Whether you’re designing a bridge, a bolt, or even a 3D print, understanding how forces act on your design is everything. Tension pulls it apart. Compression squeezes it down. Bending stretches one side while squashing the other. Shear slides one layer over another. Torsion twists it till it cries “enough!” Designing with these in mind isn’t just theory. It’s what keeps airplanes in the sky, buildings standing, and prototypes from snapping mid-test. Understanding how materials respond under stress is what turns good designs into lasting ones, and failed experiments into valuable data. #MaterialsEngineering #MechanicalDesign #StrengthOfMaterials #Manufacturing #EngineeringEducation #STEM #DesignThinking #Innovation #FailureAnalysis #Manufacturing #DesignEngineering #MechanicalDesign #AdditiveManufacturing #Research
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Laser cutting starts with a design created in a CAD system, where the shape of the product is drawn digitally. That design is then converted into a machine-readable format, usually containing the exact coordinates the laser needs to follow. Once the program is prepared, it’s sent to the cutting machine, where operators set the right cutting parameters such as speed, power, and focus depending on the material. With everything ready, the machine begins the process: the laser beam precisely cuts through the material, following the programmed path. The cut pieces are then formed into the desired shape, and after finishing touches, the final product emerges, a sleek card holder. Laser cutting is valued because it’s highly accurate, can handle complex shapes, and leaves a clean edge without much need for extra finishing. It’s widely used in industries ranging from manufacturing and automotive to fashion and design, making it a versatile technology. #laser #lasercutting #cardholder #forming #lightpressings #smallordersprings
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We did something to this part. Can you spot it? 👀 (spoiler: we gave it TEXTURE) This lens visor got functional surface textures added in GrabCAD Print Pro in about 30 seconds. From texture application to finished print: under 3 hours total. The process:→ Applied moire radial grid texture with cylindrical projection → Sent to Stratasys F370 printer → Printed in ABS with minimal support material → Done Time saved vs. CAD rework: Hours to days This is the shift from "send it back to design" to "print it now." Engineers can iterate on functional surfaces during print prep instead of waiting in design queues. Real applications: Grip patterns on tooling • Anti-slip surfaces on jigs • Aesthetic finishes • Custom brand textures When you eliminate the CAD round-trip for surface modifications, you compress lead times. That's what texture does. Try it yourself: https://okt.to/QoUaMu What surface modification usually sends you back to CAD? 👇 #AdditiveManufacturing #3DPrinting #GrabCAD #Manufacturing #Formnext #Stratasys #Engineering
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ExactFlat | Scan to Pattern Workflow ExactFlat offers a faster, better, and easier way to create accurate patterns for any product — across any industry. The workflow is simple: 1️⃣ Scan your part using Peel 3D or another compatible scanner. 2️⃣ Convert to CAD — clean, align, and prepare your 3D model. 3️⃣ Flatten from 3D to 2D — generate production-ready patterns with seams, notches, and allowances automatically. Used in furniture, composites, marine, and protective gear manufacturing, this workflow increases productivity while reducing waste. Learn more about how Scan-to-Pattern transforms your production line: 🔗 https://lnkd.in/gGBwDy8w #ExactFlat #ScanToPattern #3Dto2D #DigitalPatternMaking #Composites #FurnitureDesign #MarineDesign #SmartManufacturing #CAD #Automation #EngineeringDesign #ProductDevelopment #ExactFit
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Ever noticed how your pen cap or battery lid locks perfectly with a ‘click’? That’s the magic of Snap Fit design — one of the most efficient and elegant ways to assemble plastic parts. In this exclusive FREE tutorial, learn how Snap Fits (Integral Attachment Features) are modeled, analyzed, and optimized in CAD. From cantilever to annular types, get hands-on insight into how flexible design meets precision engineering. Perfect for students, designers, and anyone passionate about plastic part design and product assembly. Ready to upskill? 👇 Watch the full tutorial — link in the comments! #SnapFitDesign #CATIAV5 #ProductDesign #PlasticParts #CADLearning #DesignGyan #EngineeringCommunity
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Vacuum casting is a game-changer when it comes to replicating existing parts without the need for CAD drawings or complex models. The process begins by creating a mold from the original part, often using silicone, which captures even the finest details. Once the mold is made, liquid resin is poured in under vacuum pressure, ensuring a high-quality replica with excellent surface finish and precision. This method is perfect for producing low-volume prototypes or spare parts quickly and cost-effectively. No CAD design? No problem—vacuum casting lets you copy parts easily, speeding up prototyping and reducing costs. #VacuumCasting #Prototyping #ManufacturingInnovation #3DPrinting
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Great design isn’t just about function. It’s about manufacturability. Here are a few quick ways to make your next CNC project smoother: 1️⃣ Avoid deep, narrow pockets that limit tool access. 2️⃣ Keep wall thickness consistent to reduce warping. 3️⃣ Choose radii that match standard cutter sizes. 4️⃣ Specify tolerances only where they matter. 5️⃣ Share 3D models early to catch challenges before quoting. At Pivotal, we work with engineers every day to balance precision and practicality. Small design tweaks can mean big gains in cost, speed, and consistency. Learn more about our precision CNC capabilities → www.pmimn.com #metal #material #process #manufacturing #qualityengineering #innovation #precisionmanufacturing #industrialsolutions #value #engineeringexcellence #reliability
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This is what innovation looks like in motion. Our 3D Concrete Printer at work, building structural elements layer by layer, directly from a digital design. Every movement here is data-driven , precision-engineered to print faster, cleaner, and stronger. From layer height to print speed, every parameter defines the future of construction! #MiCoB #3DConcretePrinting #LetsPrintTheFuture #DigitalToPhysical #ConstructionTechnology #ConcreteInnovation #FutureOfConstruction #SmartConstruction #FutureOfBuilding #SustainableConstruction #MadeInIndia #InnovationForIndia
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Why is ExactFlat more accurate than other CAD flattening tools? Because it gives manufacturers control over fabric behavior — not just geometry. With our Target Strain feature, you can define how much tension or looseness you want in each pattern piece: Neutral pieces: no pull, no sag — perfect fit. Tight pieces: a bit of tension to shape and stretch. Loose pieces: add sag where needed for comfort or drape. And here’s what sets ExactFlat apart: ✅ Global Target Strain — apply controlled strain across the whole surface. ✅ Local Target Strain — fine-tune strain only where you need it. ExactFlat is the only solution that gives you both. That’s why our patterns fit better, assemble faster, and perform exactly as designed. Want to see how it works? Get a demo → https://lnkd.in/gGBwDy8w #ExactFlat #DigitalPatternMaking #3Dto2D #CADDesign #PatternAccuracy #ManufacturingInnovation #UpholsteryEngineering #AutomotiveDesign #MarineDesign #FurnitureDesign #CompositeDesign #SoftGoodsDesign #Rhino3D #SOLIDWORKS #ManufacturingEfficiency
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The Vernier caliper is a masterpiece of design, but it's not foolproof. Relying on it without understanding its limitations can lead to costly measurement errors. While incredibly reliable, its analog nature introduces specific challenges that every user must overcome. Knowing them is the first step to mitigating them. Here are the primary drawbacks: ⚠️ Parallax Error: This is the most common pitfall. If you view the sliding scale from an angle instead of straight-on, the lines will appear to align incorrectly, leading to a false reading. 🔹 Skill-Intensive: Unlike a digital display, it doesn't give you the answer. It requires practice and a trained eye to quickly and accurately read the main scale and interpolate the correct Vernier graduation. 🔹 Slower Operation: The process of reading, interpreting, and calculating the final measurement is inherently slower than glancing at a digital screen, especially for less-experienced users. 🔹 Lower Resolution (vs. Micrometers): While precise to 0.02mm or 0.05mm, it cannot match the finer resolution of a micrometer, which is necessary for extremely tight tolerance work. The solutions are rooted in discipline and training. Always view the scale perpendicularly to avoid parallax. For high-speed, repetitive checks, a digital tool or a dedicated gauge might be a better fit. What's the most common reading mistake you've seen (or made!) when using a Vernier caliper?
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🎙 SWOOD consolidates both design and machining processes into one platform. Into one interface. Working alongside SWOOD enables our customers to be a lot more efficient from screen to machine. 🎙 - Paul Willsher, Biesse SWOOD makes it easy for designers to bring their 3D projects to life. During last year's Biesse event, our partner Solid Solutions demonstrated how seamlessly SWOOD integrates with Biesse’s advanced machines, making it effortless to transition from design to production. 💡 It was amazing to see SWOOD in action, enabling the efficient production of any 3D project on Biesse equipment. Big thanks to Biesse and Solid Solutions for helping us showcase this innovation and teamwork to industry pros! 🤝 Discover more about SWOOD CNC compatibility here 👉 https://bit.ly/4kBns4g #SWOOD #SolidWorks #SolidSolutions #Biesse #Woodworking #CNC
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