Print3D help: Difference between revisions

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==Generating printable files on Proteopedia==
==Generating printable files on Proteopedia==
Proteopedia integrates a dedicated '''Print3D''' tool within each molecular scene, enabling logged users to effortlessly generate 3D-printable molecular models directly from its pages. The tool is powered by [https://github.com/mariusmihasan/3DP-Jmol '''3DP-Jmol'''], a script that analyzes the structural data and automatically scales the model’s geometry to match the printable volume of a medium-size desktop 3D printer (e.g., Ender-3, 210×210×210 mm). During this process, the tool evaluates the molecular bounding box, atom radii, and bond lengths, then proportionally adjusts all dimensions to achieve a realistic and mechanically robust print scale — preserving scientific accuracy while ensuring manufacturability. For advanced users, [https://github.com/mariusmihasan/3DP-Jmol '''3DP-Jmol'''] may also be used in conjunction with the [https://jmol.sourceforge.net/ '''Jmol'''] program, providing full access to its scripting capabilities and advanced export features.
Proteopedia integrates a dedicated '''Print3D''' tool within each molecular scene, enabling logged-in users to effortlessly generate 3D-printable molecular models directly from its pages. The tool is powered by [https://github.com/mariusmihasan/3DP-Jmol '''3DP-Jmol'''], a script that analyzes the structural data and automatically scales the model’s geometry to match the printable volume of a medium-size desktop 3D printer (e.g., Ender-3, 210×210×210 mm). During this process, the tool evaluates the molecular bounding box, atom radii, and bond lengths, then proportionally adjusts all dimensions to achieve a realistic and mechanically robust print scale — preserving scientific accuracy while ensuring manufacturability. For advanced users, [https://github.com/mariusmihasan/3DP-Jmol '''3DP-Jmol'''] may also be used in conjunction with the [https://jmol.sourceforge.net/ '''Jmol'''] program, providing full access to its scripting capabilities and advanced export features.
==Step-by-step guide for automatic generation of printable files on Proteopedia==
==Step-by-step guide for automatic generation of printable files on Proteopedia==
=== Open a structure and access the '''Print3D''' tool ===
=== Open a structure and access the '''Print3D''' tool ===
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You can use the mouse to rotate, zoom, and inspect the model from different angles. If the result meets your needs, click the green (A) '''Download files''' button and save the compressed '''.zip''' archive containing the '''.STL''' or '''.OBJ''' files on your computer. If your model needs further improvements, hit the green (B) '''Same structure''' button to return to the previous screen and adjust your settings.
You can use the mouse to rotate, zoom, and inspect the model from different angles. If the result meets your needs, click the green (A) '''Download files''' button and save the compressed '''.zip''' archive containing the '''.STL''' or '''.OBJ''' files on your computer. If your model needs further improvements, hit the green (B) '''Same structure''' button to return to the previous screen and adjust your settings.


maybe a movie is better- need to decide ?


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== Other relevant resources ==
== Other relevant resources ==
[Print3D_models_gallery] - examples of 3D printed molecular models from Proteopedia users.
[https://proteopedia.org/w/Print3D_models_gallery Print3D Models gallery] - examples of 3D printed molecular models from Proteopedia users.


[https://3d.nih.gov/ NIH 3D Print Exchange] - an open, community-driven portal to download, share, and create bioscientific and medical 3D models, including for 3D printing.
[https://3d.nih.gov/ NIH 3D Print Exchange] - an open, community-driven portal to download, share, and create bioscientific and medical 3D models, including for 3D printing.