Methods for optimizing additive technologies using the example of loaded plastic products

The article describes the development of methods for optimizing additive technologies (FDM printing), taking into account the loads acting on the body in question, in order to save materials and reduce production time, within the framework of robotics, shipbuilding and the development of water, land and air drones. An analysis of existing modification methods to strengthen models was carried out. Various methods of modifying 3D models for printing have been tested. Based on the tests, a universal method for strengthening parts for three-dimensional printing was proposed and developed. The method is based on the principle of creating spherical cavities inside the part in place of the most loaded areas of the part, which then, when creating G-code programs for the printer, will be surrounded by outer plastic walls, creating a seal inside the part. Inventor and Ansys stress analysis and topology analysis are used to identify areas requiring optimization, based on the results of which 3D models of the most loaded areas, or models of areas requiring reinforcement, were created. A software and hardware complex has been created for modifying three-dimensional models for 3D printing and a software has been developed to automate the main parts of the processing technique for finished parts - creating cavities based on a three-dimensional model of loaded zones.

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Publication Details

Journal
Russian Journal of Water Transport
Published
2024-09-19
DOI
https://doi.org/10.37890/jwt.vi80.509
Primary Topic
Additive Manufacturing and 3D Printing Technologies
Type
article
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article

Methods for optimizing additive technologies using the example of loaded plastic products

Nikita M. Prokopenko
1 links
Russian Journal of Water Transport
Additive Manufacturing and 3D Printing Technologies
article

Methods for optimizing additive technologies using the example of loaded plastic products

Nikita M. Prokopenko
article en

Abstract

The article describes the development of methods for optimizing additive technologies (FDM printing), taking into account the loads acting on the body in question, in order to save materials and reduce production time, within the framework of robotics, shipbuilding and the development of water, land and air drones. An analysis of existing modification methods to strengthen models was carried out. Various methods of modifying 3D models for printing have been tested. Based on the tests, a universal method for strengthening parts for three-dimensional printing was proposed and developed. The method is based on the principle of creating spherical cavities inside the part in place of the most loaded areas of the part, which then, when creating G-code programs for the printer, will be surrounded by outer plastic walls, creating a seal inside the part. Inventor and Ansys stress analysis and topology analysis are used to identify areas requiring optimization, based on the results of which 3D models of the most loaded areas, or models of areas requiring reinforcement, were created. A software and hardware complex has been created for modifying three-dimensional models for 3D printing and a software has been developed to automate the main parts of the processing technique for finished parts - creating cavities based on a three-dimensional model of loaded zones.

Russian Journal of Water Transport(80)
Openalex Percentile: Top 83%
Additive Manufacturing and 3D Printing Technologies
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