<?xml version="1.0" encoding="UTF-8" standalone="yes"?><oembed><version><![CDATA[1.0]]></version><provider_name><![CDATA[amphoteros]]></provider_name><provider_url><![CDATA[http://amphoteros.com]]></provider_url><author_name><![CDATA[ayudin2013]]></author_name><author_url><![CDATA[https://amphoteros.com/author/ayudin2013/]]></author_url><title><![CDATA[Rosie Ruiz chemistry]]></title><type><![CDATA[link]]></type><html><![CDATA[<p>As 2016 is slowly winding up, let’s turn to Scopus and see what&#8217;s been cooking in this chemistry universe of ours. Tonight we will take the unfortunate misnomer &#8220;metal-free&#8221;. It turns out that in 2016 the synthetic community has churned out a whooping 1391 papers containing this topic. The vast majority of these papers are interesting and potentially useful. But this is <em><u>despite</u></em> being labeled &#8220;metal-free&#8221;, not <em><u>due</u></em> to some features of this dubious concept. This whole thing reminds me of <a href="https://en.wikipedia.org/wiki/Rosie_Ruiz">Rosie Ruiz</a>, who won the 84<sup>th</sup> Boston Marathon in 1980 in the female category. Her title was later taken away when it was uncovered that Rosie took the subway for a good chunk of that run. I liken many of the metal-free approaches to Rosie’s feat. Thankfully, these papers expose a huge gap in chemistry education: we do not provide our students with the origins of industrial chemicals. How many of us know how common components (such as benzaldehyde, pyridine, aniline, etc) of &#8220;metal-free&#8221; reactions are made in industry? Armed with this information, we might be able to better appreciate that the heavy lifting is often done early, using metal-based chemistry that is far less glorious than the picture painted later by those &#8220;metal-free&#8221; routes. In this age of sustainability, I always want to keep in mind that synthesis is not a sprint but a gruelling marathon.</p>
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