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Chapter 13. Dimensional analysis of 3D-printed knuckle joint and bearing pillow block

  • Pawan Kumar Rakesh , Neel Kamal Gupta , Shaurya Bhatt , Vikas Rastogi und Inderdeep Singh
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Polylactic Acid Composites
Ein Kapitel aus dem Buch Polylactic Acid Composites

Abstract

The knuckle joint and bearing pillow block were designed on SolidWorks software. The meshing has been done to discretize the object in an element. Knuckle joint is printed by PolyJet printing technology (Objet 30 Scholar by STRATASYS). Bearing Pillow Block is printed by fused deposition modeling technology (Ultimaker2 Extended+ by ULTIMAKER). Its dimensional testing was performed using co-ordinate measuring machine (by Zeiss). The experimental results obtained showed positive and negative deviation on the 3D-printed objects as compared to actual dimensions. It was concluded that flatness is better achieved for parts produced by PolyJet technology. It was also concluded that flatness shows sufficient deviation but roundness has low deviation.

Abstract

The knuckle joint and bearing pillow block were designed on SolidWorks software. The meshing has been done to discretize the object in an element. Knuckle joint is printed by PolyJet printing technology (Objet 30 Scholar by STRATASYS). Bearing Pillow Block is printed by fused deposition modeling technology (Ultimaker2 Extended+ by ULTIMAKER). Its dimensional testing was performed using co-ordinate measuring machine (by Zeiss). The experimental results obtained showed positive and negative deviation on the 3D-printed objects as compared to actual dimensions. It was concluded that flatness is better achieved for parts produced by PolyJet technology. It was also concluded that flatness shows sufficient deviation but roundness has low deviation.

Kapitel in diesem Buch

  1. Frontmatter I
  2. Contents V
  3. Contributing authors VII
  4. Chapter 1. Processing on polylactic acid and its applications 1
  5. Chapter 2. Polylactic acid-agave fiber biocomposites: processing, properties, weathering performance, and biodegradation 13
  6. Chapter 3. Polylactic acid composite materials for packaging and the consumption of food products 31
  7. Chapter 4. Antibacterial properties of polylactic acid composites for food packaging 73
  8. Chapter 5. Barrier properties of polylactic acid 101
  9. Chapter 6. Heat-sealing properties of polylactic acid and polylactic acid composites 123
  10. Chapter 7. Reactive extrusion of polylactic acid 141
  11. Chapter 8. Surface properties of polylactic acid–based composites 163
  12. Chapter 9. Study on mechanical properties of Himalayacalamus falconeri fiber-reinforced polylactic acid composites 181
  13. Chapter 10. The fabrication process of the pine needle fiber-reinforced polylactic acid composites 217
  14. Chapter 11. Development of novel hybrid green polymer composites (HGPC) with a combination of biowaste material as fillers 227
  15. Chapter 12. Joining behavior of bio-filler-based polyester composites 257
  16. Chapter 13. Dimensional analysis of 3D-printed knuckle joint and bearing pillow block 271
  17. Chapter 14. Processing and applications of silk fiber-reinforced biocomposite for tissue engineering 289
  18. Chapter 15. The development of silk fiber-, jute fiber-, Grewia optiva fiber-reinforced biopolymer composites 303
  19. Chapter 16. Machinability characteristics of pine needle fiber-reinforced polylactic acid composites 321
  20. Index 331
https://doi.org/10.1515/9783111067285-013

Kapitel in diesem Buch

  1. Frontmatter I
  2. Contents V
  3. Contributing authors VII
  4. Chapter 1. Processing on polylactic acid and its applications 1
  5. Chapter 2. Polylactic acid-agave fiber biocomposites: processing, properties, weathering performance, and biodegradation 13
  6. Chapter 3. Polylactic acid composite materials for packaging and the consumption of food products 31
  7. Chapter 4. Antibacterial properties of polylactic acid composites for food packaging 73
  8. Chapter 5. Barrier properties of polylactic acid 101
  9. Chapter 6. Heat-sealing properties of polylactic acid and polylactic acid composites 123
  10. Chapter 7. Reactive extrusion of polylactic acid 141
  11. Chapter 8. Surface properties of polylactic acid–based composites 163
  12. Chapter 9. Study on mechanical properties of Himalayacalamus falconeri fiber-reinforced polylactic acid composites 181
  13. Chapter 10. The fabrication process of the pine needle fiber-reinforced polylactic acid composites 217
  14. Chapter 11. Development of novel hybrid green polymer composites (HGPC) with a combination of biowaste material as fillers 227
  15. Chapter 12. Joining behavior of bio-filler-based polyester composites 257
  16. Chapter 13. Dimensional analysis of 3D-printed knuckle joint and bearing pillow block 271
  17. Chapter 14. Processing and applications of silk fiber-reinforced biocomposite for tissue engineering 289
  18. Chapter 15. The development of silk fiber-, jute fiber-, Grewia optiva fiber-reinforced biopolymer composites 303
  19. Chapter 16. Machinability characteristics of pine needle fiber-reinforced polylactic acid composites 321
  20. Index 331
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Heruntergeladen am 19.10.2025 von https://www.degruyterbrill.com/document/doi/10.1515/9783111067285-013/html
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