Joel Tickner, Executive Director, Change Chemistry

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It is estimated that only 1-2% of chemists ever venture onto the road less travelled—launching a chemistry start-up (Knauer, 2021). The reason likely lies in the significant commitment and sacrifice associated with starting a new venture. How would you kn

Electricity has existed naturally since the beginning of time. Over centuries, humans have devised ways to capture electricity and eventually create it.

Once being able to generate electricity, there has been no shortage of ingenious ways to use it – lighting, kitchen appliances, communications and electronics of all kinds, automobiles – to name a few.

The first 19th-century use for electricity was the incandescent light bulb, devised by the great and prodigious inventor, Thomas Alva Edison.  He obtained a U.S. Patent for his lightbulb in 1880. His light bulbs, attached to small generators, started to illuminate the homes of the very wealthy and heralded the ultimate demise of gas-fueled lighting. 

Contributed by Jane Murray, Ph.D., Global Head of Green Chemistry, Merck KGaA, Darmstadt, Germany (MilliporeSigma)

Biomass feedstocks offer several advantages over conventional fossil-based starting materials. In addition to providing an abundant source of renewable organic carbon, its oxygenated nature, chemical diversity, and inherent chirality render biomass a highly suitable raw material to manufacture a multitude of high-added-value compounds. Furthermore, structural resemblance to nature-derived or -inspired target molecules reduces the synthetic steps required compared to their petrochemical counterparts.

Glenn Ruskin, ACS GCI Contributor

Ever since humans harnessed fire over 1.5 million years ago, combustion has been at the heart of our energy creation. Fire from wood was first used by humans to cook meat, provide warmth and protection from wild animals. It wasn’t until the early 19th century, that fossil fuels (coal, oil and natural gas) replaced wood as the primary source of energy generation. Today the vast majority, over 80%, of energy is still generated by fossil fuels, with nuclear comprising 10% and other renewable sources making up the rest.

20 Years of Scientific Breakthroughs That Both Change Patients’ Lives and Sustain a Healthy Planet

By Juan Colberg, Seda Arat, Maria Gonzalez Esguevillas, Scott France, Kailey Huot, Rajesh Kumar, Daniel Laity, Manjinder Lall, Johnny Lee, Javier Magano, Jared Piper, Paul Richardson, Philipp Roosen, Rebecca Watson.

One definition for Green Chemistry (GC) is the design of chemical products and processes that reduce or eliminate the use or generation of hazardous substances. Pfizer has embraced this concept and applied it across the life cycle of its products, facilitating process design, manufacturing, and utilization. Green chemistry principles provide a unique framework to guide process development, which ultimately leads to an optimal chemical process from both an environmental and economic perspective.

By Frank Roschangar, Boehringer Ingelheim

More than ever before, pharmaceutical companies are expected to assess the impact of their sustainable development achievements.  However, the lack of a consistent metric system impedes the objective quantification and comparability of key sustainability indicators.  One of those indicators is Active Pharmaceutical Ingredient (API) manufacturing waste, which aligns with the United Nations Sustainable Development Goal (SDG) 12—Ensure sustainable consumption and production patterns.

On June 11, Helen Sneddon, Ph.D., Scientific Team Director in Medicinal Chemistry at GlaxoSmithKline, presented an overview of the ACS Green Chemistry Institute Pharmaceutical Roundtable tools during the 25^th Annual Green Chemistry & Engineering Conference. A summary of her presentation below provides a quick overview of these free public resources. You can also watch Dr. Sneddon’s complete 20-minute presentation at https://www.acsgcipr.org/tools-for-innovation-in-chemistry.  

By Matthew Deinhardt, ACS Green Chemistry Institute

Agilent Technologies shares how they are leading the way in sustainable supply chains and instrument production from a holistic approach.

Agilent, a 2021 Green Chemistry & Engineering Conference Gold Sponsor, provides analytical instruments, software, and services for laboratory workflow, from start to finish. The company focuses its services and products to meet the needs of six key markets: food, environmental and forensics, pharmaceutical, diagnostics, chemical and energy, and research. I recently had a chance to interview Agilent’s Michael Frank, Ph.D., Associate Vice President of Global Marketing within the Liquid Phase Separations Division, to discuss how Agilent is improving and “greening” their processes for a more sustainable ecosystem.

By Anthony Maiorana, polymer chemist and writer of The Polymerist Newsletter

If we think about modern industrial chemistry, things really took off around the 1940s as steam cracking, catalytic cracking, and the use of synthetic materials started to become widespread. The widespread availability of refined oil at low costs over the last 60 years created less of a need for refining chemicals from biomass, but crude oil is inherently finite on a human time scale. Over the last few decades we have seen the growth of green chemistry and engineering principles in academia and the chemical industry for numerous reasons, but one of them is the potential future scarcity of oil as a chemical feedstock. If you are reading this then, it is likely through the ACS Green Chemistry Institute and I won’t get into the specifics of green chemistry principles, but I will attempt to write about the utilization of biomass in industrially relevant specialty polymers and plastics.