Real Form Creation of Mathematical Functions Via Software and 3D Printers

碩士 === 東海大學 === 應用數學系 === 104 === This thesis studies on the processing of using 3D printers to generate the real 3D solid object corresponding to a given mathematical function. First of all, the surface object of the mathematical function should be generated by using commercial mathematical softwar...

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Main Authors: Norman Mario Pasaribu, 潘諾曼
Other Authors: Huang-Nan Huang
Format: Others
Language:en_US
Published: 2015
Online Access:http://ndltd.ncl.edu.tw/handle/77095803437114000823
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spelling ndltd-TW-104THU005070012016-08-12T04:14:45Z http://ndltd.ncl.edu.tw/handle/77095803437114000823 Real Form Creation of Mathematical Functions Via Software and 3D Printers 數學函數之3D模型建立與列印 Norman Mario Pasaribu 潘諾曼 碩士 東海大學 應用數學系 104 This thesis studies on the processing of using 3D printers to generate the real 3D solid object corresponding to a given mathematical function. First of all, the surface object of the mathematical function should be generated by using commercial mathematical software like Mathematica, Maple, Matlab, or free mathematical modeling software such as MathMod, K3DSurf etc. Later on the object file is sent to the free software Blender or Netfabb for adding the thickness to the surface with output as a STL file. Finally, the specified 3D printer’s software reads in the STL file and drives the 3D printer to form the solid object. The possible difficulties during this procedure and efficiency comparison between mathematical software in generating the surface object are also clarified such that the interested person can get in very quickly. Keywords: Geometry, 3D modeling, mathematical functions, STL file format, solid object Huang-Nan Huang 黃 皇 男 2015 學位論文 ; thesis 49 en_US
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language en_US
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description 碩士 === 東海大學 === 應用數學系 === 104 === This thesis studies on the processing of using 3D printers to generate the real 3D solid object corresponding to a given mathematical function. First of all, the surface object of the mathematical function should be generated by using commercial mathematical software like Mathematica, Maple, Matlab, or free mathematical modeling software such as MathMod, K3DSurf etc. Later on the object file is sent to the free software Blender or Netfabb for adding the thickness to the surface with output as a STL file. Finally, the specified 3D printer’s software reads in the STL file and drives the 3D printer to form the solid object. The possible difficulties during this procedure and efficiency comparison between mathematical software in generating the surface object are also clarified such that the interested person can get in very quickly. Keywords: Geometry, 3D modeling, mathematical functions, STL file format, solid object
author2 Huang-Nan Huang
author_facet Huang-Nan Huang
Norman Mario Pasaribu
潘諾曼
author Norman Mario Pasaribu
潘諾曼
spellingShingle Norman Mario Pasaribu
潘諾曼
Real Form Creation of Mathematical Functions Via Software and 3D Printers
author_sort Norman Mario Pasaribu
title Real Form Creation of Mathematical Functions Via Software and 3D Printers
title_short Real Form Creation of Mathematical Functions Via Software and 3D Printers
title_full Real Form Creation of Mathematical Functions Via Software and 3D Printers
title_fullStr Real Form Creation of Mathematical Functions Via Software and 3D Printers
title_full_unstemmed Real Form Creation of Mathematical Functions Via Software and 3D Printers
title_sort real form creation of mathematical functions via software and 3d printers
publishDate 2015
url http://ndltd.ncl.edu.tw/handle/77095803437114000823
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