Manufacturing Facility for Nylon 6,6 Mass Flow Rate (kg/batch)

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Manufacturing Facility for Nylon 6,6 Mass Flow Rate (kg/batch) Insufficient Koalafications Allison Bickford, Mitchell Juneau, Ryan Lamers, Christopher Reilly Objectives Annual production of 38.6 MM kg nylon 6,6 Grassroots plant in Calvert City, Kentucky Market Proposed production is 3% of US market $3.25/kg sale price Critical to Quality Variables: MW of 14,300 Dull finish Strength and stability Resistant to water Process Flow Diagram and Gantt Chart Stream Number 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 Temperature (°C) 25 155 152 45 270 250 60 Pressure (barg) 0.01 5.0 4.5 4.1 9.5 1.0 Vapor Fraction Mass Flow Rate (kg/batch) 32934 41417 10214 22567 84565 20601 14029 6572 63965 561 397 41418 44327 62534 15273 47261   HMDA 4940 Adipic Acid 6213 Water 9448 2876 766 103 2909 5340 Nylon Salt 63198 9480 Nylon 6,6 47256 TiO2 458 453 Acetic Acid Nitrogen Key   Material Balance Point Pressure, barg Temperature, ˚C Mass Flow Rate, kg/batch Utilities Designation Symbol Process Flow Diagram Production of Nylon 6,6 via Batch Process 47261 kg/batch Drawn 3 Apr. 2017 By  Group Rev. 15 Apr. 2017    Ryan Lamers 28 Apr. 2017 Safety Considerations Minimize Size of batches Substitute Nitrogen padding Moderate Cooling jackets Simplify Streamline operator training Economic Analysis $6.47MM Capital Investment ANNP=$5.22MM DCFRR=60% 2 year construction 10 year operation Environmental Considerations Waste Streams Neutralize or Contain Water Use Reduce, Reuse, Recycle Conclusions This project is given a GO and it’s recommended to move to the next stage of development Semi-batch process should be used to produce fibers Nylon 6,6 can be manufactured safely and economically Acknowledgements We want to thank Dr. Halpern, Rhiannon Jacobs and the rest of the UNH Chemical Engineering Department. R-110 NPT(i=0.10)=1.6 DBEP(i=0.10)=3.6 PBP=1.1 NPV(i=0)=$56.9 NPV(i=0.10)=$24.7 NPV(i=0.60)=$0