Why is SPI supposed to be the best design software for the sheet metal industry?SPI's sheet metal Software is the result of more than 25 years of software development for the specific demands of sheet metal design. See: Technical Terms
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Not that we don't want to discuss your special demands. But some typical questions are often similar.The most popular questions and aswers are listed below.
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Why is SPI supposed to be the best design software for the sheet metal Industry? SPI's SheetMetal Solutions are the result of more than 25 years software development for the specific challenges in sheet metal design. See: Sheet metal technology
What kind of sheet metal specific design features are available with SPI SheetMetal Solutions? SPI offers several comfortable design features e.g.:
Is there a sheet metal solution for other Autodesk applications? Yes, SPI SheetMetal is available for AutoCAD, Autodesk and for
Inventor How does SPI handle material definitions and compensation factors? During the bending of sheet metal the material deforms in the way that the flat pattern development differs from the geometric unfolding. To calculate the appropriate specific shortening/reduction, the designer has the choice between three methods: DIN or ANSI formula, user defined formula, discrete values in a shortening table.
See: AutoAnalysis l AutoUpdate of the unfolding l Collision-control l Material management Yes, since SPI SheetMetal Release 4.0 and with SPI SheetMetal Inventor this is possible. With SPI SheetMetal Inventor you can even transfer bending angles, which are larger than 360°, into a 2D-drawing without problems.
See: Unfolding l Freeform surfaces l Lofting What kind of data are created beneath the 2D drawing? SPI's one-click solid model unfolding not only leaves a flat pattern, but also provides several other results.
See: AutoDimensioning l Bending table l BOM data l cost estimation l NC-Transfer Yes, since Release 5.0 this is possible for SPI SheeMetal as well as for SPI SheetMetal Inventor.
See: Tool management Can I bend up a parametric flat geometry? Yes, since Release 5.0 this is possible.
See: Parametric bend feature One can do this using "virtual splitting".
See: Split atrributes Which sheet metal components can also be unfold with SPI SheetMetal Inventor? There are many possibilities to unfold extraordinary sheet metal components.
See: Pipes with non perpendicular cuts l cones even with axes l conversions from polygon to circular What kind of 3D import formate are supported by SPI SheetMetal Inventor? SPI supports the formats listed below: SolidWorks Parts: *.sldprt SolidWorks Assemblies: *.sldasm Parasolid: *.x_t; *.x_b; *.xmt_txt; *.xmt_bin IGES: *.igs; *.iges STEP AP203/214: *.step; *.stp ACIS: *.sat ProE Part: *.prt; *.prt*; *.xpr ProE Assembly: *.asm, *.asm*; *.xas UGII: *.prt Inventor Part: *.ipt SolidEdge Part: *.par; *.psm SolidEdge Assembly: *.asm CADKEY: *.prt; *.ckd SPI exclusivly offers the special SHARP CORNERED DESIGN which in many cases is faster than every other method. Filleting and is not neccessary.
See: Automatic filleting l Corner stamps l Filleting and Champfering Is it hard to get to know to and work with all these possibilities? No, as long as you are used to design with Autodesk or other CAD systems it is not very hard to learn.
See: Video based online help |
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Material definitions and bend compensation factors driving the unfolding process are easily input into the material management, which will calculate the precise flat geometry according to the needs of the designer. He can edit correction factor, discrete shortening values and formula calculations influenced by type and thickness of material, type of manufacturing process, bend angle and bend radius. As soon as the designer selects a material for the designed part he need not care for the behavior of the model during the bending process. The software checks the operations and displays messages in case of inconsistencies (e.g. "overlapping of material", "bending radius lower than critical minimum").
With a comfortable set of functions to design corner areas SPI saves a lot of construction-time. Corners are designed using several types. Bending angles can be different and can be modified at any time. Other parameters drive the corner reliefs. The new possibility to split corners guaranties a precise unfolding of closed boxes.
If you choose the sharp cornered design with SPI SheetMetal you need not care for the notching. The software will do. The automatic positioning of corner stamps has been enhanced now. Such stamps can be defined in the tool management. Pre-defined: round, square, rectangle, triangle, oblong, (new:) laser stamp. Reliefs of corners and flanges are defined independently from each other.
An automatic dimensioning completes the drawing.
Flanges can be created under arbitrary angles, sharp and filleted, with different automatic reliefs. As every other command these functions are controlled by an easy to use panel where the designer defines length, width, offset, bend radius, and bend relief. The option "sharp cornered" speeds up design when it is not necessary to display fillets. Even slant flanges, joggles and hems are possible.
You can use different kinds of design. The standard flange includes automatic filleting. The option "sharp cornered" speeds up design when it is not necessary to display fillets.
Create parametric sheet metal bodies from any profile! Lead off parts or whole assemblies from existing drawings or design in 3D from the beginning.
Start with a profile and extend your design by adding flanges, that can be positioned under arbitrary angles. Use the box command or use predefined flange-types. The program creates 3D Solids from arbitrary 2D profiles, that can be designed by "sweep along path". You can create complex sheet metal parts with the aid of the shelling command and use the "split attributes", which can now be used not only for corner splits but with faces (plateaus) either. With Version 4 create new sheet metal parts using sheet metal lofting between existing profiles. SPI offers AutoUpdate of the contour when the 3D model has been modified.
The bending line table offers an editable list with all the information needed to define the follow up of the forming process. With 4.0 it delivers the total length of the bending line, too.
The SPI material data appear in the bill of material if there are appropriate columns defined. After each unfold process the dimension of the unfolded geometry (width x heights) is assigned to the part data.
SPI SheetMetal provides you with a new command for the fast design of sheet metal boxes. Based on a closed profile you are asked to define length and opening angle of the flanges. The software then creates identical flanges to all edges of the initial profile. Separate flanges can be deleted - if necessary. Corners are displayed closed but are prepared to be notched automatically when you create the unfolding. Typical use: Boxes for electronic and electromechanical components and cladding panels. SPI SheetMetal provides the user with a command for the fast design of sheet metal boxes. Based on a closed profile you define length and opening angle of the flanges. The software then creates identical flanges to all edges of the initial profile. Separate flanges can be deleted - if necessary. Corners are displayed closed but are prepared to be notched automatically when you create the unfolding.
During the unfold calculation the part will be analyzed. Any problem area will be displayed or reported. Common problems detected include: overlapping of material (clash detection), bend radius lower than critical minimum bend radius (break). The initial selection of the manufacturing capabilities ensures that only the material and tools available are recommended to the designer, avoiding rejection on non-manufacturable parts and the resulting rework.
The unfold shape of cones, even with axes is generated in seconds using the SPI solution
SheetMetal Inventor.
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