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Mass Production of Injection-Molding Chris Miller, Collin Swick, David Mason, Greg Weaver, and Jordan Hites
Introduction The scenario we were presented was one where our company is losing market share because of the inability to turn out a good product and management has come to our department to redevelop the product from the ground up. The tasks assigned to us included the planning, designing, construction, mass production of, and testing of an item.  The production of the item, we decided upon, would need to produce at least 100 pieces of said item by using an injection molding machine. These produced items would then be considered for retail sales.
Initial idea for retail Our initial idea for retail was to mass produce poker chips.  We chose poker chips, because we thought it would be something that we could not only produce efficiently but also use after we had produced them. Additionally, poker chips are used in abundance around the world, not only by casinos, but by everyday consumers, organizations, families, etc. This makes the rationale behind our idea for mass producing poker chips good because there is plenty of room in the market for more chips to be produced.
Initial idea for retail We decided to use a combination of different plastic polymers to achieve the qualities of most regulation-size plastic poker chips that are produced by companies in the market. In order to achieve the desired qualities, we would have to mix, produce, and test the different combinations using a hardness tester and a Tinius Olsen machine. The mold we decided to produce for the production of our poker chips would be made out of aluminum, and the desired approximate dimensions of the poker chips we would produce would be 40mm in diameter, 3mm in thickness, and 5-7g in weight.
Initial drawings Design #1 Design #2
PROJECT PLANNING
Mechanical Design Finished Mold with Sandblasted Pattern Finished Poker Chips
Initial mechanical drawings Poker Chip Design in CATIA Initial Mold Design in CATIA
Final mechanical drawings Final Chip Design in Pro Engineer Final Mold Design in Pro Engineer
Initial production process
Injection process Material used 60% polyethylene / 40% polypropylene Software Used/Electronics Used Initial drawings: CADD, Windows Picture and Fax Viewer, & Snagit Project planning: Microsoft Office Project & Snagit Mechanical drawings: CATIA, Snagit, Pro Engineer Mold designing: Corel Draw
Tooling and machining & Material required to make change Tooling and machining Mold machining: Delta horizontal band saw, Delta drill press, Trump vertical mill, Cincinnati Milacron Sandblaster Mold designing: Universal Laser Systems laser engraver Production: Cincinnati Milacron injection molder & KUKA KR3 robot Material 5”x4”x0.625” aluminum stock Polyethylene – Virgin pellets, D=1380 kg/m3 Polypropylene – Virgin pellets, D=0.9 g/cm3
Testing process Hardness Testing Average hardness number of 60% polyethylene and 40% polypropylene mixture = 103 Young’s Modulus For 60% polyethylene, 40% polypropylene mix:
A thorough analysis of the project The aluminum mold we produced for the production of our plastic chips was milled with great accuracy and precision. Additionally, the sandblasted pattern design was added to the mold very well. Likewise, the settings we finalized on using for the injection molding machine were very precise as well.  This led to the production of poker chips that had very little flashing problems and had surfaces that were smooth and flat, with no noticeable inconsistencies.
A thorough analysis of the project There were some things that could have been done differently, however, if we were to complete the entire process for mass producing plastic poker chips again. First, a better followed timeline and schedule for the different phases of the poker chip development process would have led to our ability to produce even more poker chips by the stated deadline. Another thing that was not ideal in our poker chip development process was that we were only able to test for hardness and tensile strength values.  If we would have been able to test for compression, shear, and other values, it would have given us a more complete tool to evaluate our final product.
A thorough analysis of the project Our group found this project to be very involving and a great learning experience.  We found its weaving of product manufacturing, solid modeling, and quality assurance into nonmetals to be not only an educational but very practical endeavor.  We would highly recommend the repetition of this project for at least the next few following years.
Recommendations to management The following are the settings used on the injection molding machine to optimize the mass production of regulation-sized poker chips. Clamp Close Fast   3.00 Clamp Close Slow  1.20 Clamp Open Limit6.00 Open Speed Fast    2.75 Actual Clamp Position	    6.02 Tonnage		33.00 Ejector Forward Speed	    3.00 Ejector Dwell Timer	    5.00 Retract Speed  2.10 Nozzle Temperature	475.00 Zone 1 Temperature	450.00 Zone 2 Temperature	450.00 Zone 3 Temperature	440.00 Injection High Time	4.00 Pack Time		 3.00 Hold Time		 4.00 Cooling Time		12.00 Shot Size		    0.50
Future considerations For future considerations of a project of this magnitude it would be best to perhaps actually incorporate robots into the production process to see how it would affect total cycle times. While our cycle times were relatively low when the injection molding machine was running effectively, they most likely could have been vastly improved with the use of robots. One way the robots could have been utilized would be to have them remove the completed chip part as the machine was moving out to wait for another cycle to begin. This would have allowed for the chip to be removed more quickly and for another cycle to begin, allowing production numbers to increase.
Future considerations Additionally, the production process could have been improved, and production times lowered, if we had produced a poker chip mold that included space for two chips to be made each cycle. There was sufficient room on the piece of aluminum to mill another poker chip cavity, therefore two could have been produced for each cycle the injection molding machine made.
Future considerations Another future consideration for this type of project would be to possibly experiment with limited production runs of more exotic nonmetallic materials. With the use of more exotic nonmetallic materials possibly mixed with traditional plastic polymers, as opposed to only the use of traditional plastic polymers, it is possible to have created a mixture that would have allowed for lower machine temperatures and smaller pack times. This possibly would have resulted in smaller cycle times and the production of more chips and at more efficient cost ratios.
Finished Poker Chips
Appendix Hardness Tester Tinius Olsen Machine

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Non Metallic Materials And Processes

  • 1. Mass Production of Injection-Molding Chris Miller, Collin Swick, David Mason, Greg Weaver, and Jordan Hites
  • 2. Introduction The scenario we were presented was one where our company is losing market share because of the inability to turn out a good product and management has come to our department to redevelop the product from the ground up. The tasks assigned to us included the planning, designing, construction, mass production of, and testing of an item. The production of the item, we decided upon, would need to produce at least 100 pieces of said item by using an injection molding machine. These produced items would then be considered for retail sales.
  • 3. Initial idea for retail Our initial idea for retail was to mass produce poker chips. We chose poker chips, because we thought it would be something that we could not only produce efficiently but also use after we had produced them. Additionally, poker chips are used in abundance around the world, not only by casinos, but by everyday consumers, organizations, families, etc. This makes the rationale behind our idea for mass producing poker chips good because there is plenty of room in the market for more chips to be produced.
  • 4. Initial idea for retail We decided to use a combination of different plastic polymers to achieve the qualities of most regulation-size plastic poker chips that are produced by companies in the market. In order to achieve the desired qualities, we would have to mix, produce, and test the different combinations using a hardness tester and a Tinius Olsen machine. The mold we decided to produce for the production of our poker chips would be made out of aluminum, and the desired approximate dimensions of the poker chips we would produce would be 40mm in diameter, 3mm in thickness, and 5-7g in weight.
  • 5. Initial drawings Design #1 Design #2
  • 7. Mechanical Design Finished Mold with Sandblasted Pattern Finished Poker Chips
  • 8. Initial mechanical drawings Poker Chip Design in CATIA Initial Mold Design in CATIA
  • 9. Final mechanical drawings Final Chip Design in Pro Engineer Final Mold Design in Pro Engineer
  • 11. Injection process Material used 60% polyethylene / 40% polypropylene Software Used/Electronics Used Initial drawings: CADD, Windows Picture and Fax Viewer, & Snagit Project planning: Microsoft Office Project & Snagit Mechanical drawings: CATIA, Snagit, Pro Engineer Mold designing: Corel Draw
  • 12. Tooling and machining & Material required to make change Tooling and machining Mold machining: Delta horizontal band saw, Delta drill press, Trump vertical mill, Cincinnati Milacron Sandblaster Mold designing: Universal Laser Systems laser engraver Production: Cincinnati Milacron injection molder & KUKA KR3 robot Material 5”x4”x0.625” aluminum stock Polyethylene – Virgin pellets, D=1380 kg/m3 Polypropylene – Virgin pellets, D=0.9 g/cm3
  • 13. Testing process Hardness Testing Average hardness number of 60% polyethylene and 40% polypropylene mixture = 103 Young’s Modulus For 60% polyethylene, 40% polypropylene mix:
  • 14. A thorough analysis of the project The aluminum mold we produced for the production of our plastic chips was milled with great accuracy and precision. Additionally, the sandblasted pattern design was added to the mold very well. Likewise, the settings we finalized on using for the injection molding machine were very precise as well. This led to the production of poker chips that had very little flashing problems and had surfaces that were smooth and flat, with no noticeable inconsistencies.
  • 15. A thorough analysis of the project There were some things that could have been done differently, however, if we were to complete the entire process for mass producing plastic poker chips again. First, a better followed timeline and schedule for the different phases of the poker chip development process would have led to our ability to produce even more poker chips by the stated deadline. Another thing that was not ideal in our poker chip development process was that we were only able to test for hardness and tensile strength values. If we would have been able to test for compression, shear, and other values, it would have given us a more complete tool to evaluate our final product.
  • 16. A thorough analysis of the project Our group found this project to be very involving and a great learning experience. We found its weaving of product manufacturing, solid modeling, and quality assurance into nonmetals to be not only an educational but very practical endeavor. We would highly recommend the repetition of this project for at least the next few following years.
  • 17. Recommendations to management The following are the settings used on the injection molding machine to optimize the mass production of regulation-sized poker chips. Clamp Close Fast 3.00 Clamp Close Slow 1.20 Clamp Open Limit6.00 Open Speed Fast 2.75 Actual Clamp Position 6.02 Tonnage 33.00 Ejector Forward Speed 3.00 Ejector Dwell Timer 5.00 Retract Speed 2.10 Nozzle Temperature 475.00 Zone 1 Temperature 450.00 Zone 2 Temperature 450.00 Zone 3 Temperature 440.00 Injection High Time 4.00 Pack Time 3.00 Hold Time 4.00 Cooling Time 12.00 Shot Size 0.50
  • 18. Future considerations For future considerations of a project of this magnitude it would be best to perhaps actually incorporate robots into the production process to see how it would affect total cycle times. While our cycle times were relatively low when the injection molding machine was running effectively, they most likely could have been vastly improved with the use of robots. One way the robots could have been utilized would be to have them remove the completed chip part as the machine was moving out to wait for another cycle to begin. This would have allowed for the chip to be removed more quickly and for another cycle to begin, allowing production numbers to increase.
  • 19. Future considerations Additionally, the production process could have been improved, and production times lowered, if we had produced a poker chip mold that included space for two chips to be made each cycle. There was sufficient room on the piece of aluminum to mill another poker chip cavity, therefore two could have been produced for each cycle the injection molding machine made.
  • 20. Future considerations Another future consideration for this type of project would be to possibly experiment with limited production runs of more exotic nonmetallic materials. With the use of more exotic nonmetallic materials possibly mixed with traditional plastic polymers, as opposed to only the use of traditional plastic polymers, it is possible to have created a mixture that would have allowed for lower machine temperatures and smaller pack times. This possibly would have resulted in smaller cycle times and the production of more chips and at more efficient cost ratios.
  • 22. Appendix Hardness Tester Tinius Olsen Machine