1 Mariano Savelski 1, C. Stewart Slater 1, Dave Aycock 2, Bogdan Comanita 2, Steve Prescott 2, Jeff Shifflette 2 1 Rowan University, Glassboro, NJ 2 PennAKem,

Slides:



Advertisements
Similar presentations
1 BMS Confidential PUBD Partnerships between Academia and the Pharmaceutical Industry to Advance Green Engineering C. Stewart Slater and Mariano.
Advertisements

1 BMS Confidential PUBD Green Process Analysis for Solvent Reduction in Pharmaceutical Synthesis C. Stewart Slater and Mariano J. Savelski, Rowan.
Minneapolis, MN October 2011
VEXOR Technology, Inc.. Background Founded in principals are seasoned environmental management professionals with more than 100 years of combined.
Environmental Health Issues in Solid Waste Management Alan Eschenroeder, Ph.D. and Katherine von Stackelberg, S.M. Harvard School of Public Health 18 November.
Sustainable Management of “Wastes” Prof Thomas DiStefano Bucknell University February 2009.
Waste Derived Fuels NERF, 6 th June 2013 Kirk Bridgewood Derwentside Environmental Testing Services.
Chemical Exposure & Environmental Contamination Chapter 3 How are chemicals released into the environment? What are the impacts on the environment? –The.
LIFE CYCLE ASSESSMENT Environmental Assessment of Green Chemicals LCA of bio-based chemicals produced using biocatalysis Linda Tufvesson Environmental.
Michael Raymond Panel: C. Stewart Slater, Ph.D. Mariano Savelski, Ph.D. Gregory Hounsell Department of Chemical Engineering Rowan University.
Green Chemistry.
Trends in Solvent Management in the Pharmaceutical Industry C. Stewart Slater and Mariano J. Savelski Department of Chemical Engineering Rowan University.
R Pharmaceuticals Waste Incineration & Heat Recovery at Roche Ireland Ltd. Andrew Carden.
Environmental Sustainability of Biofuel Crops Bill Chism David Widawsky Office of Policy, Economics and Innovation.
ACS Green Chemistry Institute® American Chemical Society ACS GCI Pharmaceutical Roundtable’s Convergent PMI* Calculator *Process Mass Intensity ACS GCI.
Carbon Footprint / Life Cycle Analysis September 29, 2009.
1950: 2.5 billion people. 2000: 6 billion people.
Striclty for educational purposes Final project in M.Sc. Course for teachers, in the framework of the Caesarea –Rothschild program of the Feinberg Grad.
Group 6: Jacob Hebert, Michael McCutchen, Eric Powell, Jacob Reinhart
Life Cycle Analysis and Resource Management Dr. Forbes McDougall Procter & Gamble UK.
Green Chemistry.
Biomass Carbon Neutrality in the Context of Forest-based Fuels and Products Al Lucier, NCASI Reid Miner, NCASI
AIS & CarbonNeutral ®. AIS’ Environmental Journey… Lean manufacturer, reducing waste from every aspect of our manufacturing.
Jean-Jacques Dohogne, ACR+ June 2015 Flanders Towards a prevention, reuse & recycling society?
A method for reducing the environmental impact of product manufacturing Engineering Tech Center Richard Lambert Jeff Fleming Environmental Development.
Production of Syngas and Ethanol Group II. Definition of Syngas Syngas is the abbreviated name for synthesis gas. It is a gas mixture that comprises of.
Laura Wood. Definition Biomass is all plant and animal matter on the Earth's surface. Harvesting biomass such as crops, trees or dung and using it to.
Green Chemical Process Primary Categories Sub-CategoriesDefinitions Techniques (where applicable) Metrics R. Paulson
Sustainable Growth Through Innovation FPPA Annual Conference Industry Panel March 2, 2009.
1 JRC – Ispra DG JRC and EC4MACS IPTS Institute for Prospective Technology Studies - Peter Russ - Antonio Soria - Szabolc Szekeres IES Institute for Environment.
Group 21: Sustainable Building Materials By: Lynda Angus ( ); David Duffy ( ); Leanne Fitzgerald ( );
RL Stevenson Presentation Biological Fuels Daniel M. Jenkins University of Hawai‘i, Mānoa April 27, 2007.
The Importance of Green Chemistry Sarah Gunderson April 26, 2005.
Green Chemistry Milan Sanader Author, Nelson Chemistry.
1 EMISSION INVENTORY OF BANGLADESH under Malé Declaration on Control and Prevention of Air Pollution And Its Likely Transboundary Effects for South Asia.
1 TO MITIGATE CLIMATE CHANGE BASED ON BIOTECHNOLOGY.
The Twelve Principles of Green Chemistry* 1. Prevention It is better to prevent waste than to treat or clean up waste after it has been created. 2. Atom.
CESI Barcelona May 2003 R.BERTI IT Session 1 – Block 2 1 Product Environmental Profile and Benefits for Electrical Utilities R. Berti CESI.
6/25/2008 ACS Green Chemistry and Engineering Conference Natural Oil Polythiols and Polyols– A Life Cycle Comparison Thomas A. Upshaw, William J.
Biomass Renewable Energy Source Michael Parsons. What is Biomass? Biomass Renewable Energy from Plants and Animals Biomass Renewable Energy from Plants.
Uses of biomass energy Sources of Energy Biomass Biomass energy is defined by any organic materials that can be burned and used as a source of fuel. (a)
What does Going Green Mean!??
ACS Green Chemistry Institute® American Chemical Society ACS GCI Pharmaceutical Roundtable’s Convergent PMI* Calculator *Process Mass Intensity ACS GCI.
GREEN CHEMISTRY 2010/2011. background… Taken in large part from Paul L. Bishop’s Pollution Prevention – Fundamentals & Practice, Chapter 9.
Form 8 and 9 2 Lessons per week. Form 8 Diversity of substances Substances in my house Development of chemistry Research activity in chemistry Laboratory.
E-Factor Environmental Impact Factor. In the late 1980s Roger Sheldon introduced E-factor to evaluate the environmental impact of manufacturing processes.
Alternative Fuel Using Chemistry By: Simon Gnagy and Madeline Roberts.
1 BMS Confidential PUBD A Collaborative Partnership to Develop Strategies for Waste Minimization and Solvent Recovery for the Celecoxib Process Mariano.
Estee Lauder Companies The Beauty of Responsibility $10.2 billion global leader in Prestige Cosmetics. Company was started in Queens, NYC, New York in.
Learning objective: To show the importance of ethanol as a chemical To find out about three routes to making ethanol To evaluate the alternative routes.
University of Toledo Climate Action Report Scope 1 By Rachel Beres, Andrew Kulikowski, Jon Lockie, Chad Pietkowski, Ken Samoei, and Cory Williams.
Reducing Carbon Footprint- A Health Perspective Our carbon footprint is the measure of the amount of carbon dioxide (CO2) and other greenhouse gases we.
ECO tourism Carbon neutral footprint SustainabilityECO segmentsMonitoring & CertificationInvestment.
1 BMS Confidential PUBD Using the Rowan University Engineering Clinic Model to Implement Green Engineering Partnerships with the Pharmaceutical Industry.
KeLa Energy, LLC 12 th Annual Green Chemistry & Engineering Conference Recycling and Clean Coal Technology.
Research Group Process Evaluation Ecological Footprint calculation using SPIonWeb Kollmann René Graz University of Technology Institute for Process and.
Topics To Be Covered What is green manufacturing? Terms to know Goal
Addressing Resource Efficiency and Climate Change
Energy Review.
WELCOME.
CHE 670 Sustainability Seminar
Combat Climate Change How to tackle it.
Student book questions
By: Kobe Egnor & Tayshome’ Pondexter
Solutions for Reducing your GHG Footprint
Anthony Valle & Quincy Stiles
Green Chemistry.
Environmental Decision Making & Metrics Session: Methodologies for Assessment and Sustainability Room Location: South American AB Tuesday, June 24, 2008.
Carbon Footprint.
CHE 670 Sustainability Seminar
Presentation transcript:

1 Mariano Savelski 1, C. Stewart Slater 1, Dave Aycock 2, Bogdan Comanita 2, Steve Prescott 2, Jeff Shifflette 2 1 Rowan University, Glassboro, NJ 2 PennAKem, Memphis, TN Life Cycle Analysis of Biobased Pennakem’s ecoMeTHF™ : Green Solvents for the Pharmaceutical and Fine Chemical Industry Session: Green Chemistry Metrics for Innovation and Driving Sustainability 16 th Annual Green Chemistry & Engineering Conference Washington, DC June 18-20, 2012

2 Pennakem: Renewable Resources Acid Pentoses Furfural Rubber AgChem FineChem Food & Cosmetics - 3H 2 O 2

3 Solvents & Pharma Mass Balance Lessons Learned From The Pharmaceutical Industry, a) Richard K Henderson,GlaxoSmithKline, Park Road, Ware, Herts, SG12 ODP, UK; b) John Kindervater, Eli Lilly and Company, Indianapolis, IN,46285 USA; c) Julie B Manley, ACS Green Chemistry Institute, 1155 Sixteenth St., NW, Washington, DC 20036, USA 3

4 Solvent Choice  GHG Fossil Solvent? Solvent Reagents Product Aqueous waste Solvent waste Solvent recycling Reaction Recycled solvent Incineration Solvent residue CO 2 Mandatory Declaration Anthropogenic CO 2 YesNo Informative Declaration Biogenic CO 2 4

5 Strategic Switch to Biobased Solvents Up to 35% GHG reduction 5

6 Pennakem’s ecoMeTHF™ value proposition Reduced costs Improved process Green product & process Comparable/better safety PurchasingR&D/Manufacturing Safety Environmental 6

7 Pennakem’s ecoMeTHF™ savings sources Improved chemical properties –Higher yields in a wide range of reactions –Improved impurity profile Improved physical properties –Easy work-up (5% water solubility) –Powerful extraction solvent (less steps) –Easy drying (azeotrope)  telescopic reactions –Easy recycling (simple distillation ambient pressure) visit: pennakem.com 7

8 Pennakem’s ecoMeTHF™ use in Pharma Adapted from “Moving Towards Greener Solvents In Pharmaceutical Manufacturing” ; Peter Dunn (Pfizer), Richard Henderson (GSK), Ingrid Merlgesberg (Schering-Plough) & Andrew Wells (Astra-Zeneca) Website: 8

9 Pennakem’s ecoMeTHF™ Synthesis Derived from agriculturally-produced furfural Pennakem’s ecoMeTHF™ 9

10 Life Cycle Analysis Route to synthesize Pennakem’s ecoMeTHF™ divided into individual processes LCIs were calculated for the key intermediates in the process steps: o Corn cob collection, furfural, MeF product stream, Pennakem’s ecoMeTHF™, and all required materials and utilities o SimaPro ® and EcoSolvent ® were used for most chemicals, energy, wastes o Furfural, MeFuran were several of the chemicals modeled Corn cob collection Furfural MeFuran ecoMeTHF™ 10

11 Biogenic Carbon Approach (BCA) CO 2 Biomass Waste (e.g.: corn cobs) Incineration Fossil Fuel CO 2 Byproduct Waste Incineration Emissions = 0 Fossil Fuel Emissions < 0 (credit) “ Biogenic CO 2 is no CO 2 ” “Incineration of Solvents obtained from renewable resources results in biogenic CO 2 ”, which “under international legislation and guidelines does not contribute to the national inventory of GHG emissions” * * B. Comanita, Live Webinar: “Carbon-Neutral Solvents: A Natural Choice In A Carbon-Neutral Future”, April 15, Byproducts

12 Furfural Production Based on “Westpro” process 8.33 kg corn cob waste yields 1 kg furfural Waste lignin and solvent byproducts burned to generate stream for process –Modeled as “heat from biomass” and solvent incineration – credit taken Excess lignin residue treated with limestone, sold as fertilizer and credit taken Furfural Production Corn cob waste Steam H 2 SO 4 H2OH2O Furfural MeOH Acetone Lignin Excess Lignin Acetic Acid to WWTP to sell as fertilizer 12

13 Furfural Raw Material and Energy LCIs Corn cob collection and waste treatment contribute the most emissions Credits come from sale of excess lignin and burning waste solvents 13

14 Furfural LCI The negative CED is due to the credits LCI of Furfural (per 1 kg furfural) Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions CED, MJ-Eq-1.24E+01 Air Emissions, kg6.43E-01 CO 2, kg6.31E-01 CO, kg4.90E-03 CH 4, kg6.57E-04 NO X, kg9.69E-03 NMVOC, kg1.65E-03 Particulates, kg1.20E-03 SO 2, kg-9.75E-04 Water Emissions, kg1.26E-02 VOCs, kg3.72E-06 Soil Emissions, kg1.30E-03 Total Emissions, kg6.56E-01 14

15 Furfural LCI (BCA) Utilities emissions are lower in the biogenic carbon approach because lignin CO 2 emissions are zero LCI of Furfural (per 1 kg furfural) Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions CED, MJ-Eq-1.24E+01 Air Emissions, kg3.84E-01 CO 2, kg3.72E-01 CO, kg4.90E-03 CH 4, kg6.57E-04 NO X, kg9.69E-03 NMVOC, kg1.65E-03 Particulates, kg1.20E-03 SO 2, kg-9.75E-04 Water Emissions, kg1.26E-02 VOCs, kg3.72E-06 Soil Emissions, kg1.30E-03 Total Emissions, kg3.98E-01 15

16 Pennakem’s ecoMeTHF™ Process Utilities –Electricity modeled from TVA –Steam generated on-site Waste –Solvent incineration –Water emissions Furfural Steam Electricity H2H2 Waste: MeF MeTHF H 2 O Other MeF MeTHF Furan H 2 O MeFuran Product stream: eco MeTHF™ Steam Electricity H2H2 Waste: MeF MeTHF H 2 O 1-Pentanol Other MeF step eco MeTHF™ step 16

17 MeF Product Stream Raw Material and Energy LCIs Furfural is the highest contributor Byproduct credits are greater than the emissions from waste treatment 17

18 MeF Product Stream LCI LCI of MeF Product Stream (per 1 kg of MeF) The credits negate all emissions from waste treatment and utility use CED, MJ-Eq-1.93E+01 Air Emissions, kg8.95E-01 CO 2, kg8.83E-01 CO, kg6.43E-03 CH 4, kg-5.34E-04 NO X, kg1.31E-02 NMVOC, kg2.34E-03 Particulates, kg1.22E-03 SO 2, kg-3.77E-03 Water Emissions, kg1.45E-02 VOCs, kg5.29E-06 Soil Emissions, kg1.85E-03 Total Emissions, kg9.11E-01 Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions 18

19 MeF Product Stream LCI (BCA) LCI of MeF Product Stream (per 1 kg of MeF) CO 2 solvent waste incineration emissions are zero in the BCA CED, MJ-Eq-1.93E+01 Air Emissions, kg2.03E-01 CO 2, kg1.91E-01 CO, kg6.43E-03 CH 4, kg-5.34E-04 NO X, kg1.31E-02 NMVOC, kg2.34E-03 Particulates, kg1.22E-03 SO 2, kg-3.77E-03 Water Emissions, kg1.45E-02 VOCs, kg5.29E-06 Soil Emissions, kg1.85E-03 Total Emissions, kg2.19E-01 Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions 19

20 Pennakem’s ecoMeTHF™ Raw Material and Energy LCIs MeF stream is the highest contributor Byproduct credits negate impacts from waste and utilities 20

21 Pennakem’s ecoMeTHF™ Life Cycle Emissions Life cycle emission of Pennakem’s ecoMeTHF™ (per 1 kg ecoMeTHF) Increased emissions compared to MeF step are due to lower offset credits from solvent waste cement kiln incineration Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions 21 CED, MJ-Eq-2.00E+01 Air Emissions, kg9.71E-01 CO 2, kg9.59E-01 CO, kg6.63E-03 CH 4, kg-9.38E-04 NO X, kg1.38E-02 NMVOC, kg2.46E-03 Particulates, kg1.26E-03 SO 2, kg-4.55E-03 Water Emissions, kg2.73E-02 VOCs, kg5.56E-06 Soil Emissions, kg1.94E-03 Total Emissions, kg1.00E+00

22 Pennakem’s ecoMeTHF™ Life Cycle Emissions (BCA) Life cycle emission of Pennakem’s ecoMeTHF™ (per 1 kg ecoMeTHF) Total emissions are reduced by 81% in the BCA Raw Material emissions are reduced by 72% in the BCA Byproduct credits are subtracted from Raw Material, Utilities and Waste to obtain Total Emissions 22 CED, MJ-Eq-2.00E+01 Air Emissions, kg1.62E-01 CO 2, kg1.50E-01 CO, kg6.63E-03 CH 4, kg-9.38E-04 NO X, kg1.38E-02 NMVOC, kg2.46E-03 Particulates, kg1.26E-03 SO 2, kg-4.55E-03 Water Emissions, kg2.73E-02 VOCs, kg5.56E-06 Soil Emissions, kg1.94E-03 Total Emissions, kg1.91E-01

23 Life Cycle Emissions Comparison Pennakem’s ecoMeTHF™ has the lowest carbon footprint when compared to other typically used solvents Pennakem’s ecoMeTHF™ (BCA) has 97% lower life cycle emissions than “chemical” THF (derived from 1,4 butanediol, Reppe process) 23 (BCA) = Biogenic Carbon Approach

24 Acknowledgements Rowan Engineering Clinic students –Daniel Cendo –David Hitchcock –Adam Kooker –Mia Korngruen PennAKem For further information on Pennakem’s ecoMeTHF™ contact: Steve Prescott Office: Cell: U.S. EPA Pollution Prevention Program NP

25 Thank you!