Designing for Metal X 3D Printing

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Designing for Metal X 3D Printing

John Nolin – Senior Technical Representative SolidXperts USA

The Markforged Metal X printing system can produce a variety of metal parts in a growing selection of alloys, but as with any production method, some part geometries will print easier, or better, than others. Design for Manufacture considerations apply for Metal X part production to be the most effective.

However, for parts where casting or machining production methods would otherwise be used, producing through the Metal X printing system can be 50-90% faster and less expensive. In many cases multiple fastened pieces can be printed as 1 part, reducing assembly and maintenance time. Also, when the standard print settings are used, a printed part will often be 20% lighter than the same geometry produced by other methods.

Something to avoid is printing part features that could be easily purchased, such as shafts, threaded rods, pins, and similar mechanical hardware items. Additionally, the Metal X supports are fully solid and do not break or dissolve like plastic or composite printed supports do. There is a ceramic release layer between the support and the finished part geometry, however, it is still preferable to avoid as much support as reasonable. For external features, this is often accomplished by using 45-degree chamfers or tapers. For horizontal hole-type features, a teardrop or diamond shape will avoid the support that would have been used for a circular or square feature.

As with any production process, there are some recommended minimum wall thicknesses and feature size dimensions that apply to Metal X printed parts. For structural soundness, the wall thickness of features should be 1.5 mm or greater, vertical holes can be as small as 1 mm, and grooves can be as thin as 0.5 mm.

It is quite possible, and in many cases recommended, to print the threads of tapped holes rather than tap them after the sintering process. Vertical threads can successfully print as small as M3 or #5-40, angled or horizontal threads should be M10 or 3/8”-16 and larger.

Printed parts can be lightly sanded or smoothed with Scotch-Brite while in the green state condition to improve surface appearance. When using the standard settings, individual feature faces can be post machined 0.5 mm in the X or Y direction and 0.3 mm in Z to achieve specific fit conditions with other parts.

Eiger does have some additional options for adjusting Metal X printing, particularly with regards to supports. However, it is certainly recommended to always use the [Internal View] mode to examine the part slicing in closer detail before sending it to the printer.

With just a little consideration of the Metal X system capabilities, some truly innovative parts can be produced in less time, at a lighter weight, and at a lower cost than might otherwise be possible. Robotic grippers, hydraulic tool components, motor mounts, and power train parts have all been produced with the Markforged Metal X printing system.

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    Enhancements in PropertyManager in SOLIDWORKS Simulation

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    Enhancements in Remote Loads/Mass PropertyManager in SOLIDWORKS Simulation

    By Sakineh Orangi – Simulation Application Engineer at SolidXperts

    In SOLIDWORKS 2019, the Remote Load/Mass PropertyManager was redesigned to improve the user experience and it introduced distributed coupling. The Remote Loads/Mass PropertyManager allows us to apply remote loads, remote masses, and remote displacements for static, topology, and nonlinear studies. One of the ways to access the Remote Loads/Mass PropertyManager is to right-click on External Loads in the simulation tree of linear static, nonlinear static, or topology.

     

     

    We select the faces to apply remote loads, remote masses, or remote translations and/or rotations.

     

     

    We define the coordinate system used for the interpretation of the location and directions of the remote features.

     

     

    After this step, we enter the coordinates of the reference node location in a local or global coordinate system.

     

     

    In the case of the definition of remote force or remote distance, we check the Translational Components and enter the values of remote loads or remote translation in the three directions X, Y, and Z.

     

     

    If there are any remote moments or remote rotations, we check Rotational Components and then enter the data.

     

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    Learn more about everything new in SOLIDWORKS from 2015 to 2019 by downloading our White Paper.

    To learn more about SOLIDWORKS Simulation, click here.
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      7 Essential Markforged Composite Features

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      7 Essential Markforged Composite Features

      written by Steven Murphy – Certified SOLIDWORKS Expert (CSWE)

      Markforged transformed the 3D printing industry back in 2013 with the ability to create functional industrial parts. While this 3D printing powerhouse innovates with metal 3D printing, we want to take a moment to recognize the powerful features offered by the composite printers that keep them at the top of the FDM world. Here are our top seven Markforged composite features:

       

      1. Fiber

      This is the go-to innovation for the Markforged printers – the ability to print with Continuous Fiber Filament (CFF) using Fiberglass, Kevlar, and everyone’s favorite, Carbon Fiber.

      Impact:

      3D printed parts 8x stronger than ABS with comparable traits to 6061 Aluminum unlocks design possibilities. Lighter parts with low cost and fast production can be a valuable proposition for many manufacturers. This feature single-handedly allows 3D printing to be a comprehensive solution rather than a prototyping tool.

       

      2. Expand Thin Features

      What exactly does “Expanding Thin Features” do? Enabling this feature will thicken your part geometry to meet the minimum wall thickness requirements of the printer. It will automatically take any layer that is too thin to print and  adapt it to meet the minimum requirements. Easily overlooked as it only takes one click to activate, you can see the part salvaged in the slice views below!

      Impact:

      This feature really excels at taking parts not designed for additive manufacturing and adjusting their geometry to be 3D-pintable. You need to be careful when using this feature as changing the geometry does not maintain the dimensional accuracy of the original CAD model. The major upside is that the majority of legacy parts can be printed on Markforged printers without any major redesign. This level of automation and intelligence is a huge jump in innovation in an otherwise stale industry.

       

      3. Pause & Remove the Print Bed

      The print bed itself is fastened by three neodymium magnets, allowing the user to remove the build plate during any layer. This also means that you can replace the print bed and continue the print from where you left off. This process has a repeatability of 10 microns,  meaning there are no issues in continuing the print from the new position.

      Impact:

      Being able to pause and remove the print bed opens up many design options such as embedding hardware or enclosing secondary parts (eg. LED, magnets, or RFID). The repeatability and consistency of the print bed enables many tricks and are well documented in the Markforged blogs.

       

      4. Adaptive Bed Leveling (X7)

      The X7 Industrial printer utilizes a built-in laser micrometer to create a contour map of the print bed with 1µm accuracy. While it will alert you to the bed not being leveled correctly, more importantly, the printer will dynamically adjust the extrusion of the first layer to increase the consistency of your print.

      Impact:

      The application of the laser measuring system eliminates many of the bed leveling issues that occur with standard FDM style printers. Not only are the parts flatter than traditional FDM printers, but the initial compensation means significantly fewer failed prints.

       

      Bonus: Blacksmith

      Check out the Blacksmith AI that takes advantage of the same laser micrometer to adjust the physical part based off of inspection results. The end result is a tight feedback loop that makes extremely accurate parts that become more accurate over time.

       

      5. Turbo Print & Turbo Supports [BETA Features]

      The Turbo BETA features allow for support and infill to be printed at twice the layer height of the print. By taking advantage of the support structure, Markforged has increased opportunities to save time and material on your prints.

      Impact:

      The turbo features allow for faster print times and reduces material. Fundamentally, it shows that Markforged is committed to improving and implementing solutions. They are willing to continuously improve their product, and will continue to add BETA features.

       

      6. Eiger Dashboard

      With a versatile cloud based software, there many metrics tracked for your convenience. The Eiger Dashboard allows for both management and users to track printer statistics such author and material usage.  Not only does the portal include integrated graphics, but the data is also available as a CSV.

      Impact:

      In traditional manufacturing, material and time management are a huge part of resource management. Using Eiger, it is incredibly easily track material usage, up-time, and other valuable metadata to make your operation more efficient.

       

      7. Eiger Internal View

      With the Eiger “slicer”, users can view the internal features of your part in both 2D and 3D. These views also include the thermoplastic structure, infill, use of fiber, and removable supports. Additionally, the slicing view includes a live slider, which reflects print time and material usage by layer. The best feature when using the internal view is the ability to add and adjust fiber layers (blue sections).

      Impact:

      When enabling fiber usage in Eiger, the standard automation of fiber reinforcement does an exceptional job. However, the ability to control fiber layer placement gives you, the user,  the option to add strength to the part without overcompensating with fiber or increasing unnecessary part cost. With clever orientation and fiber layouts, you can create very strong, yet cheap parts! Need bolt holes strengthened to resist shear stress? No problem! Want to take advantage of beam bending theory to reduce cost? Takes only a few clicks. This adaptability and maneuverability in the internal view make this one of the highest impacts features with the Markforged printers.

      Try Eiger for free! 

       

      Conclusions:

      So there you have it – The key features Markforged composite printers have to offer. Even though FDM style printing is a known quantity, Markforged has managed to innovate on key features that keep the technology fresh.

       

      For more information, contact an Xpert today!

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        Better integration of SOLIDWORKS Electrical for SOLIDWORKS PDM

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        Did you know that a better integration of SOLIDWORKS Electrical for SOLIDWORKS PDM is now available?

        SOLIDWORKS provides you with a new tool: SOLIDWORKS Electrical integration for Professional SOLIDWORKS PDM 2018. SOLIDWORKS Electrical Integration for SOLIDWORKS PDM is a new SOLIDWORKS Electrical component that implements a better integration with SOLIDWORKS PDM Professional.

        SOLIDWORKS Electrical Integration for SOLIDWORKS PDM is a free product that will be available to customers using SOLIDWORKS Electrical 2D and SOLIDWORKS PDM Professional.

        SOLIDWORKS Electrical Integration for SOLIDWORKS PDM is being released with SOLIDWORKS Electrical 2018
        The most important functionalities of this tool are:

        • SOLIDWORKS Electrical users will obviously be able to store their projects in SOLIDWORKS PDM from within SOLIDWORKS Electrical.
        • Allow the work-sharing between users.
        • Variable mapping between both products so that key electrical metadata can be made available in SOLIDWORKS PDM.
        • Electrical components libraries will be pushed and synchronized to SOLIDWORKS PDM
        • “Where Used” information will be available.
        • This product will also manage electrical deliverable files, such as PDF and DWG.
        • It will also publish an advanced electrical Bill of Material (BOM) to SOLIDWORKS PDM.

        Installation, administration and users guide will be installed in the installation folder of SOLIDWORKS Electrical integration for Professional SOLIDWORKS PDM 2018.

        Once SOLIDWORKS Electrical integration for Professional SOLIDWORKS PDM 2018 was installed in SW Electrical, you must define some parameters in the administration of the tool.

         

         

        You will beforehand have created a folder structure in your PDM vault to host your 2D SW Electrical projects, and logs, as well as a Library folder for synchronization of SW Electrical.

        In the tab General Settings:
        Choose your Vault and the library folder in your vault.

        In the tab Log Settings:
        Define the folder of logs inside the vault, as well as its options.

        In the tab File Structure:
        According to SOLIDWORKS Electrical document types, you can make some Mapping.

        To start the collaboration of SOLIDWORKS Electrical integration and SWPDM.
        Since you are Project Manager:
        Unarchive and open your SW Electrical project
        (Files *.tewzip)

        Work on your project as usual, when ended.
        Make a synchronization of your library towards PDM,
        by using Synchronize Libraries.

        And make Check-in:

        As asked, select the parent file of your project.

        A table showing all the files which will be archived will appear, click Add.

        Let the process make the creation of all the objects of your project (it can take some time).

        Once the process is completed; you will notice that the structure of your project SOLIDWORKS Electrical was duplicated in PDM. by adding a folder BOMS.
        and creating a .pdf file of your complete drawing package.

        SOLIDWORKS Electrical

        Local PDM view

        SOLIDWORKS Electrical


        Local PDM view

        You will also notice the creation of all your drawings in .dwg format.

        All the PDM tabs will be accessible. You can even design a specific card for your SOLIDWORKS Electrical projects.

        As well as file cards which will inherit some properties of their folder card.

        In the folder BOMS; you will find all the bills of material for your project. It will be possible for you to open and export your BOM throw Excel such as any other BOM in PDM.

        By choosing a file of a BOM (Click + right button of the mouse) to obtain the options such as: Browse to, allowing to go to the localization of the library parts.

        This new tool will allow better collaboration between your electric and mechanical engineering departments. If you have any questions just contact one of our Xperts.

        On the same subject, take a look at the video produced by SOLIDWORKS:

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          PDM: Using conditional transition notifications in a workflow.

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          PDM: Using conditional transition notifications in a workflow.

          By Pascale Brouillette – Data Management Specialist at SolidXperts

          Conditional notifications can be used during a transition to notify different groups or users according to certain criteria:

          – Types of documents

          – Data card variables
          These notifications can be sent in a predefined or dynamic way.
          Here is the methodology for conditions according to SOLIDWORKS document types (file path):

          1 – PDM Administration Tool > Work flow > Open :

          2- Workflow Transition > Properties :

          3- Notifications tab > Add Conditional Notification :

          4 – Tab Recipients

          – Add Users/Groups :
          Select groups that must receive the notifications

          – Add Variable :
          You can use a data card variable as a notification trigger.

          5 – Notifications tab > Notification Conditions

          < Click here to add a condition >

          – Variable
          For the example: The file path

          Value / For the example: enter the file path

          – Comparison
          For the example: Text equal to

          The list of operators depends on your selection in the previous step

          2D App / to approve drawings

          3D App / to approve models

          In the end, for this example, you will have two groups of notification recipients

          6 – Test: A set of documents have been changed stated by a designer.

          7 – Results: Notification Received by members of approved 3D & 2D groups.

          Don’t hesitate to contact us if you have any questions.

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            Third-party Files Available for Import as Graphics Bodies

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            Third-party Files Available for Import as Graphics Bodies

            By Gregory Bejtlich – Application Specialist at SolidXperts

            Following the release of SOLIDWORKS, users can now import third-party files as graphical 3D meshes rather than solid or surface bodies. Previous releases were limited to the mesh file types *.stl, *.obj, *.off, *.ply, *.ply2. Changes for 2019 also include the addition of a ‘Graphical Body’ check box from the ‘Open’ dialog.

            Importing as a graphics body can be very useful for manual remodeling or taking specific measurements. Additionally, importing as a graphics body utilizes significantly fewer resources when opening large or complex files.

            To access this feature, follow the steps below.

            Import as a Graphical Body can be accessed with File > Open (Ctrl + O) or Insert > Component > Existing Part/Assembly within an assembly.

            Using the file format drop list, select any third-party format such as Autodesk Inventor (*.ipt) or ProE/Creo (*.prt)

            Unlike importing mesh files, users are no longer required to enable the Graphics Body through the options menu. SOLIDWORKS now includes an “as Graphical Body” check box below the file explorer. Select the check box and click ‘Open’.

            The Inventor Part (*.ipt) is now imported as a Graphical Body. Notice the feature tree displays the part not as a surface body or solid body – but as a Graphic Body.

             

            Contact Us if you have any questions.

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              Broken-Out Section View in a Drawing

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              Broken-Out Section View in a Drawing

              When creating a broken-out section view of a drawing, it is possible to set the depth of the cut according to a numerical value. But did you know that it’s possible to select an edge on another view to define the depth? Or that you can put your 3D drawing in temporary 3D view mode and select the depth on this one? Continue reading “Broken-Out Section View in a Drawing”

              How to create a multi-body sheet metal part from a solid geometry

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              How to create a multi-body sheet metal part from a solid geometry

              The sheet-metal module included in SolidWorks allows us to create different types of consumer products that are part of our daily lives.

              Continue reading “How to create a multi-body sheet metal part from a solid geometry”

              Welded Constructions with the SOLIDWORKS Structure System

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              Welded Constructions with the SOLIDWORKS Structure System

              From the 2004 version of SOLIDWORKS onward, the welded construction function speeds up the creation of assemblies because it allows the representation of assemblies without having to create multiple individual files. But, there is more since version 2019.

              The new “Structure” function allows the creation of welded constructions in a different way. It is not necessary to draw a path for each profile. For example, it is possible to create a starting profile (“Primary Element”) from:

              – From 4 planes;

               

               

              – Of a path element (a bit like welded construction);

              – By defining a length by selecting only one point (note the absence of a sketch in the requested selection);

               

               

              – By defining an intersection between a face and a plane.

               

               

              So, with a few clicks, you can define a structure, including corner treatment:

               

               

              You can then modify the created structure (in one function!) to change the profiles of certain elements:

               

               

              Following the creation of the external shape of the frame, reinforcements or other elements must generally be attached to it. As mentioned above, creation methods using entities other than sketch segments can be used. For so-called “secondary” elements, using the selection of two existing profiles, two methods are possible:

              – Supporting Plan Element” uses an existing plan to position the newly created profile.

               

               

              Activating chain selection allows the automatic creation of element pairs when two entities are selected.

              – Between point elements.

              This method has two ways of working, using either distance or length ratio.

              The first allows the definition of two distances from the starting point of the profiles:

               

               

              We can see on the screenshot above that despite the two equally defined distances, the profile is at an angle. The reason for this is that the dimension is defined by the starting point of the profile, which corresponds to the starting point of the sketch, i.e. at the top of the structure for the profile on the left of the screenshot and at the bottom for the profile on the right:

               

               

              Just click on the appropriate icons to reverse the directions and thus obtain a secondary profile perpendicular to the primary profiles.

              Ratios (whose value must vary between 0 and 1) of length relative to each previously selected element can also be used. In this way, always taking the direction into account, it is easy to create a spacer that would be on one side at the upper third of a profile and at the lower third on the other.

               

               

              As for the creation of a drawing, the operation is the same as for a welded construction.

              All in all, even if you are already using welded construction, this new working method can be confusing at first, but you quickly get used to it and learn to appreciate the lightness of the creation tree it produces. Moreover, just like the welded construction, the result produced is compatible with the BeamCutXperts beam optimization tool.

              For more information visit our SOLIDWORKS product page, or consult an Xpert!

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                3D modeling for additive manufacturing

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                3D modeling for additive manufacturing

                  Repair Resolution –
                 You might be an engineer – if, you fix broken fitness equipment with CAD and 3D printing. This case study shows just how that was done. It starts with a budget water rower exercise machine that had arm failures in the resistance paddle which spins inside the water tank. The machine had been purchased early in the year and the paddle arms failed by December.

                Note that the arms of the original paddle broke off where the plastic transitions from a thinner beam profile to the larger hub. Of course, it could have been predicted by using SOLIDWORKS Flow, Plastics, or Simulation software, but that discussion will be saved for another article.

                For the moment we will focus on designing and producing a 3D printed replacement paddle that is more similar to the design used  in expensive health club water rower machines.

                The commercial grade water rower has single mixing paddle design that extends across the diameter of the tank. There are openings between the shaft hub and the scoop ends, but the paddle has solid plastic arms at the top and bottom of the water tank. The budget rower was connected only at the bottom of the water tank leading to increasing offset dynamic loads as athlete exertion increases.

                Although the original design paddle diameter of 18 inches is larger than many 3D printer print volume dimensions, it was possible to get 16 inches diagonally across the build plate. Adjusting the width of the working portion of the paddle and having the solid section on top allows the surface area displacing the water to be similar between the 3D printed design and the injection molded paddle.

                By using a pattern of triangle and diamond shapes for the open section, the replacement paddle can be printed without support.Chamfers are used for edge breaks around the edges and openings for better flow characteristics while still being easy to print.

                The original paddle had a pressed and brazed connection between the paddle and rower shaft, and this has been replaced with a pentagon shaped hole to allow for screw fastening to the shaft.

                For strength Markforged Onyx filament is used which is a carbon and nylon blend. The wall passes are increased and gyroid infill is used along with maintaining the full paddle width through the paddle cross section.

                Disassembly of the original paddle from the rower was a bit involved, requiring drilling and a gear puller to get the shaft clear to accept the printed replacement.

                 

                Some additional drilling and bolting allowed the new paddle to be installed on the rower shaft.

                With a slight adjustment of water volume in the tank, the 3D printed replacement paddle provides the same resistance and workout as the when the machine was new.

                Water flow is different with the replacement paddle but the workout is the same. And the repair is done in time for a new year of health resolutions.

                John Nolin

                Senior Applications Engineer

                SolidXperts

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