TY - JOUR
T1 - On the simulation, economic analysis, and life cycle assessment of batch-mode organic solvent recovery alternatives for the pharmaceutical industry
AU - Savelski, Mariano J.
AU - Slater, C. Stewart
AU - Tozzi, Paul V.
AU - Wisniewski, Christian M.
N1 - Funding Information:
The authors acknowledge the support of the US Environmental Protection Agency through the pollution prevention grant program (NP97212311-0). The authors also acknowledge past Rowan graduate students Michael Raymond, Eduardo Cavanagh, and Brigitte Pastore.?The authors also appreciate the?support of Pfizer, Inc. and Gregory Hounsell, Frank Urbanski, Joseph Geiger, and Donald Knoechel of Pfizer Global Manufacturing.
Funding Information:
Acknowledgements The authors acknowledge the support of the US Environmental Protection Agency through the pollution prevention grant program (NP97212311-0). The authors also acknowledge past Rowan graduate students Michael Raymond, Eduardo Cavanagh, and Brigitte Pastore. The authors also appreciate the support of Pfizer, Inc. and Gregory Hounsell, Frank Urbanski, Joseph Geiger, and Donald Knoechel of Pfizer Global Manufacturing.
Publisher Copyright:
© 2017, Springer-Verlag GmbH Germany.
PY - 2017/12/1
Y1 - 2017/12/1
N2 - This study explores design alternatives for the purification and possible reuse of low-volume organic solvents waste streams in pharmaceutical manufacturing. Solvent use has a large impact on the life cycle of pharmaceutical processes, as typically 80–90% of the total mass used in the production of an active pharmaceutical ingredient is attributed to solvent use. Solvents are not consumed in pharmaceutical processes so they exit the process as waste. These waste streams are usually disposed of using incineration; therefore, generating significant life cycle emissions from disposal and replacement of virgin solvent. Solvent recovery efforts are generally limited to large-volume waste streams. However, results show that solvents in low-volume streams can also be economically recovered using a versatile multi-campaign solvent recovery skid. Three different solvent waste streams were evaluated, and 85.3% reduction in total emissions and 86.3% reduction in operating costs were achieved. Investment in the solvent recovery system was determined to have a payback period of 4.5 years and a 28% IRR over 10 years. A life cycle impact assessment shows impacts on the human health, ecosystems, and resources categories have been reduced by 82.4, 85.1, and 87.1%, respectively.
AB - This study explores design alternatives for the purification and possible reuse of low-volume organic solvents waste streams in pharmaceutical manufacturing. Solvent use has a large impact on the life cycle of pharmaceutical processes, as typically 80–90% of the total mass used in the production of an active pharmaceutical ingredient is attributed to solvent use. Solvents are not consumed in pharmaceutical processes so they exit the process as waste. These waste streams are usually disposed of using incineration; therefore, generating significant life cycle emissions from disposal and replacement of virgin solvent. Solvent recovery efforts are generally limited to large-volume waste streams. However, results show that solvents in low-volume streams can also be economically recovered using a versatile multi-campaign solvent recovery skid. Three different solvent waste streams were evaluated, and 85.3% reduction in total emissions and 86.3% reduction in operating costs were achieved. Investment in the solvent recovery system was determined to have a payback period of 4.5 years and a 28% IRR over 10 years. A life cycle impact assessment shows impacts on the human health, ecosystems, and resources categories have been reduced by 82.4, 85.1, and 87.1%, respectively.
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U2 - 10.1007/s10098-017-1444-8
DO - 10.1007/s10098-017-1444-8
M3 - Article
AN - SCOPUS:85032692049
SN - 1618-954X
VL - 19
SP - 2467
EP - 2477
JO - Clean Technologies and Environmental Policy
JF - Clean Technologies and Environmental Policy
IS - 10
ER -