Automate BOM Generation with OrCAD X Capture

⚙️ Simplicity meets efficiency. OpenBOM connects directly to CAD, eliminates manual tasks, and keeps engineering, purchasing, and suppliers aligned in real time. #CAD #BOM #OpenBOM 🔗 https://bit.ly/4se5qI5

⚙️ Simplicity meets efficiency. OpenBOM connects directly to CAD, eliminates manual tasks, and keeps engineering, purchasing, and suppliers aligned in real time. #CAD #BOM #OpenBOM 🔗 https://bit.ly/4se5qI5

5 signs your CAD conversion vendor is doing it wrong. Many companies outsource legacy drawing conversion to save time, but poor execution can create bigger problems later. Here are a few warning signs: 1️⃣ Models are created as dumb solids instead of parametric features 2️⃣ Assembly structure does not match real product hierarchy 3️⃣ No design intent captured in the model 4️⃣ Dimensions and tolerances from original drawings are not properly validated 5️⃣ Models are difficult to modify for future design changes CAD conversion is not just about recreating geometry — it’s about building engineering-ready models that support future design and manufacturing workflows. At N-Techworks, we believe good CAD conversion should make engineering teams faster, not create more rework. #CADConversion #EngineeringOutsourcing #MechanicalDesign #ProductDevelopment

The Hidden Cost of CAD Rework CAD rework is one of the most underestimated engineering costs.  Weak model structure and poor design intent lead to repeated edits, broken references, and revision delays. Parametric and structured modeling reduces rework risk and protects downstream changes. Better modeling strategy = lower revision cost. What is the most common cause of rework in your CAD projects? #CADRework #ParametricModeling #EngineeringEfficiency #CADWorkflow #Alibre #InfinitSolutions 

🔧 When CAD Meets Reality In CAD software, everything looks perfect. ✔ Perfect alignment ✔ Exact dimensions ✔ No friction ✔ Ideal rigid components But when the design moves from screen to shop floor, reality often tells a different story. ⚠ Misalignment ⚠ Wear & bending ⚠ Friction and vibration ⚠ Manufacturing tolerances This is why good engineers don't just design — they design for the real world. A successful mechanical design must consider: • Material behavior • Manufacturing limitations • Assembly tolerances • Real operating conditions A design that works perfectly in CAD may fail in the real world if these factors are ignored. That’s where engineering judgment makes the difference. 👨🔧 What do you think is the biggest challenge when converting CAD designs into real products? #MechanicalEngineering #CADDesign #ProductDesign #Manufacturing #EngineeringReality #DesignEngineering

Bad CAD workflow slows down engineering. ⚙️ A clean parametric design makes models easier to modify, manage, and scale. 𝐃𝐞𝐬𝐢𝐠𝐧 𝐬𝐦𝐚𝐫𝐭𝐞𝐫 𝐰𝐢𝐭𝐡 𝐀𝐥𝐢𝐛𝐫𝐞. #CADDesign #AlibreDesign #ParametricDesign #MechanicalDesign #EngineeringWorkflow #CADTips #ProductDesign #3DModeling #EngineeringProductivity #Alibre

Engineering teams know how critical accurate, detailed process documentation is needed for manufacturing efficiency With Creo+ 13.1, we've expanded functionality to make your reports more powerful and customizable: - Generate Partial Reports: create shop floor reports for selected NC steps, giving you more control over what gets documented - Toolpath Collector: easily capture which toolpaths to include for precise reporting - Fixture Parameters in Summary: add fixture details directly into your report for better clarity - Enhanced Visuals: increase the size of the Program Zero coordinate system in manufacturing model images for solid tools - Comprehensive Tool Info: reports now display parametric representation images alongside solid geometry images Why it matters - More detailed reports - Flexible reporting for selected steps - Improved clarity between design and manufacturing - Better tool information downstream These enhancements help you save time, improve accuracy, and streamline communication across teams. Try Creo to build your best designs in less time! #PTC #Creo #CAD #DigitalThread #ProductDesign #Manufacturing #ProductDevelopment #EngineeringEfficiency #CADInnovation #Documentation https://lnkd.in/dNKZhibB

Composite materials - lighter and sometimes stronger than traditionally engineered parts. But with all the benefits of composite designs, there are a lot of complexities - directionally-dependent material behavior, ply definition, data management, transitions between plies. As the ply counts grow in your design, manually adjusting any of this can become a struggle. Creo removes some of the complexities with the Transition Plies feature. Drag handles let you interactively adjust dimensions for both profile and custom transitions. A single transition definition can easily be applied across multiple transition chains at once. And when switching from profile to custom transitions, the existing offset values are preserved instead of being reset. For further control, custom transitions can be edited directly in Excel allowing you to use formulas and functions to update offsets across many pies. And when regeneration occurs, Creo will identify all failing plies and only remove the problem plies. Creo gives you greater control over composite engineering leading to faster iteration and fewer disruptions - helping you to engineer with confidence. Check out the demo below! https://lnkd.in/gX53kA2F #PTC #Creo #CAD #MechanicalEngineering #CADDesign #ParametricModeling #CADAutomation #Automation #TransitionPlies #CompositeDesign #Composites #CompositeEngineering #CompositeManufacturing #CADSkills #MechanicalEngineer #MechanicalDesign #MechanicalDesigner #ConceptDesign #ComputerAidedDesign #CADDesigner #ProductDevelopment #ParametricDesign #CADModeling #ParametricCAD #EngineeringEfficiency #CADInnovation #Manufacturing #Design

A design is not good because it looks clean in CAD. It is good because it can be built, assembled, tested, and repeated in the real world. One of the biggest lessons engineering teaches you is that digital perfection means very little if the part fails the moment it reaches manufacturing. In CAD, everything looks under control. - The geometry is clean. - The tolerances seem achievable. - The assembly fits. - The simulation looks promising. But reality asks different questions: - Can it actually be machined efficiently? - Can someone assemble it without unnecessary complexity? - Is there enough tool access? - Are the tolerances realistic for the process? - Can it be inspected, maintained, or reproduced consistently? That is where engineering becomes real. A “perfect” design on screen that creates problems in production is not a great design. It is just an incomplete one. The best engineers are not the ones who only optimize geometry. They are the ones who design with the full process in mind: material, manufacturing, assembly, validation, cost, and use case. Because in the end, the best solution is rarely the most elegant one in CAD. It is the one that works when theory meets production. Good design does not stop at “it fits.” Good design means it works beyond the screen. What has been your biggest lesson when moving from design to manufacturing? #Engineering #DesignEngineering #MechanicalEngineering #CAD #Manufacturing #DFM #ProductDevelopment #Innovation

Many manufacturers underestimate how much time is lost fixing CAD drawings. Engineering teams spend hours correcting: • Legacy models • Inconsistent standards • Missing BOM information When drawings are not structured properly, the entire production process slows down. This is why parametric, clean, production-ready CAD matters.