BEGIN:VCALENDAR
VERSION:2.0
X-WR-CALNAME;VALUE=TEXT:Professor David Milstein (The Weizmann Institute of Science) - Max Tishler Prize Lecture
PRODID:-//Harvard events data//EN
BEGIN:VEVENT
UID:event_1588351_0
SUMMARY:Professor David Milstein (The Weizmann Institute of Science) - Max Tishler Prize Lecture
DESCRIPTION:<p>	Max Tishler Prize Lecture</p><p>	Title: "<span><span><span><span style='NewRoman",serif'>Design and Applications of Catalytic Reactions for Green Synthesis and Energy </span></span></span></span>"</p><p>	<!--break-->Abstract: <span><span><span style="line-height:15.333332px"><span lang="FR-CH"><span style="line-height:19.933334px"><span style='NewRoman",serif'>Design and d</span></span></span><span lang="DE"><span style="line-height:19.933334px"><span style='NewRoman",serif'>evelopment of catalytic reactions for green synthesis and for green energy are major goals of catalysis. We have developed new, efficient, environmentally benign reactions catalyzed by pincer-type metal complexes, several of which either produce hydrogen gas or consume it and proceed by a mode of metal-ligand cooperati</span></span></span><span><span style="line-height:19.933334px"><span style='NewRoman",serif'>on (MLC)</span></span></span><span><span style="line-height:19.933334px"><span style='NewRoman",serif'> in which both the metal center and the ligand undergo bond making and breaking. Reactions catalyzed by pincer complexes, in which most of the catalytic activity is ligand-based, were also developed, as well as reactions based on the concept of transient cooperating ligands.</span></span></span> <span lang="DE"><span style="line-height:19.933334px"><span style='NewRoman",serif'>Various green synthetic and energy-relaed applications based on these catalytic reactions will be described, such as mild, waste-free generation of amide bonds suitable for pharmaceuticals synthesis; new syntheses of heterocycles; hydrogenative depolymerization of nylons; oxidation of organic compounds using water as formal oxidant liberating H<sub>2</sub>; alkene perdeuteration using H<sub>2</sub> and D<sub>2</sub>O; and new, high capacity liquid organic hydrogen carriers (LOHCs).</span></span></span></span></span></span></p>
LOCATION:Pfizer Lecture Hall
STATUS:CONFIRMED
DTSTART:20250306T211500Z
DTEND:20250306T221500Z
END:VEVENT
END:VCALENDAR