industrial drawing software, more searchable data is created for each drawing.Using tools like CADDi, this searchability can be made even more powerful. Optical character recognition and AI-powered drawing parsing allows you to search for any aspect of a drawing, instead of just manually-entered metadata.

There are many industrial drawing software applications on the market. Some of them include:<h3>AutoCAD</h3>AutoCAD is likely the most famous industrial drawing software. It has been in development since 1981. This long history has allowed it to accumulate many features and use cases.<h3>Blender</h3>Blender is commonly used by animators, video game designers, and other media developers. However, it can also be used to create 3D models for manufacturing. It can be a more user-friendly option for industrial drawing software.<h3>FreeCAD</h3>FreeCAD, as the name suggests, is a totally free industrial drawing software. It’s also wholly open source, allowing users to extend its functionality by adding custom features and compatibility. This can help solve problems for companies with very unique requirements.<h3>SolidWorks</h3>SolidWorks is a long-established industrial drawing software that specializes in 3D modeling.

As you implement industrial drawing software to create new drawings, you’ll produce more new data than ever before. CADDi can turn these drawings into true searchable assets. Rather than rely on just the metadata associated with the drawings, you can search deeply into the drawing's qualities themselves. CADDi also links associated data, like quality data, pricing, and order histories, with the drawing itself.Learn more by walking through our <a href="https://us.caddi.com/product-tour?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Blog&amp;utm_campaign=&amp;utm_term=" rel="noopener noreferrer" target="_blank">product tour</a> or <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">signing up for a demo</a>.

Industrial Drawing Software - What is it and how does it help?

Banner reading Optimizing Existing Assets, Profit when expansion is risky, and Get more from what you're already doing, over a blue-tinted photo of an automated factory conveyor line, with the Explorer logo

Manufacturers are currently "down on the economy," with only 11% of senior leaders <a href="https://us.caddi.com/resources/whitepaper/the-american-manufacturing-pressure-and-productivity-index" rel="noopener noreferrer" target="_blank">responding to our survey</a> holding a positive short- to medium-term economic outlook, and a vast majority (84%) anticipating a recession in the next two years. This pervasive pessimism directly impacts investment decisions.A major deterrent to new capital projects is the uncertainty introduced by tariffs and policy volatility. Reports highlight that significant plant expansions can teeter on the edge of cancellation due to this unpredictability. Companies are hesitant to commit billions of dollars to long-term investments in U.S. manufacturing facilities if policies might be reversed in a short period, leading to an "investment disincentive". The immense upfront capital required for new facilities is often more daunting than simply absorbing existing tariff costs, especially given the lack of established cluster manufacturing environments in the U.S. that are crucial for efficient production. This situation forces manufacturers to be pragmatic, focusing on what they can control internally rather than betting on uncertain external factors.

Faced with this investment hesitancy, manufacturers can make up for potential lost income by rigorously refining their existing assets and processes. Instead of seeking growth through new, risky capital projects, the most impactful improvements often lie within the "digital process"—the data-based operations of design and component sourcing. These areas frequently offer substantial, universal savings that are easier to unlock compared to further optimizing already advanced physical manufacturing processes.Key strategies for asset refinement include:<ul><li>Continuous Improvement and Lean Manufacturing: Rooted in philosophies like Kaizen, this approach emphasizes making small, incremental changes to processes to cumulatively reduce waste, enhance efficiency, and improve profitability. It's about getting "more output with less input".</li><li>Value Analysis/Value Engineering (VAVE): A systematic process to increase product value and eliminate unnecessary costs without compromising quality or performance. VA applies to existing products to streamline operations and reduce expenditure, while VE is applied during early design stages to achieve optimal balance among cost, functionality, and quality. VAVE opportunities include material optimization, process and procedure optimization, reduction in the number of parts, and standardization of similar part designs. These initiatives require collaboration between design, procurement, and even suppliers.</li><li>Optimizing Procurement and Supply Chain: Strategic procurement can lead to significant cost reductions and better efficiency. This involves strategies like supplier consolidation (reducing supplier count for bulk discounts) and supplier diversification (mitigating risk by drawing from a broader pool of suppliers). It also means developing alternatives and making data-driven decisions during negotiations, moving beyond short-term transactional gains to long-term value.</li><li>Addressing Data Gaps and Knowledge Drain: A significant portion of industry knowledge, often termed "tribal knowledge," remains trapped in the minds of experienced professionals or scattered across disparate sources, leading to inefficiencies and repeated work. Digitizing this knowledge and breaking down data silos is crucial for accessibility and decision-making.</li></ul>

CADDi's AI-driven data platform is designed to directly support these asset refinement strategies, transforming fragmented information into actionable insights and empowering manufacturers to "unlock the value hidden in their own data".<ul><li>Data Consolidation and the "Data Lake": CADDi functions as a manufacturing intelligence software and <a href="https://us.caddi.com/resources/insights/manufacturing-data-lake" rel="noopener noreferrer" target="_blank">data lake</a>, integrating data from diverse sources like PLM, ERP, PDM, and CAD tools. It can automatically scan and extract data from PDF drawings, including handwritten ones, linking them to purchase orders, SCARs, CAM files, and spec sheets. This creates a "single source of truth," breaking down departmental silos and making previously "dormant" data searchable and usable.</li><li>Intelligent Search and Design Reuse: CADDi’s patented "similarity search technology" allows engineers to instantly find relevant drawings based on any criteria, including by shape using a quick sketch, or by keywords. This drastically reduces the time spent searching for past designs from hours to seconds and prevents reinventing the wheel. It also helps identify redundancies, like unnecessary fasteners, to promote design standardization and consolidation.</li><li>VAVE and Cost Optimization Support: CADDi enables VAVE by making it easy to identify pricing inconsistencies and analyze design differences that impact cost. It links design data with historical pricing, supplier details, and quality reports, allowing for cost-effective choices that meet design requirements and supporting negotiations.</li><li>Knowledge Democratization and Efficiency: By making past solutions discoverable even if the original designer is gone, CADDi helps mitigate knowledge loss from retiring employees and accelerates the onboarding of new staff. This allows even junior employees to make strategic decisions normally reserved for veterans. It reduces workflow time significantly, with <a href="https://us.caddi.com/case-studies/dairy-conveyor-corporation" rel="noopener noreferrer" target="_blank">customers reporting</a> an 80% reduction in time spent on tasks.</li></ul>In a climate where capital investment in new projects is risky, optimizing existing assets is paramount for U.S. manufacturers. CADDi provides the essential tools to transform disparate data into actionable intelligence, enabling companies to achieve substantial cost savings, improve efficiency, foster collaboration, and build the resilience needed to thrive in uncertain times.Ready to see how CADDi can help you refine your assets to stay profitable when expansion is risky? Explore our <a href="https://us.caddi.com/product-tour?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Blog&amp;utm_campaign=&amp;utm_term=" rel="noopener noreferrer" target="_blank">interactive product tour</a> or <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">book a personalized demo</a>.

Optimizing Existing Assets: Smart Strategies to De-Risk Capital Investment in Uncertain Times

Explorer cover graphic for Procurement 101: An Introduction to Machining Process, with a milling cutter shaping a metal impeller

Machining processes are manufacturing processes that use machine tools and cutting tools to physically remove material from a raw workpiece to reach a desired final shape and size. Machining is one of the most common and versatile manufacturing processes used across industries like automotive, aerospace, medical devices, tool and die making, and more.Some of the most common machining processes include:<ul><li>Milling – Employs rotary cutters to remove material from a workpiece along various axes.</li><li>Turning – Utilizes a single point tool to eliminate material as the workpiece rotates.</li><li>Drilling – Creates cylindrical holes in the workpiece using drill bits.</li><li>Sawing – Cuts off pieces of the raw material with a saw blade.</li><li>Grinding – Removes fine amounts of material for high precision by employing an abrasive wheel.</li><li>Broaching – Shapes internal or external keyways and gears using a specialized toothed tool.</li><li>Electrical Discharge Machining (EDM) – Uses electrical sparks to erode conductive materials into the desired shape.</li></ul>These and some other major machining processes will be explored in more detail throughout this article. Proper selection and application of the right machining process is key to producing quality components efficiently.CNC machine tools are widely used as equipment for carrying out these processes. There are various types of machine tools, such as milling machines that primarily perform milling operations, lathes or turning machines that mainly carry out turning processes, and mill-turn machines or multi-tasking machines that can handle both milling and turning in a single unit.

Milling is a machining process that involves the use of a milling machine to remove material from a workpiece via the movement of a rotating cutter. The milling cutter rotates at high speeds and has cutting teeth along its edges that shear away material as the cutter feeds into the stationary workpiece.Milling machines come in two main configurations – horizontal and vertical. On a horizontal milling machine, the cutters are mounted on an horizontally oriented spindle that can selectively advance into the stationary workpiece. On a vertical milling machine, the cutters are mounted on a vertically oriented spindle that can selectively advance downward into a fixed workpiece. Both configurations allow for precise control of the cutting depth.Also, they come in 3-axis, 4-axis, and 5-axis configurations. 3-axis machines can move the tool along the X, Y, and Z axes. 4-axis machines add a rotary axis (A or B), while 5-axis machines incorporate two rotary axes (A/B and C), enabling the tool to approach the workpiece from various angles, facilitating complex contours and reducing setups.3-axis milling machines are the most widely used and are employed for machining many types of parts. On the other hand, 4-axis and 5-axis milling machines enable the machining of more complex shapes and reduce the number of setups required, making them valuable in industries demanding advanced machining, such as aerospace and mold manufacturing. However, 4-axis and 5-axis milling machines tend to have higher equipment costs due to their more complex mechanisms.The most common types of milling operations include:<ul><li>Face milling – machining flat surfaces into the workpiece.</li><li>End milling – machining slots, grooves, pockets and keyways into the workpiece.</li><li>Profile milling – machining complex three-dimensional contours into the workpiece. This relies on using a shaped cutter or moving the workpiece relative to the cutter.</li><li>Helical milling – producing grooves and ridges using a cylindrical cutter fed at an angle to the workpiece axis.</li></ul>

Turning is a machining process used to create cylindrical parts by rotating a workpiece while a cutting tool is moved along its axis to cut away material. This process can create precise cylindrical shapes and produce a high-quality surface finish.Turning operations are performed on a lathe, which holds the workpiece firmly while it rotates at high speeds. The cutting tool is fed slowly into the workpiece, removing material uniformly around the outside diameter of the part being machined. Common types of lathes used for turning operations include:<ul><li>Engine lathes – Used for precision turning of small, medium and large diameter pieces. The bed can be horizontal or vertical.</li><li>Turret lathes – Have multiple cutting tools mounted on a turret that allows for automatic indexed operations. Good for high production.&nbsp;</li><li>CNC lathes – Computer numerically controlled lathes can precisely control movement and cutting parameters. Ideal for complex parts.</li></ul>The main types of turning processes include straight turning, taper turning, profiling or contour turning, grooving, and boring. Turning can produce cylindrical shapes, cones, spherical sections and concave or convex contours. The material is fed into the lathe with a longitudinal motion along the axis of the workpiece.Turning is an essential machining process used to create rotational, cylindrical components to extremely tight tolerances and fine surface finishes. It’s ideal for producing parts that have axial symmetry and do not require complex internal geometries.

Drilling is a machining process that uses a drill bit to create round holes in the workpiece. The drill bit is usually attached to a drill press or vertical milling machine and rotated while being pressed against the workpiece to cut into it.Proper speeds and feeds must be used based on the material to avoid damage to the workpiece or drill bit. Cutting fluid is often used to cool the drill bit and workpiece and flush away chips during drilling. The size of the finished hole depends on the diameter of the drill bit used.There are several types of drill bits that are designed for different materials and applications:<ul><li>Twist drill bits – Most common type made of high speed steel with a helical flute design to draw up chips. Good for drilling metals. Come in a wide range of diameters.</li><li>Brad point bits – Have a center point to keep the drill bit steady and minimized wandering when starting a hole. Good for drilling wood and soft plastics.</li><li>Masonry bits – Have a carbide tip and are optimized for drilling concrete, brick, and other masonry materials.</li><li>Countersink bits – Have a conical shape to enlarge just the surface of a hole and create a beveled edge.</li></ul>Key features that impact drilling performance include the material the bit is made from, number of flutes, thickness and width of the lands, point angle, and flute length. Proper drill bit selection and replacement helps achieve good hole quality.

Sawing is a machining process that uses a saw blade to cut and remove material from a workpiece. The process involves a toothed cutting tool with edges consisting of a series of sharp teeth that repeatedly cut into the workpiece at a constant rate as the blade moves.The sawing process can either be carried out by the machine shop itself, or alternatively, material wholesalers may use sawing to cut blocks into the sizes required by their customers before selling them.Compared to other machining processes like milling, turning and drilling, sawing has some key differences:<ul><li>It is typically used for gross removal of material rather than for precision operations. The finish and tolerance is lower.</li><li>The direction of cutting is orthogonal to the blade’s direction of movement, unlike the orthogonal cutting in turning or the rotary cutting in milling.</li><li>No unique cutting tool geometry like in turning or milling. Just the saw blade teeth for repetitive cutting.</li><li>Lower rigidity, precision and control compared to cutting tools used in milling, turning and drilling.</li></ul>Overall, sawing is ideal for rapidly cutting large, thick workpieces into smaller pieces rather than finishing operations. It is commonly used in operations like slicing metal bars, tubes, blocks into rough cut parts before further precision machining.

Broaching is a machining process for removing material by inserting a tool called a broach. The broach contains sharp teeth that each cut away a small amount of material. As the broach is pushed or pulled through the workpiece, the teeth make overlapping cuts to create the desired shape.Broaching is highly effective for creating precise, complex forms like splines, keyways, and slots. It works on internal or external surfaces, making it a versatile option.<h4>How Broaching Works</h4>The broach contains rows of progressive teeth. Each tooth is slightly larger than the previous one. As the tool advances through the workpiece, the teeth shave away material little by little to form the desired shape. The cut starts out wide and shallow and gets deeper with each tooth.The broach can be pushed or pulled through the workpiece. Pushing is called direct broaching, while pulling is called pull broaching. The direction depends on the shape being machined.Lubricant is critical during broaching to flush chips, minimize friction, and prevent the broach from overheating. Too much heat can damage the broach teeth. Proper lubrication allows faster broaching speeds.

Grinding is an abrasive machining process that uses a grinding wheel as the cutting tool. The purpose of grinding is to produce very fine finishes and very accurate dimensions on workpieces.<h4>Purpose of Grinding</h4>The primary purpose of grinding is to remove material and achieve the desired geometry, size, and surface finish on workpieces. It is capable of producing extremely fine finishes below 1 micron and grinding tolerances below 0.001mm. Unlike many other machining processes, grinding can often achieve perfect geometric shapes and dimensions. The flexibility of grinding allows grinding wheels to be shaped to produce complex forms.Grinding is commonly used when a hardened material is difficult to machine with traditional methods. It can achieve the desired tolerances and surface finishes that are beyond the capabilities of other machining techniques. Grinding generates minimal heat which prevents workpiece damage. It also requires rigid holding of the workpiece because of the high grinding forces needed.<h4>Types of Grinding Machines</h4>There are several types of grinding machines used for different purposes:<ul><li>Surface grinders are used for grinding flat surfaces. The workpiece is held on a table that moves back and forth under the grinding wheel.</li><li>Cylindrical grinders are used for external cylindrical grinding and internal cylindrical grinding. The workpiece rotates between fixed or rotating centers as the grinding wheel reciprocates along its axis.</li><li>Centerless grinders use the principle of through-feed grinding where the workpiece is held between two grinding wheels and supported by a work rest blade. The speed ratio between the grinding wheel and workpiece provides the grinding action.</li><li>Tool and cutter grinders are designed for sharpening cutting tools like milling cutters, drills, reamers, and broaches. The grinding head typically swivels to bring the wheel into contact with the tool to grind the cutting edges.</li></ul>

Electrical discharge machining (EDM) is a manufacturing process that uses electrical discharges to erode material and form shapes. There are two main types of EDM:In die-sinking EDM, the electrode tool is shaped to form the desired cavity by being plunged into the workpiece. With wire EDM, a thin wire electrode follows a programmed path to slice through the workpiece, enabling intricate contours to be cut without contact.<h4>How EDM Works</h4>EDM works by creating an electric spark between an electrode tool and the workpiece to melt and vaporize material from the workpiece. The electrode and workpiece are submerged in an insulating liquid, usually oil or deionized water. As the electrode approaches the workpiece, voltage builds until it discharges a spark across the small gap between the electrode and workpiece. This quickly melts a small amount of material from the workpiece which forms debris that is washed away by the liquid. Thousands of sparks occur per second, enabling EDM to quickly and accurately machine parts and cavities without physical contact between tool and workpiece. The electrode is guided by CNC to achieve the desired final shape.<h4>Advantages of EDM</h4><ul><li>Extremely hard electrically conductive materials can be machined, including hardened tool steels, carbides, titanium alloys, and heat treated metals. These would be difficult or impossible to machine with traditional cutting tools.</li><li>Very complex and intricate shapes can be produced using sinking or wire EDM that would otherwise require multiple machining processes.</li><li>No cutting forces or mechanical stresses are exerted on the workpiece since no contact is made. This enables machining of fragile and slender parts.</li><li>Burr-free machining with no need for post-processing or de-burring.</li><li>No tool wear from EDM eliminates tool changes and reduces costs.</li></ul>The unique EDM process fills a useful niche for mold production, toolmaking, prototype parts and micromachining applications.

Machining processes involve removing material from a workpiece to achieve a desired shape and finish. This was an overview of the most common types of machining processes used in manufacturing.Each machining process has its strengths and limitations. Selecting the right process requires considering factors like precision, surface finish, speed, cost effectiveness, and more. Improvements in machine tool technology, cutting tools, automation, and computer numerical control systems continue to advance machining capabilities.The future outlook for machining points towards more automation, as well as hybrid processes that combine additive and subtractive techniques. Machining will remain critical for high-precision parts, but additive manufacturing allows more design freedom. As advanced materials like composites and ceramics become more prevalent, machining processes will evolve to effectively work these hard-to-machine materials. Overall, machining will continue to be an essential part of manufacturing into the future.

Procurement 101: An Introduction to Machining Process

Explorer cover graphic reading "Searchable Manufacturing Data: What is it and how do you create it? Make a true asset out of your data," beside a blue-tinted photo of a robotic arm on a production line.

The first necessary step in making your data searchable is making it digital. A lot of your old manufacturing data, including drawings, logs, and orders, may still be stuck on paper. Despite this data being old, it may still offer crucial insights for future decisions. Scanning these documents is a worthy investment of time.Another important type of digitization needs to occur in your production line. Your machines should be automatically logging data that they produce in operation. This can include their current settings, output rate, and, depending on the sophistication of your sensors, things like defect rate too. Make sure this data is captured in a central, analyzable location.

A lot of data you produce is “trapped” inside of files. For example, a scanned drawing has a lot of text on it in labels and the <a href="https://us.caddi.com/knowledge-base/title-block" rel="noopener noreferrer" target="_blank">title block</a>. When you open the scanned image file, you can read it. But when you search through your file system, you can’t search for text within the image.Other examples of this sort of “trapped data” include:<ul><li>PDF documents – you can search through them when you have them open, but you can’t usually search for terms across all of your PDFs</li><li>Spreadsheets – again, you can typically search while you’re inside of these, but you need to know which one to open</li><li>3D models and CAD drawings – usually require to be individually opened in a specific program to analyze</li><li>Other proprietary data types – many files can only be opened and searched in specific programs, making them inaccessible for broader searches</li></ul>Creating truly searchable manufacturing data involves extracting all of this text and structuring it to make it searchable. For text within images, this involves using optical character recognition (OCR) to extract text from the image. For other data, it involves creating a <a href="https://us.caddi.com/knowledge-base/data-lake" rel="noopener noreferrer" target="_blank">data lake</a> that can take in data from all sorts of sources. Then, you can do one global search in the data lake to get all the context you need about any question.

A major part of creating searchable manufacturing data is understanding what sort of questions people will want answered. Then, you need to structure your data to make those questions searchable. This often requires creating new types of contexts and connections.For example, let’s say you want to understand inefficiencies in your production processes. You can probably identify which machines take longer than others. However, what you really want is to understand which machines are relatively slow given the type of work they’re doing. But how do you classify the type of work? It may seem to require tedious manual comparing and sorting. However, cutting-edge machine learning technology can create these categories for you automatically.Here’s another example – one that we specialize in. Let’s say you want to save money on procuring component parts. You want to figure out where you can get better deals on certain types of parts. It may seem like you have to manually look at past order data and compare which parts are similar. But this is one of CADDi’s specialties. Just by doing a similarity search with one drawing, you can find order data for all parts with similar designs. Then you can more easily figure out which suppliers are offering the best deals for each type of part.

So why make this investment into turning your manufacturing data into a searchable asset? There’s a plethora of reasons, but let’s highlight a few:<ul><li>Massive time savings on your workflows: nearly every person, on nearly every day, will need to search some previous data to make a new decision. Without searchable data, this can take hours, even days. If it takes too long, people will skip searching and make costly, time-consuming, and suboptimal decisions.</li><li>Discovered cost savings: with well connected searchable data, finding cost savings changes from a lengthy process to something you can investigate on a whim. You can undertake exercises to consolidate suppliers and renegotiate deals with only a few searches.</li><li>Reduced operational costs: many of your operational costs result from an <a href="https://us.caddi.com/resources/insights/parts-proliferation-the-junk-drawer-of-manufacturing-chaos" rel="noopener noreferrer" target="_blank">excess of redundant parts</a>, production issues accumulating without your notice, and other problems resulting from insufficient issues.</li></ul>

CADDi is a revolutionary tool in making your manufacturing data searchable. We create a data lake by collecting information across your PLM, PDM, ERP, CAD, and other tools. Then we use our amazing AI tech to connect data using intuitive qualities.See it all in action by <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">signing up for demo</a> today.&nbsp;

Searchable Manufacturing Data - What is it and why is it helpful?

Explorer Engineering 101 cover titled Material Standards, ASTM, AISI, ASME, and Others, with a close-up of steel hex-shank driver bits on a blue background

Material standards play a crucial role in many industries by providing consistent specifications and testing methods for materials, products, systems, and services. They help ensure quality, safety, reliability, and interchangeability. Material standards provide detailed technical information so that all stakeholders—from designers to manufacturers to end-users—are on the “same page”.Many material standards are voluntary consensus standards developed by experts from industry, government, and academia. They fill an important gap between broader regulations and the specific needs of businesses. Material standards benefit consumers by reducing errors and defects. They benefit companies by increasing efficiency. Overall, material standards make industries function more smoothly by facilitating communication and commerce. This article will provide an overview of major material standards organizations, the standards development process, and the many benefits that material standards provide.

The development of material standards and standards organizations began in the early 20th century as a response to the rapid growth of industry. As mass production and large-scale construction projects became more common, engineers recognized the need for consistent guidelines and specifications for materials.Among the first standards organizations was the American Society for Testing and Materials (ASTM), founded in 1898. ASTM brought together manufacturers, engineers, and other experts to collaboratively develop standard methods of testing materials. This allowed different companies, construction firms, and engineers to have a common set of testing procedures and material expectations.Over the next few decades additional standards organizations emerged in the United States and globally. These included the American National Standards Institute (ANSI), founded in 1918, which serves as the voice of the U.S. standards and conformity assessment system across all industries. ANSI oversees the creation, promulgation, and use of thousands of norms and guidelines that directly impact businesses in nearly every sector.Other notable organizations include the American Institute of Steel Construction (AISC), formed in 1921, focusing on structural steel standards, and the American Society of Mechanical Engineers (ASME), formed in 1880, which developed crucial standards for piping, pressure vessels, and other mechanical systems.The development of centralized standards organizations and their material standards helped pave the way for large-scale innovation and construction projects in the 20th century. The consistent standards gave engineers and companies common guidelines to design and produce to, allowing complex, coordinated projects involving many different materials.

ASTM International, AISC, and ASME are three of the most important standards organizations for materials and manufacturing.ASTM International, originally known as the American Society for Testing and Materials, was founded in 1898. ASTM develops international voluntary consensus standards for materials, products, systems, and services. Some of ASTM’s most widely used standards are for steel, plastics, petroleum, construction, and medical services. ASTM has over 12,000 standards that are used around the world to improve product quality, enhance health and safety, strengthen market access and trade, and build consumer confidence.ANSI oversees the development of standards by accrediting other standards organizations. While ANSI does not directly develop standards, it plays a key coordinating role in the broader U.S. standardization system. Many well-known standards like ISO 9001 for quality management are approved by ANSI.AISC was founded in 1921 to serve the structural steel design community and construction industry. AISC develops standards for the design and construction of structural steel buildings and bridges. Some of AISC’s most important standards relate to steel materials, design, fabrication, and erection for structural steel buildings and bridges. These include standards for structural steel shapes, specification for structural steel buildings, seismic design, welding, and quality control.ASME was founded in 1880 to promote the art and science of mechanical engineering. ASME develops codes and standards relating to the functionality, quality, safety, and interoperability of mechanical systems and products. Some key ASME standards relate to materials and design for boilers, pressure vessels, piping, cranes, elevators, and nuclear components. ASME standards help define product specifications and best practices for mechanical engineering and manufacturing.

ASTM International, formerly known as the American Society for Testing and Materials (ASTM), is a nonprofit organization that develops and publishes technical standards for materials, products, and processes. Founded in 1898 as an engineering society focused on iron and steel, ASTM International has expanded its focus to include standards for almost every industry sector.&nbsp;ASTM International has over 30,000 members from 140+ countries worldwide, including manufacturers, academic institutions, government agencies, and other experts. The organization has a diverse membership with members representing over 100 countries. This global participation helps to build consensus and enables ASTM standards to be used worldwide.Some of the many areas for which ASTM International has developed standards include metals, paints, plastics, textiles, petroleum, aircraft, pharmaceuticals, medical devices, water quality, environmental assessment, renewable energy, construction, electronics, and more. ASTM International standards cover everything from the strength and durability of materials to test methods, safety guidelines, product specifications, classifications, and terminology.ASTM International’s standards development process relies on consensus, transparency, and due process. Proposed new standards and revisions go through rigorous balloting and review by ASTM members. Standards are continuously reviewed and updated as needed to keep pace with technological developments. Compliance with ASTM standards is voluntary unless mandated by laws or regulations.

The American National Standards Institute (ANSI) is a private, non-profit organization that oversees the development of voluntary consensus standards for products, services, processes, systems, and personnel in the United States. Founded in 1918, ANSI coordinates and administers the U.S. voluntary standards and conformity assessment system.ANSI does not itself develop standards. Instead, it accredits standards developers like ASTM, AISC, and ASME, ensuring that their standards development processes meet ANSI’s essential requirements for openness, balance, consensus, and due process. Once a standard is approved by an ANSI-accredited standards developer, it may be submitted for approval as an American National Standard.ANSI represents the U.S. in international standards organizations such as the International Organization for Standardization (ISO) and the International Electrotechnical Commission (IEC). This helps to facilitate global trade by promoting the international alignment of standards.In addition to its role in standards development, ANSI also:<ul><li>Accredits organizations that carry out product or personnel certification in accordance with requirements defined in international standards</li><li>Provides education and training related to standards and conformity assessment</li><li>Serves as a central resource for information about standards, conformity assessment programs, and related activities in the U.S. and globally</li></ul>Through these activities, ANSI plays a crucial role in enhancing the competitiveness of U.S. businesses, protecting the environment and health and safety of consumers, and advancing the quality of life.

AISC is a not-for-profit technical institute and trade association for the use of structural steel in the construction industry. Founded in 1921, AISC develops and publishes consensus standards for the design, fabrication and erection of structural steel buildings and bridges in the United States.Some of AISC’s most widely used standards include:<ul><li>AISC 360 – Specification for Structural Steel Buildings: Provides requirements for the design, fabrication and erection of structural steel buildings. Includes provisions for seismic design.</li><li>AISC 341 – Seismic Provisions for Structural Steel Buildings: Contains additional detailed requirements and supplemental information specifically related to seismic design.</li><li>AISC 303 – Code of Standard Practice for Steel Buildings and Bridges: Describes the standard procedures used in detailing, fabricating and erecting structural steel.</li><li>AISC 325 – Steel Construction Manual: Contains the main AISC specifications and additional data, tables, charts and examples for efficiently designing steel structures.</li></ul>AISC standards cover everything from design philosophies and loads, to member, connection and plate design, as well as fabrication and erection practices. By following AISC standards, engineers can design safe, durable and cost-effective steel structures.

The American Society of Mechanical Engineers (ASME) was founded in 1880 as a professional membership organization for mechanical engineers. Today, ASME has over 130,000 members worldwide and develops standards for a wide range of mechanical technologies.ASME is best known for its Boiler and Pressure Vessel Code (BPVC). First published in 1914, the BPVC provides requirements for the design and fabrication of boilers and pressure vessels. It is written and maintained by volunteer technical experts and covers crucial topics like materials, design, fabrication, inspection and testing. Compliance with ASME’s BPVC is required by law for many types of boilers and pressure vessels in North America.In addition to the BPVC, ASME issues several other notable standards:<ul><li>B16 Standards for Piping and Valves – Standards that cover pipe dimensions and materials, valve materials and design, flange dimensions, etc. Important for fabrication of process piping.</li><li>ASME B31 Pressure Piping Codes – Codes covering design, materials, fabrication, inspection and testing of pressure piping systems. B31.1 covers power piping, B31.3 covers process piping.</li><li>ASME Y14 Engineering Drawings and Related Documentation Practices – Standardizes practices, symbols and formats used on engineering drawings. Important for mechanical design communication.</li><li>Performance Test Codes – Standards for uniform test methods and procedures to verify performance of pumps, fans, engines, gears and other mechanical equipment.</li></ul>By developing consensus standards relevant to mechanical engineering, ASME has had a major influence on ensuring safety and enabling innovation across many industries.

A few other notable standards organizations in the materials and manufacturing space include:SAE International (SAE) – This organization develops standards for the automotive, aerospace, and commercial vehicle industries. Some key standards include specifications for automotive fasteners, aerospace materials, and vehicle electronics.Association for Iron &amp; Steel Technology (AIST) – AIST supports the steel industry with technical journals and programs for education, training, and networking. Their technical committees publish recommended practices on design, manufacturing, testing, and use of steel products and materials.

Material standards provide numerous benefits that impact a wide range of industries and applications. Some of the key benefits include:<h4>Quality</h4><ul><li>Material standards help ensure consistent quality across products, manufacturing processes, testing procedures, etc. This leads to higher quality and more reliable end products for consumers and industry.</li><li>Standards support quality control and quality assurance by establishing clear specifications and test methods that can be uniformly applied.</li><li>They allow for certification and compliance testing to verify products meet specifications for quality and performance.</li></ul><h4>Safety</h4><ul><li>Many material standards are developed with safety in mind. They establish rigorous test protocols to ensure structural integrity, durability, and other safety-related factors.</li><li>Standardized production and testing helps identify defects and weaknesses in materials that could lead to failures and accidents if gone undetected.</li><li>Compliance with standards minimizes risk and provides confidence in the safe performance of everything from consumer goods to infrastructure.</li></ul><h4>Interoperability</h4><ul><li>Standards facilitate interoperability between components, products, and systems.</li><li>They ensure parts from various manufacturers are compatible and interchangeable through compliance with the same specifications.</li><li>This interoperability creates flexibility and efficiency in design, production, and utilization of goods.</li></ul><h4>Cost Savings</h4><ul><li>The efficiencies and economies of scale enabled by standards result in significant cost savings for industries.</li><li>Using standardized materials, processes, interfaces, etc. reduces the need for customization and speeds up integration.</li><li>Standards support competitive bidding and procurement processes by establishing accepted specifications.</li><li>They eliminate redundant design, testing, and certification costs that would otherwise be incurred.</li></ul>So in summary, material standards provide far-reaching benefits of higher quality, improved safety, increased compatibility, and major cost reductions across many sectors. Their impact on the economy and society is substantial.

Material standards play a crucial role in manufacturing, construction, and engineering industries by ensuring consistency, reliability, and safety. As discussed in this article, key standards organizations like ASTM International, ANSI, AISC, and ASME use a rigorous process to develop consensus-based standards for materials, design, testing, and more.The standards development process involves many experts volunteering their time and is open to public input. This collaboration enables the creation of standards that represent the broader industry’s needs. For manufacturers, following material standards provides assurance that their products will meet quality benchmarks. For builders and engineers, using standard specifications gives confidence the materials will perform consistently.Overall, material standards allow for innovation while reducing risks. They provide a common language for industries to clearly define product attributes. Adhering to standards helps improve quality control and safety. It also enables interoperability between materials from different manufacturers. As materials science continues advancing, standards will need to evolve as well. However, their fundamental purpose of promoting reliability, productivity, and public welfare will remain unchanged.

Procurement 101: Material Standards – ASTM, AISI, ASME, and Others

Explorer cover graphic reading Drawing Management, Modernizing management for efficiency, Work with drawings faster and better, over faded engineering drawings

Drawing management is the process of organizing, storing, retrieving, and revising your technical drawings. In the modern era, it typically involves software that indexes all your drawings, along with metadata and labels, in a sortable database. Drawing management also comprises the processes you have around drawings: how do you revise them, compare revisions, confirm changes, share them with other people, etc.

For as long as technical drawings have existed, drawing management systems have existed too. At the beginning, drawings were hand-drafted on swathes of paper. They were sorted and stored in labeled cubbies or cabinets. Key information was indicated in title blocks allowing for quick verification that the drawing was the one you were looking for. If a copy was needed, it would have to be traced by hand.This era of drawing management had significant shortcomings. Many manual steps were required. It was an error-prone process, where mislabeled information or misplaced documents could cause huge delays or mistakes. Making revisions was problematic, needing you to create another copy or irreversibly mark up the original. And imagine someone spills a cup of coffee on the drafting desk!As new technology was introduced, it was incorporated into drawing management systems. All of these products and more contributed to the robustness and efficiency of drawing management:<ul><li>Photocopiers</li><li>Scanning to digital files</li><li>Floppy disks, CDs, and portable hard drives</li><li>Metadata/tagging</li><li>Database software</li><li>Email</li><li>Cloud servers</li></ul>And these new technologies are bringing drawing management into a future era:<ul><li>Optical character recognition</li><li>Machine vision</li><li>Natural language processing</li><li>Large language models</li></ul>Let’s take a look at what a modern drawing management system should be able to accomplish.

<h3>Collaboration</h3>A major part of drawing management is making drawings accessible to anyone who needs to revise or review them. Designing a part is a collaborative process where multiple people need to contribute ideas and confirm decisions. Modern drawing management software lets the necessary team members access drawings from anywhere by storing them on the cloud. They can leave comments, make changes, and tag the drawings with relevant descriptors.<h3>Revision control</h3>As collaboration continues, changes will be made to the drawing. Modern drawing management organizes these revised versions to avoid referencing the wrong one. It provides timelines showing when each revision was made and by whom. Most importantly, it lets you easily compare the differences made during each revision so you can understand the intent of changes.<h3>Searching</h3>Perhaps the most important part of drawing management is making drawings accessible when needed. Procurement professionals, engineers, salespeople, and more all have to reference older drawings very often for their new work. Searching for drawings in a consistent and fast way is necessary to avoid slowdowns in their tasks. Typically searching can only find metadata associated with a drawing, such as names, IDs, and tags. However, cutting-edge drawing management software like CADDi can also search for components of the part, information extracted from title boxes and handwritten notes, and more.<h3>Information linking</h3>You accumulate a lot of data for the parts detailed in your drawings: supplier data, pricing history, quality data, process information for manufacturing, and more. A modern drawing management process should allow this information to cluster around each drawing, rather than be disconnected across many different databases. Sophisticated software like CADDi can help group this information by the type of part itself – showing all such data around bearing casings, for example – based on what the drawing looks like.<h3>Editing capabilities</h3>These days, a lot of drawing is done using CAD (computer assisted drawing) tools. Modern drawing management should be able to integrate with these tools so that updates or new drawings can smoothly be added to your database. The changelogs of what was done in these tools, plus metadata added by the tools, should be preserved as well.

CADDi enables you to take your drawing management to the next level with our revolutionary search and data-linking capabilities. It’s as powerful a step up as going from physical paper to digital images: now you have fully searchable data assets.‍See how CADDi can work for you by <a href="https://us.caddi.com/demo-request" rel="noopener noreferrer" target="_blank">checking out a demo</a>.

Modern Drawing Management: How to Elevate Your Process

James emphasized that commodity strategies are critical for optimizing the supply base in a methodical way. Without a well-defined commodity strategy, companies often see an inflated supplier count, increased supplier risks, and even hindrance of innovative supplier solutions due to arbitrary reduction targets. In contrast, an effective commodity strategy enables:<ul><li>Significant reduction in supplier count, if initiating strategies for the first time</li><li>Accounting for innovative suppliers</li><li>Effective supplier risk management</li></ul>“Commodity strategies enable a methodical way to optimize supplier count,” stated James. “If initiating commodity strategies for the first time, expect significant reduction in supplier count.”

The webinar outlined a comprehensive 7-step process for achieving supplier consolidation:<ol><li>Commodity Strategy – defining process, cost elements, and market trends impacting the commodity</li><li>Engineering Best Cost Design – collaboration between engineering and costing teams</li><li>Manufacturing Input – alignment with manufacturing capability and footprint</li><li>Supplier Factors – alignment with supplier capability, footprint, and performance</li><li>Decision Point – optimization decisions based on overall best value</li><li>Strategic Prioritization – developing the supplier optimization plan</li><li>Execution Plan &amp; Approval – ownership across stakeholders to assure alignment</li></ol>We covered Step 1 in the previous webinar, so it was skipped here. For more details, please refer to the article below.<a href="https://caddi.com/en-us/resources/insights/commodity-strategies-webinar/" rel="noopener noreferrer" target="_blank">Transforming Procurement Through Value-Based Commodity Strategies: Insights from Experts</a>

In step 2, the focus is on determining the most cost-effective design, including Design for Manufacturing (DFM) principles. James provided examples of how this has yielded results in practice:He also stressed the importance of working with engineering to optimize resin usage, enabling higher volume purchasing power.

Step 3 involves gaining input from the manufacturing team on their specific needs. Key considerations include:<ul><li>Proximity of suppliers to plants, especially in just-in-time environments</li><li>Frequency of on-site supplier support needed and problem-solving capability</li><li>Historical delivery and quality performance of suppliers</li><li>Number of SKUs required by the plant</li></ul>

In step 4, the focus shifts to assessing suppliers across several dimensions:<ul><li>Geographic location</li><li>Overall performance</li><li>Capability and risk factors</li></ul>“It’s really important to understand where the supplier sits, and understand if you need to move quickly in potentially exiting a supplier,” advised James.He also highlighted the importance of proactively seeking out new suppliers with unique technologies or skill sets that could improve the company’s overall performance.

Step 5 is the critical decision point where companies must weigh various factors to determine the optimal supplier base. James outlined key considerations and potential outcomes:<ul><li>Placing suppliers “under evaluation” for improvements</li><li>Immediately exiting or resourcing suppliers</li><li>Phasing out suppliers post end-of-production</li><li>Introducing new suppliers into the current supply base</li></ul>When making these decisions, it’s important to account for:<ul><li>Transition costs vs. cost to balance out the supplier</li><li>Testing and validation costs</li><li>Obsolescence costs</li><li>Payback timing</li><li>Sustainability commitment timelines</li><li>Required supplier development resource costs</li></ul>

In step 6, suppliers are prioritized into categories such as Strategic (Grow or Maintain), Under Evaluation, Non-Strategic (Phase Out), and Exit. James shared a real-world example of the impact of this process:The final step involves developing a detailed execution plan with clear actions, responsibilities, and timelines. Critically, this plan must be approved by and have ownership from leadership across procurement, engineering, operations, and other key functions.&nbsp;“It’s not just checking a box,” said James. “It’s assuring that you have ownership throughout the organization when you get to the point of implementation.”

To support the supplier consolidation process, Chris demonstrated how CADDi’s software tool, <a href="https://caddi.com/en-us/platform/caddi-explorer/" rel="noopener noreferrer" target="_blank">Explorer</a>, can help accelerate design standardization efforts. Explorer uses AI-powered shape recognition to quickly find similar parts across a company’s entire database of drawings.6:09“What we can see the CADDi Drawer system do immediately is find every single part, every single drawing that we’ve ever loaded into the system that contains the word ‘bearing’, for example – not just in the file name, but actually inside the assembly files,” explained Chris.By identifying similar parts, engineers and sourcing teams can easily spot opportunities to consolidate designs and suppliers. Explorer also allows users to export detailed reports with pricing, lead time, quality, and risk data to inform decision making.

Throughout the webinar, James and Chris fielded various questions from the audience. One participant asked about measuring sustainability factors in supplier assessments.James advised partnering with third-party services to assess suppliers’ environmental sustainability goals and progress. “It’s a pretty standard expectation, and there’s a number of commitments…that we’re following through with.”Another attendee inquired about managing supplier relationships and potential financial risks over the long term. James emphasized the importance of regular business reviews with strategic suppliers:&gt; “We held, at minimum, annual business reviews with our strategic suppliers. To me, it’s a really important step that helps align strategies…between your company and the supply base.” – James Bos

The CADDi webinar provided a wealth of insights and practical advice for driving supplier consolidation through effective commodity management. Some of the key takeaways:<ul><li>Commodity strategies are essential for optimally reducing supplier count and managing risk</li><li>Follow a robust, cross-functional process to align designs, manufacturing needs, and supplier capabilities</li><li>Make data-driven decisions on supplier optimization, considering total costs and strategic priorities</li><li>Secure broad organizational alignment and ownership of the execution plan</li><li>Leverage digital tools to accelerate standardization and regularly measure supplier performance</li></ul>By adopting these proven approaches, companies can build a streamlined, resilient, and high-performing supply base to power their success.To learn more, please watch the full recording of our webinar by clicking the link below.

Value Based Sourcing: How to Achieve Supplier Consolidation Through Commodity Alignment

Explorer cover graphic: a hand drawing on a futuristic circular gauge with an arrow indicator, subtitled 'Improving robustness and agility'

Procurement strategy refers to a collection of mindset and processes aimed at making your procurement systems more efficient, profitable, and stable. A good procurement strategy is ever-evolving, taking in the lessons from your previous strategies and responding to new goals and challenges.‍Let’s take a look at what your procurement strategy can achieve for you and how to go about building one that fits your needs.

There are many benefits to a good procurement strategy, including:<h3>Cost reduction</h3>The most tangible upside of having a good procurement strategy is saving money. By being more strategic about which suppliers you work with for which orders, you can save money.<h3>Better procurement efficiency</h3>Cycle lengths for each order can be reduced by having a good strategy in place. Many manual steps and approvals can be skipped or expedited if there’s a consistent plan in place.<h3>Better supply chain management</h3>A good procurement strategy makes you more robust and resilient to disruptions in the supply chain by having plans B and C ready to go.‍<h3>More agility in seizing new opportunities</h3>Your procurement strategy will make you more flexible and adaptive in response to new opportunities. When a new supplier becomes available or a new part needs to be ordered, your strategy will enable you to move quickly, without lengthy evaluation from scratch.

Your procurement strategy requires various processes and tactics to build and implement. Here are some key ones:<h3>Insightful data tracking</h3>A prerequisite for building a good procurement strategy is having complete data around your procurement history available.‍Beyond just tables of order numbers and quantities, you want a database that conveys real insights. For example, you don’t want to just know data around an order of the specific part “HF-9877283”, but you want to compare that data with other parts with the same features, dimensions, materials, or other qualities.‍CADDi <a href="https://us.caddi.com/product/procurement" rel="noopener noreferrer" target="_blank">tracks parts according to their design</a>, allowing you to make more strategic insights about categories of parts and their suppliers. This is essential to a good procurement strategy, allowing you to make decisions based on the functional qualities of a part instead of arbitrary part numbers or names.<h3>Supplier consolidation</h3>Supplier consolidation refers to reducing the number of suppliers and ordering more parts from each of them. This can be an impactful part of procurement strategy. Suppliers are likely to offer you a better deal if you purchase in more bulk, saving you money.‍Moreover, supplier consolidation can lead to more consistency in part quality, reduce overhead costs associated with multiple individual orders, and reduce the chance that one of your suppliers will be disrupted.‍Achieving supplier consolidation requires you to understand what types of parts each supplier can offer you. It may require some proactive outreach and negotiation, but these investments will pay for themselves.<h3>Supplier diversification</h3>As beneficial as supplier consolidation is, diversifying suppliers can be equally important. Both should be part of your procurement strategy. When you consolidate your suppliers, you reduce the risk of suppliers becoming disrupted, but you increase the negative impact of one of your major suppliers being unable to provide. A healthy amount of diversification keeps you from putting all your eggs in one basket.‍Diversifying suppliers also provides opportunities for bargains. A good procurement strategy should involve checking alternatives to known suppliers in case money saved can be worth it. Exploring other suppliers can open up a lot of data for future strategic moves. You’ll accumulate quality, order time, and cost data for each supplier you work with, giving you more options for future orders.<h3>Strategic trade offs</h3>Working on an order-by-order basis, you may be tempted to maximize for quality for every part. Alternatively, you might want to go for the cheapest option every time, or you may need to go with the fastest. In actuality, there is almost always a threshold for each that you need to meet, with the other metrics being free to be improved past that point.‍Determining those thresholds in an efficient way is a big part of your procurement strategy. Figure out baselines for the quality you need for different categories of parts, plus the required timelines and cost constraints for different projects. Once you know where trade offs are available, you can have more leeway and more options.<h3>Other tactics</h3>A good procurement strategy will involve investigating many other aspects of your procurement system. <a href="https://us.caddi.com/resources/category/insights" rel="noopener noreferrer" target="_blank">Explore our blog</a> to learn more about other optimizations you can make.

Procurement Strategy

Explorer graphic titled 'Increasing Product Complexity: Facing challenges with modern tech' over a photo of industrial equipment cabinets and cabling

Traditionally, custom manufacturing often means the design process begins from scratch for each new customer request. Unlike high-volume production, where designs can be standardized and optimized, the diversity of customer needs and rapid technological advancements frequently make it seem more efficient for designers to create new drawings rather than reuse existing ones. This approach, while meeting immediate needs, leads to a lack of accumulated technical knowledge. Many companies experience a sense of crisis that they aren’t building on a technological foundation. The continuous creation of new drawings requires significant time and effort from design teams, stretching company resources thin and potentially leading to extended delivery times as a lack of design and assembly personnel makes it difficult to fulfill orders, sometimes causing customers to seek alternatives.This core challenge is exacerbated by several recent factors:<ul><li>The Knowledge Drain: The manufacturing sector is grappling with a persistent talent shortage and an aging workforce. A significant portion of senior manufacturing leaders are nearing retirement, and they are taking decades of invaluable "tribal knowledge" with them. This expertise, often undocumented and residing in the minds of experienced professionals, is crucial for tasks like accurate cost estimation, supplier selection, and design problem-solving. Its loss leads to inconsistencies in work quality, reliance on a few key individuals, and extended onboarding times for new hires.</li><li>Fragmented Data and Siloed Operations: Despite vast amounts of data being generated across ERP, PLM, and PDM systems, it often remains scattered and trapped in departmental silos. This lack of integration hinders cross-functional collaboration and makes it incredibly difficult to find and utilize historical information quickly. For instance, procurement might struggle to verify past pricing for similar parts, and engineers may spend hours manually searching for relevant design precedents, leading to "reinventing the wheel".</li><li>Increased Market Pressures: Global supply chain volatility, rising material costs, and intense time-to-market demands add further layers of complexity. Companies need to be agile and responsive, but inefficient internal processes and a lack of readily accessible data impede this.</li></ul>

Fortunately, innovative technological solutions are emerging to help custom manufacturers navigate this complex landscape. CADDi's AI-driven data platform offers a comprehensive approach to address these pain points by aggregating, analyzing, and extracting critical manufacturing data.Here's how CADDi can help untangle the complexities:<ul><li>Creating a Unified Data Lake: CADDi functions as a centralized data repository that consolidates information from various systems, including CAD, PLM, ERP, and even scanned paper drawings. This eliminates data silos and provides a "single source of truth" for all manufacturing data, making it readily accessible across design, engineering, procurement, and production departments. This comprehensive view allows for strategic insights that were previously impossible to gain. When new complex design requests arrive, the entire organization can be coordinated to surface all relevant information cross-departmentally.</li><li>AI-Powered Intuitive Search: Instead of relying on arbitrary IDs or inconsistent labels, CADDi leverages AI machine vision and optical character recognition (OCR) to make drawings and their embedded information intuitively searchable. Users can simply sketch a part, upload a similar drawing, or use keywords to instantly find all relevant past designs, associated costs, suppliers, and quality data. This dramatically reduces the time spent searching for information, freeing up valuable employee time.</li><li>Democratizing Institutional Knowledge: By linking past designs with their complete historical context (e.g., actual costs, supplier performance, defect rates), CADDi effectively digitizes and democratizes tribal knowledge. Less experienced employees can quickly access and leverage the insights of veteran designers and procurement specialists, reducing individual dependency and accelerating new hire training. This enables consistent work quality regardless of who performs the task.</li><li>Facilitating Design Reuse and Standardization: CADDi's ability to identify similar parts and designs helps manufacturers spot opportunities for design reuse and standardization. This can lead to reduced parts proliferation, lower inventory costs, and more efficient production processes, even in high-mix environments. It allows designers to build upon successful precedents rather than starting from scratch, optimizing future products for manufacturability and cost-effectiveness.</li><li>Streamlining Quotation and Procurement: For custom manufacturers, accurate and rapid quoting is paramount. CADDi directly supports this by linking new RFQ designs to similar past projects, providing immediate access to historical pricing, material, and production data. This allows sales teams to respond faster and more accurately, increasing win rates and ensuring profitability. Procurement teams can also leverage this data to compare suppliers, negotiate better deals, and respond swiftly to supply chain disruptions. When dealing with a high mix of complex parts where the actual evaluation of costs will take longer, you need to mitigate that time loss by making your process as fast as possible.</li></ul>In conclusion, while increasing product complexity and market pressures pose significant challenges for custom manufacturers, these can be effectively navigated by strategically leveraging technology to consolidate data and democratize knowledge. Solutions like CADDi empower teams to make faster, more informed decisions, transforming potential roadblocks into opportunities for enhanced efficiency, cost reduction, and ultimately, sustained competitive advantage.Ready to see how CADDi can help you get ahead in the tariff era? Explore our <a href="https://us.caddi.com/product-tour?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Blog&amp;utm_campaign=&amp;utm_term=" rel="noopener noreferrer" target="_blank">interactive product tour</a> or <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">book a personalized demo</a>.

Navigating Increasing Product Complexity in Custom Manufacturing: Untangling the Threads

Explorer cover graphic for The Labor Paradox, tagline 'Survive with better strategy', over a tinted photo of a trading floor being swept up

Recent data paints a clear picture of an acutely deteriorating labor market in manufacturing. The Employment Index has plummeted to 43.4%, marking its lowest reading in five years and indicating accelerating headcount reductions. This isn't just a slowdown; it's a direct response to falling demand and rising costs. Firms are in "workforce management mode rather than hiring," as evidenced by significant downward revisions of previously reported job numbers, with 258,000 jobs erased from May and June reports alone. This immediate pressure to reduce labor costs and manage cash flow is a tactical response to widespread economic uncertainty, intensified by factors like new tariff regimes that inject volatility into cost structures and strategic planning.<h3>The Chronic Crisis: An Unfillable Skills Gap and Knowledge Drain</h3>Against this backdrop of immediate layoffs, the manufacturing industry faces a persistent and widening skills gap. Projections estimate a potential shortfall of 800,000 unfilled manufacturing jobs in 2025, possibly reaching 2.1 million by 2030. This crisis is fueled by:<ul><li>An aging workforce and knowledge drain: A significant portion of experienced workers are nearing retirement, threatening to take decades of invaluable "tribal knowledge"—undocumented insights into design, procurement, and production processes—with them. This loss leads to longer onboarding times for new hires, increased errors, and critical bottlenecks. In fact, 73% of senior manufacturing leaders are preparing to retire in the next decade, with 68% believing at least half of their institutional knowledge will be lost.</li><li>Evolving skill requirements: Modern manufacturing demands proficiency in digital technologies like data analytics, AI, and robotics, skills that are difficult to find and attract.</li><li>Outdated technology as a deterrent: A critical technology-talent disconnect exists, with 72% of U.S. manufacturers acknowledging that their own outdated technology actively prevents them from attracting and retaining workers. This reinforces negative perceptions of manufacturing careers, including concerns about limited growth, outdated environments, and repetitive work.</li><li>Insufficient upskilling investment: Only 20% of manufacturing companies are making significant investments in upskilling programs for existing employees, and only 8% of employees believe their companies support the reskilling needed for new technologies.</li></ul>The difficulty in securing skilled talent also directly impacts strategic initiatives like reshoring, with nearly half of manufacturers estimating it would take 1-3+ years to fully staff a reshored operation, a timeline difficult to commit to in the current volatile climate.<h3>The Dangerous Interplay: A Cycle of Strategic Drift</h3>The most dangerous aspect of the Labor Paradox is how these two forces—short-term layoffs and long-term talent shortages—interact. The immediate, cyclical decision to cut labor costs directly undermines the long-term, structural necessity of attracting and developing new talent. Every layoff announcement reinforces the negative perception of manufacturing as an unstable career path, making it exponentially harder to recruit the skilled technicians, programmers, and engineers needed for future growth.This creates a "strategic drift", where a company's stated strategy to build resilience and potentially reshore is overridden by immediate cost control and survival. Companies risk emerging from the current downturn with the same supply chain and talent vulnerabilities they had before, having missed a critical window for strategic repositioning.<h3>CADDi: Bridging the Paradox with Actionable Intelligence</h3>Overcoming the Labor Paradox requires a strategic shift towards leveraging technology to enhance human capabilities, preserve knowledge, and drive efficiency. CADDi's AI-driven data platform offers a comprehensive solution by addressing these pain points directly:<ul><li>Democratizing Knowledge and Accelerating Onboarding: CADDi acts as a "digital mentor" for new hires and a centralized repository for institutional knowledge. It organizes critical data and designs, reducing reliance on experienced staff. By enabling intuitive searches through drawings and linking past estimates and manufacturing data, CADDi helps new employees become productive much faster. For instance, Punch Industry reduced drawing search time for new hires from over 10 minutes to about one minute, and <a href="https://us.caddi.com/case-studies/kawasaki-robotic-industries" rel="noopener noreferrer" target="_blank">Kashiyama Industries saw over a 60% reduction in time for information gathering in procurement</a>. This allows seasoned professionals to focus on higher-value tasks, rather than constantly answering basic questions.</li><li>Enhancing Efficiency and Productivity: CADDi eliminates redundant work, such as repeatedly creating similar drawings. Engineers can spend up to 90% less time searching for or recreating existing designs, allowing them to focus on innovation and strategic activities. Procurement workflows can be reduced by over 80%. This boosts overall productivity per employee, a crucial factor in navigating talent shortages.</li><li>Unifying Fragmented Data Infrastructure: CADDi functions as an AI-driven <a href="https://us.caddi.com/resources/insights/manufacturing-data-lake" rel="noopener noreferrer" target="_blank">data lake</a>, integrating scattered data from ERP, PLM, PDM, CAD, and even old scanned or handwritten documents. It addresses data silos and inconsistent formats by automatically extracting and linking data intuitively, often by recognizing the shape or features of a drawing, even from a sketch. This "System of Insight" provides a unified, strategic asset that turns dormant data into actionable intelligence.</li><li>Driving Cost Reduction and Accelerating Quoting: By linking historical pricing, quality, and supplier data to drawings, CADDi allows manufacturers to identify pricing inconsistencies and enables Value Analysis/Value Engineering (VA/VE) initiatives. This empowers data-driven negotiations, helps consolidate suppliers, and reduces overpayment for new parts. It also enables faster and more accurate quotes by instantly surfacing relevant past designs and their cost data, giving a competitive edge.</li></ul>In conclusion, while the Labor Paradox presents daunting challenges for American manufacturers, it also creates a compelling opportunity for those willing to adapt. By strategically investing in technologies like CADDi, businesses can turn their vast stores of dormant data into active, actionable intelligence. This not only mitigates the immediate pressures of layoffs and economic uncertainty but also builds a more resilient, efficient, and knowledgeable workforce capable of driving long-term growth and innovation in the face of future disruptions.Want to see how CADDi can help your organization survive the Labor Paradox? Explore our <a href="https://us.caddi.com/product-tour?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Blog&amp;utm_campaign=&amp;utm_term=" rel="noopener noreferrer" target="_blank">interactive product tour</a> or <a href="https://us.caddi.com/demo-request?utm_source=Website-Referral&amp;utm_medium=Website&amp;utm_content=Demo&amp;utm_campaign=&amp;utm_term=blog" rel="noopener noreferrer" target="_blank">book a personalized demo</a>.

The Labor Paradox: Navigating Manufacturing's Unsettling Reality

Explorer cover graphic for Supplier Management Software 2024: Comparison and the future, with an abstract field of glowing blue data points

Managing a network of suppliers is crucial yet complex for businesses. Supplier management software, or we can call Supplier Relationship Management (SRM) Software, helps companies control and gain visibility into these supplier relationships.Supplier management software streamlines and enhances interactions between a company and its suppliers. The software facilitates the flow of information, goods, and payments to efficiently manage everything from procurement to payment.More than just tracking transactions, this software actively fosters strong supplier relationships. It enables businesses to:<ul><li>Assess and select top-performing suppliers</li><li>Monitor supplier performance with real-time data to proactively identify issues</li><li>Streamline procurement processes to boost efficiency</li><li>Enhance collaboration and communication with suppliers</li></ul>Supplier management software guides companies through the complexities of supplier relationships, driving mutual success. As we enter 2024, let’s explore how this critical tool is evolving and compare the latest software options.<h3>Key Supplier Management Software: A Comparative Voyage</h3>Choosing the right supplier management software can be daunting. Here’s an overview of some leading options:<h3>SAP Ariba</h3>Imagine SAP Ariba as the digital equivalent of a global trading hub, where procurement, supplier management, and supply chain collaboration converge. It’s a realm where supplier risk management and performance analysis are the keys to unlocking treasure troves of efficiency and savings.Pros<ul><li>Robust Integration: A seamless merger with the vast SAP ecosystem, making it a powerhouse for those already in the SAP world.</li><li>Global Network: A portal to a world market, offering access to an extensive network of suppliers at your fingertips.</li></ul>Cons<ul><li>Complexity: Navigating this hub can be akin to a maze for newcomers, with its extensive functionalities and options.</li><li>Cost: The price of admission can be steep, potentially placing it beyond the reach of smaller ventures.</li></ul>Suitable for: Large enterprises on a quest for a comprehensive, integrated solution that spans the globe.<h3>Oracle Procurement Cloud</h3>Oracle Procurement Cloud serves as a cloud-based atlas, guiding businesses through spend management, supplier qualification, sourcing, and risk management. It’s a vessel equipped with all the navigational tools needed for a procurement journey.Pros<ul><li>Cloud-Based Flexibility: Offers the freedom to scale and access your procurement operations from anywhere in the world.</li><li>Comprehensive Analytics: A captain’s log filled with detailed reports and analytics, empowering decision-makers with insight.</li></ul>Cons<ul><li>Learning Curve: Mastering this atlas requires time and dedication due to its breadth of features.</li><li>Integration Efforts: Setting sail with non-Oracle products aboard requires additional effort for smooth sailing.</li></ul>Suitable for: Mid to large-sized businesses seeking a cloud-based vessel for their procurement journey, complete with advanced mapping tools (analytics).<h3>Coupa</h3>Coupa stands out with its Business Spend Management (BSM) compass, guiding through procurement, invoicing, and supplier management. Its user-friendly interface and community intelligence act as a lighthouse, illuminating insights and benchmarks.Pros<ul><li>User-Friendly: An intuitive compass that requires no map, making navigation a breeze.</li><li>Community Intelligence: Draws from the collective knowledge of its users, providing valuable benchmarks and insights.</li></ul>Cons<ul><li>Pricing Transparency: Discovering the cost of this journey can be like finding a message in a bottle — it requires direct engagement.</li><li>Customization Limits: Customizing this compass might feel restricted for those looking to chart a unique course.</li></ul>Suitable for: Ventures of any size seeking an easy-to-navigate solution with the added guidance of community-driven insights.<h3>Ivalua</h3>Ivalua is like a galleon, offering a robust, end-to-end procurement solution capable of navigating the entire procurement cycle, from supplier management to analytics.Pros<ul><li>Flexibility: This ship is yours to command, highly customizable to fit your unique journey.</li><li>All-in-One Platform: A comprehensive suite that serves as both map and compass, guiding you through every stage of procurement.</li></ul>Cons<ul><li>User Interface: The deck of this galleon might not be as sleek or modern as other vessels.</li><li>Implementation Time: Customizing this vessel for your voyage can be time-consuming.</li></ul>Suitable for: Organizations charting complex procurement routes, seeking a vessel that can be tailored to their precise needs.<h3>JAGGAER</h3>JAGGAER presents a fleet of procurement solutions, including advanced sourcing and spend analytics. It’s akin to a pioneering vessel equipped with the latest in procurement technology, such as AI and machine learning.Pros<ul><li>Specialized Solutions: Offers maps and tools designed for specific industries, navigating the unique challenges of higher education, manufacturing, and more.</li><li>Innovation: Continuously updates its sails with the latest technological advancements, steering procurement processes toward efficiency and effectiveness.</li></ul>Cons<ul><li>Integration Complexity: Integrating this vessel with your existing fleet can be challenging.</li><li>Cost: Acquiring and maintaining this advanced vessel can be a significant investment, particularly for smaller or specialized fleets.</li></ul>Suitable for: Large organizations or those navigating specialized industries, seeking a cutting-edge solution to lead their procurement journey.<h3>Vendr</h3>Vendr acts as a specialized navigator for the seas of SaaS procurement, focusing on negotiation and spend analytics to guide companies through the waters of software subscriptions. It’s a beacon for businesses looking to illuminate the often murky costs associated with SaaS products.Pros<ul><li>Cost Reduction Expertise: Vendr is like a seasoned captain who knows the trade routes like the back of his hand, ensuring you get the best possible terms and prices.</li><li>Tailored SaaS Strategies: Designed for the digital age, it offers a customized approach to navigate the specific challenges of SaaS procurement.</li></ul>Cons<ul><li>Limited Scope: Its compass is calibrated specifically for SaaS, which means ventures seeking a broader procurement horizon might find it restrictive.</li><li>Niche Focus: Ideal for digital waters, it might not be as effective for those sailing more traditional procurement seas.</li></ul>Suitable for: Tech-forward companies embarking on a voyage through the vast and often expensive ocean of SaaS, looking for a guide to steer them towards cost efficiency and strategic procurement.<h3>SourceDay</h3>SourceDay shines as a lighthouse for direct spend and supply chain transparency, offering tools for purchase order management, supplier collaboration, and automated invoicing. It’s the guiding light ensuring that goods navigate smoothly from suppliers to your docks.Pros<ul><li>Enhanced Supplier Communication: SourceDay is like a semaphore system, enhancing signals and communication with suppliers to ensure clarity and efficiency.</li><li>Accuracy and Automation: Acts as an automated dockworker, streamlining processes and ensuring that every item is accounted for correctly, reducing manual errors.</li></ul>Cons<ul><li>Direct Spend Focus: Its light shines brightest on direct spend, which might leave those navigating the broader procurement seas wanting more.</li><li>Specialization Over Broad Application: Best for those in industries like manufacturing or distribution, where the journey from supplier to production is key.</li></ul>Suitable for: Captains of industry in manufacturing and distribution who need a clear beacon for managing direct spend and ensuring smooth supply chain operations.<h3>GEP SMART</h3>GEP SMART is the cloud-powered galleon, armed to the teeth with procurement solutions such as spend analysis, sourcing, contract management, and supplier management. It sails the cloud seas with agility and power, providing a comprehensive view of procurement operations from a high vantage point.Pros<ul><li>Unified Procurement Platform: With all hands on deck, it offers a holistic approach to procurement, ensuring that no aspect of the process is left uncharted.</li><li>Intuitive Design and Powerful Analytics: The crow’s nest of GEP SMART, offering a clear view of the procurement landscape, helping to navigate through data with ease and insight.</li></ul>Cons<ul><li>Integration Adventures: While powerful, integrating this galleon with other ships in your fleet (non-native systems) can require a skilled crew and extra effort.</li><li>Cloud Reliance: As with any vessel reliant on the winds of the cloud, there may be concerns for those preferring to keep their feet on more traditional ground.</li></ul>Suitable for: Enterprises seeking to conquer the vast oceans of procurement with a cloud-powered vessel, armed with the latest in technology and analytics, ready to streamline their procurement process with efficiency and insight.

The future of supplier management software lies in AI-powered, predictive tools that automate processes, mitigate risks, and drive strategic decisions. Expect increased user-friendliness, seamless integration, and a focus on sustainability and ethical sourcing. As businesses navigate evolving landscapes, these tools will be the compass guiding them towards resilient, purpose-driven supplier relationships.

Supplier Management Software 2024 – Comparison and the future

CADDi leverages AI to digitize drawings and procurement data, making manufacturing insights searchable by shape, text, dimensions and part names.