Evolution of Green Chemistry and Its Multidimensional Impacts: a Review
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Project Leader Lissa Mccracken Michael Simpson, PE Acting Director Sr
Project Leader Lissa McCracken Michael Simpson, PE Acting Director Sr. Environmental Engineer Kentucky Pollution Prevention Center City of Los Angeles University of Louisville Department of Public Works Louisville, KY Bureau of Sanitation Industrial Waste Management Division Cam Metcalf (former Director of Kentucky Los Angeles, CA Pollution Prevention Center) National Pollution Prevention Round 2001 Lancashire Ave #208 Table Board Member Louisville, KY Authors * Editors Michelle Butler, PhD* Michelle Butler, PhD* Sr. Pollution Prevention Engineer Sr. Pollution Prevention Engineer NY State Pollution Prevention Institute NY State Pollution Prevention Institute Rochester Institute of Technology Rochester Institute of Technology Rochester, New York Rochester, New York Al Innes Jonathan M. Rivin, PhD* Minnesota Pollution Control Agency Waste Management Specialist Green Chemistry Coordinator UW Extension-Solid & Hazardous Waste Pollution Prevention Program Education Center St. Paul, MN University of Wisconsin-Stevens Point Stevens Point, WI Lin Kaatz Chary, PhD, MPH Executive Director Cathy Bouge Great Lakes Green Chemistry Network Washington State Gary, IN Department of Ecology Olympia, WA Olga Krel, MS Plancheck Engineer City of Los Angeles Department of Public Works Bureau of Sanitation Industrial Waste Management Division Los Angeles, CA Ally LaTourelle, Esq. Managing Partner BioEconomy Partners Philadelphia, PA *Editors Green Chemistry Guide This manual provides state agencies and technical assistance providers with tools and resources -
Worker and Environmentalist Green Chemistry Awareness Training Curriculum
Worker and Environmentalist Green Chemistry Awareness Training Curriculum The New England Consortium University of Massachusetts Lowell Grant funded by The National Institute of Environmental Health Sciences Grant No. 3U45ES006172-18S2, titled: Administrative Supplements to Promote Partnerships For Environmental Public Health.” This Page Intentionally Left Blank ACKNOWLEDGMENTS Principal Investigator: Craig Slatin, Sc.D., MPH Professor Department of Community Health and Sustainability Director, Center for Health Promotion and Research School of Health and Environment University of Massachusetts Lowell Project Director: Paul Morse, MA, BS Project Manager of The New England Consortium Center for Health Promotion and Research School of Health and Environment University of Massachusetts Lowell This curriculum was a collaboration by the following individuals and institutions: Curriculum Coordinator: Tolle Graham, Labor and Environment Coordinator, Massachusetts Coalition for Occupational Safety & Health (MassCOSH) Curriculum Development Team: Melissa Coffin, Research Associate, Lowell Center for Sustainable Production Amy Cannon, Executive Director, Beyond Benign Foundation Claudie Grout, ENVISION Exceptional Instruction Tom Estabrook, Project Manager - Special Projects, The New England Consortium, UMass Lowell Craig Slatin, Professor, Principal Investigator, The New England Consortium, UMass Lowell Joel Tickner, Associate Professor, Project Director – Lowell Center for Sustainable Production, UMass Lowell The curriculum development team wants -
To Undergraduate Studies in Chemistry, Chemical Engineering, and Chemical Biology College of Chemistry, University of California, Berkeley, 2011-12
Guide to Undergraduate Studies in Chemistry, Chemical Engineering, and -2012 Chemical Biology College of Chemistry 2011 University of California, Berkeley Academic Calendar 2011-12 Fall Semester 2011 Tele-BEARS Begins April 11 Monday Fee Payment Due August 15 Monday Fall Semester Begins August 18 Thursday Welcome Events August 22-26 Monday-Friday Instruction Begins August 25 Thursday Labor Day Holiday September 5 Monday Veterans Day Holiday November 11 Friday Thanksgiving Holiday November 24-25 Thursday-Friday Formal Classes End December 2 Friday Reading/Review/Recitation Week December 5-9 Monday-Friday Final Examinations December 12-16 Monday-Friday Fall Semester Ends December 16 Friday Winter Holiday December 26-27 Monday-Tuesday New Year’s Holiday December 29-30 Thursday-Friday Spring Semester 2012 Tele-BEARS Begins October 17, 2011 Monday Spring Semester Begins January 10 Tuesday Fee Payment Due January 15 Sunday Martin Luther King Jr. Holiday January 16 Monday Instruction Begins January 17 Tuesday Presidents’ Day Holiday February 20 Monday Spring Recess March 26-30 Monday-Friday César Chávez Holiday March 30 Friday Cal Day To Be Determined Formal Classes End April 27 Friday Reading/Review/Recitation Week April 30-May 4 Monday-Friday Final Examinations May 7-11 Monday-Friday Spring Semester Ends May 11 Friday Summer Sessions 2012 Tele-BEARS Begins February 6 Monday First Six-Week Session May 21-June 29 Monday-Friday Memorial Day Holiday May 28 Monday Ten-Week Session June 4-August 10 Monday-Friday Eight-Week Session June 18-August -
The Role of Green Chemistry in Sustainability
American Chemical Society The Role of Green Chemistry in Sustainability Mary M. Kirchhoff EPA Region 6 QA Conference 19 October 2015 Green Chemistry Green chemistry is the design of chemical products and processes that reduce or eliminate the use and generation of hazardous substances. American Chemical Society 2 Sustainable Development Development that meets the needs of the present without compromising the ability of future generations to meet their own needs. Brundtland Commission American Chemical Society 3 Presidential Green Chemistry Challenge Awards • The Presidential Green Chemistry Challenge was established to recognize and promote fundamental and innovative chemical technologies that accomplish pollution prevention through source reduction and that are useful to industry. American Chemical Society 4 Award Categories • Greener synthetic pathways • Greener reaction conditions • Design of greener chemicals • Small business • Academic • Specific environmental benefit: Climate change American Chemical Society 5 2015 Award Winner • Ethanol and green crude from algae – Bio-engineered cyanobacteria – High conversion (80%) to ethanol – Ethanol purified via Vapor Compression Steam Stripping – Residual biomass converted to green crude – 70% reduction in CO2 emissions relative to gasoline Algenol American Chemical Society 6 12 Principles 1. Prevention 2. Atom economy 3. Less hazardous chemical syntheses 4. Designing safer chemicals 5. Safer solvents and auxiliaries 6. Energy efficiency 7. Renewable feedstocks 8. Reduce derivatives 9. Catalysis 10.Design for degradation 11.Real-time analysis for pollution prevention 12.Inherently safer chemistry American Chemical Society 7 Principle 1 It is better to prevent waste than to treat or clean up waste after it is formed. American Chemical Society 8 E-factor • Weight of byproducts/weight of desired product – Oil refining 0.1 – Bulk chemicals <15 – Fine chemicals 5-50 – Pharmaceuticals 25-100+ Sheldon, ChemTech, 1994, 24, 38. -
Green Chemistry: Beginning, Recent Progress, and Future Challenges
WORLD JOURNAL OF PHARMACY AND PHARMACEUTICAL SCIENCES Dirgha et al. World Journal of Pharmacy and Pharmaceutical Sciences SJIF Impact Factor 7.421 Volume 8, Issue 7, 280-293 Review Article ISSN 2278 – 4357 GREEN CHEMISTRY: BEGINNING, RECENT PROGRESS, AND FUTURE CHALLENGES Dirgha Raj Joshi1* and Nisha Adhikari2 1College of Pharmacy, Yonsei University, 85 Songdogwahak-ro, Yeonsu-gu, Incheon 21983, Republic of Korea. 2College of Pharmacy, Wonkwang University, Republic of Korea. ABSTRACT Article Received on 08 May 2019, Throughout a long time, green chemistry (GC) reviled how a basic Revised on 29 May 2019, scientific methodology and advanced practice can enhance the safe Accepted on 19 June 2019 output to the human life and the environment without compromising DOI: 10.20959/wjpps20197-14208 the desired outcomes. For this, the advancement in scientific processes were made in the field of designing safer reagents and solvents, *Corresponding Author advancement in catalysis and possible development of the renewable Dirgha Raj Joshi feedstock. From the past lesson, currently the future chemists are being College of Pharmacy, Yonsei University, 85 taught and trained to a wider concept of green chemistry to the practice Songdogwahak-ro, Yeonsu- and increased awareness towards human as well as environmental gu, Incheon 21983, Republic impact. A need for GC practice is highly demanding and the adherence of Korea. to the 12 principles of GC concept is growing rapidly. A need for great ORCID ID: 0000-0002-0303-5677 [email protected], change in policy, rules and regulations which will force industry, [email protected] research institute, academia, and other is still highly demanding. -
WITHOUT CHEMISTRY THERE CAN BE NO CIRCULAR ECONOMY the Imperative of a New Perspective on Chemicals and Materials Management
March 3, 2018 WITHOUT CHEMISTRY THERE CAN BE NO CIRCULAR ECONOMY The imperative of a new perspective on chemicals and materials management Elze Van Hamelen, MBA The Natural Step (Germany) [email protected].| Office: +49 89 212 312 140| or contact your local office www.thenaturalstep.org | www.thenaturalstep.de Without Chemistry There Can Be No Circular Economy The imperative of a new perspective on chemicals and materials management 1 The transition to a sustainable society entails manufacturing entail a certain risk. Many materials that tremendous challenges when it comes to materials find in nature can only be formed under high management. The concept of a Circular Economy pressure and high temperatures. In trying to minimize focuses on reclaiming materials, recycling, repair risk, the emphasis is on control and reduce the and reuse. There is an emphasis on managing probability that an effect will occur through various materials in a different way, but there is less management approaches. attention on the intrinsic properties of the materials themselves. Often it is implied that we need to In response to large-scale accidents within the substitute raw materials with renewable, bio- chemical industry, the sector has put a lot of effort into based to John Warner, co-founder of the 12 Principles minimizing risks to health and environment and for Green Chemistry, 65% of all chemical increasing safety precautions. Many of these efforts products need to be replaced by a sustainable took place under the umbrella of the global alternative. And that demands a new perspective. Responsible Care By Elze van Hamelen efforts have led to considerable and impressive improvements in areas such as workplace safety, Biomass is often praised as the cornerstone for circular transport, spills, and emissions. -
Chemistry, Green Chemistry, and the Instrumental Valuation of Sustainability
Minerva (2011) 49:113–136 DOI 10.1007/s11024-011-9165-3 Chemistry, Green Chemistry, and the Instrumental Valuation of Sustainability Nathaniel Logar Published online: 20 February 2011 Ó Springer Science+Business Media B.V. 2011 Abstract Using the Public Value Mapping framework, I address the values suc- cesses and failures of chemistry as compared to the emerging field of green chemistry, in which the promoters attempt to incorporate new and expanded values, such as health, safety, and environmental sustainability, to the processes of priori- tizing and conducting chemistry research. I document how such values are becoming increasingly ‘‘public.’’ Moreover, analysis of the relations among the multiple values associated with green chemistry displays a greater internal coher- ence and logic than for conventional chemistry. Although traditional chemistry research has successfully contributed to both economic and values gains, there have been public values failures due to imperfect values articulations, failure to take a longer-term view, and inertia within a system that places too much emphasis on ‘‘science values.’’ Green chemistry, if implemented effectively, has potential to remedy these failures. Keywords Green chemistry Á Public value mapping Á Science policy Á Chemistry Introduction Chemistry and chemical products are an integral part of the U.S. economy. According to one study, the chemical industry accounts for 1.7% of U.S. GDP, directly creates 868,700 jobs, and contributes to 4.8 million additional positions (ACS 2007). Chemistry research has enhanced health and quality of life, fostering key discoveries in pharmaceuticals, materials, and consumer products. While these N. Logar (&) Belfer Center for Science and International Affairs, John F. -
John C. Warner 100 Research Drive Wilmington, MA 01887 978‐225‐5420 [email protected]
John C. Warner 100 Research Drive Wilmington, MA 01887 978‐225‐5420 [email protected] www.JohnWarner.Org John is the recipient of the 2014 Perkin Medal, widely acknowledged as the highest honor in American Industrial Chemistry, and was named a 2016 AAAS‐Lemelson Invention Ambassador. He received his BS in Chemistry from UMASS Boston, and his PhD in Chemistry from Princeton University. After working at the Polaroid Corporation for nearly a decade, he then served as tenured full professor at UMASS Boston and Lowell (Chemistry and Plastics Engineering). In 2007 he founded the Warner Babcock Institute for Green Chemistry, LLC (A research organization developing green chemistry technologies) where he serves as President and Chief Technology Officer, and Beyond Benign (a non‐profit dedicated to sustainability and green chemistry education). He is one of the founders of the field of Green Chemistry, co‐authoring the defining text Green Chemistry: Theory and Practice with Paul Anastas. He has published nearly 300 patents, papers and books. His recent work in the fields of pharmaceuticals, personal care products, solar energy and construction and paving materials are examples of how green chemistry principles can be immediately incorporated into commercially relevant applications. Warner received The 2004 Presidential Award for Excellence in Science Mentoring (considered one of the highest awards for US science education), the American Institute of Chemistry's Northeast Division's Distinguished Chemist of the Year for 2002 and the Council of Science Society President’s 2008 Leadership award. Warner was named by ICIS as one of the most influential people impacting the global chemical industries. -
Importance of Green Chemistry in Oxidation and Reduction
International Journal of Engineering and Technical Research (IJETR) ISSN: 2321-0869 (O) 2454-4698 (P) Volume-7, Issue-7, July 2017 Importance of Green chemistry in oxidation and reduction Richa Khare, Avidha Kulshrestha, Jaya Pandey, Nidhi Singh Abstract– ”Green chemistry‘ the self-explanatory term is a to equip the students with the required set of tools, their branch of chemistry that involves the application of chemical knowledge and the experience to work with it. product and processes in such a way that reduces the generation This helps us in maintaining and enhancing the high quality of of hazardous chemical waste and its release into the provisions of the green and sustainable chemistry to enable environment. It is an intelligent way of doing chemistry in change to low carbon and bio based economy which is which the waste production is minimized, energy is saved and the depletion of natural resources is cut down to some extent. developed on the high quality of pure and transitional Significant efforts have been made towards the development research, its education and the training. Its networking and of new Green Technologies. It‘s Eenefits should reach to the partnerships which is in the framework of the development common man. We can synthesize many organic molecules with (5). the help of green chemistry methods. In this article we are trying to study about and utilization of green chemistry in different Green Chemistry: A Contribution for Sustainable processes mainly oxidation and reduction processes. Development of Society Green chemistry has contributed a lot in the cleansing the Index Terms– Green Synthesis, Green Chemistry, environment and making our planet a beautiful place to live in Oxidation, Reduction .green chemistry has optimized global mass in order to minimize waste. -
Project Number: JRK C061 DEVELOPING a STRATEGY
Project Number: JRK C061 DEVELOPING A STRATEGY FOR INTEGRATING GREEN CHEMISTRY IN THAILAND An Interactive Qualifying Project Report submitted to the Faculty of the WORCESTER POLYTECHNIC INSTITUTE In partial fulfillment of the requirements for the Degree of Bachelor of Science By ____________________ __________________ Gregor Kevrekian Amanda McCullough ____________________ Erica Moore Date: March 2, 2006 _______________________________ Professor Robert Krueger, Major Advisor _______________________________ Professor Seth Tuler, Major Advisor EXECUTIVE SUMMARY Recent industrialization and growth of the chemical industry in Thailand has led to severe environmental degradation (Iwami, 2001). Each year, 1.7 million tons of hazardous waste are generated in Thailand and 78% of this waste comes from industry (NRC-EHWM, 2005). This figure may be even higher since Thailand lacks a systematic way to inventory chemicals and hazardous waste (Kamolsiripichaiporn, 2006). Motivated by the need for long-term solutions to this growing problem of hazardous waste and toxic chemicals use, a new strategy to solve this problem has gained widespread recognition. It relies on a fundamental redesign of chemical reactions and processes for every type of application, and marks a conceptual revolution in the discipline of chemistry (Hutchison & Doxee, 2004). This approach is called “green chemistry.” As defined by Dr. Paul Anastas and Dr. John Warner (1998), green chemistry is “the utilization of a set of principles that reduces or eliminates the use or generation of hazardous substances in the design, manufacture and application of chemical products” (p. 11). The goal of this project was to make recommendations for establishing a successful green chemistry network in Thailand and to design a workshop that would initiate this process. -
Overcoming the Challenges to the Implementation of Green Chemistry
Overcoming the Challenges to the Implementation of Green Chemistry Kira J. M. Matus, Paul T. Anastas, William C. Clark, and Kai Itameri-Kinter CID Working Paper No. 155 December 2007 © Copyright 2007 Kira J. M. Matus, Paul T. Anastas, William C. Clark, Kai Itameri-Kinter, and the President and Fellows of Harvard College Working Papers Center for International Development at Harvard University Overcoming the Challenges to the Implementation of Green Chemistry Kira J. M. Matus, Paul T. Anastas, William C. Clark, and Kai Itameri-Kinter Abstract The Harvard-Yale-ACS GCI Green Chemistry Project is investigating the overall question of the circumstances under which firms can enact innovations that have both economic and environmental benefits, through a focused examination of the implementation of green chemistry. The research project has taken up three fundamental, interrelated questions: What factors act as barriers to the implementation of green chemistry? What actions can be taken by the government, academia, NGO’s and industry that will help alleviate these factors? What are the policy implications of these barriers and potential actions, for all of the involved stakeholders? During its initial phases, through interviews with a dozen green chemistry leaders from industry and academia, and through a multi-stakeholder workshop, the project has focused on the first two questions, and is working towards the third. Overall, we determined that there are six major classes of barriers to the implementation of green chemistry: economic, regulatory, -
Developing a Strategy for Integrating Green Chemistry in Thailand Amanda N
Worcester Polytechnic Institute Digital WPI Interactive Qualifying Projects (All Years) Interactive Qualifying Projects March 2006 Developing a Strategy for Integrating Green Chemistry in Thailand Amanda N. McCullough Worcester Polytechnic Institute Erica Leigh Moore Worcester Polytechnic Institute Gregor M. Kevrekian Worcester Polytechnic Institute Follow this and additional works at: https://digitalcommons.wpi.edu/iqp-all Repository Citation McCullough, A. N., Moore, E. L., & Kevrekian, G. M. (2006). Developing a Strategy for Integrating Green Chemistry in Thailand. Retrieved from https://digitalcommons.wpi.edu/iqp-all/2584 This Unrestricted is brought to you for free and open access by the Interactive Qualifying Projects at Digital WPI. It has been accepted for inclusion in Interactive Qualifying Projects (All Years) by an authorized administrator of Digital WPI. For more information, please contact [email protected]. Project Number: JRK C061 DEVELOPING A STRATEGY FOR INTEGRATING GREEN CHEMISTRY IN THAILAND An Interactive Qualifying Project Report submitted to the Faculty of the WORCESTER POLYTECHNIC INSTITUTE In partial fulfillment of the requirements for the Degree of Bachelor of Science By ____________________ __________________ Gregor Kevrekian Amanda McCullough ____________________ Erica Moore Date: March 2, 2006 _______________________________ Professor Robert Krueger, Major Advisor _______________________________ Professor Seth Tuler, Major Advisor EXECUTIVE SUMMARY Recent industrialization and growth of the chemical industry in Thailand has led to severe environmental degradation (Iwami, 2001). Each year, 1.7 million tons of hazardous waste are generated in Thailand and 78% of this waste comes from industry (NRC-EHWM, 2005). This figure may be even higher since Thailand lacks a systematic way to inventory chemicals and hazardous waste (Kamolsiripichaiporn, 2006).