When Prof. Standish C. Hartman (‘Stan’) retired in 2005, the Department of Chemistry held a grand celebration honoring his promotion to Professor Emeritus. A man of quiet dignity, with a dry sense of humor, Stan seemed taken aback by the turnout and tributes. Stan’s modesty prevented him from seeing what everyone else knew: that during his 37-years at BU as an educator, scientist, and Chair, he was instrumental in the impressive development of the Department of Chemistry, enabling many of the programmatic structures currently in place at the interface of chemistry and biology. It is with great sadness that we note Stan Hartman’s passing on March 24, 2014.
Stan Hartman joined the BU faculty in 1968 as an Associate Professor of Chemistry. He had received his PhD in Biochemistry from the Massachusetts Institute of Technology (MIT) in 1957. His academic career started as an instructor of Biological Chemistry (1957-1959) at MIT. From 1959 to 1963 he was an Associate in Biological Chemistry at the Harvard Medical School (HMS). He became an Assistant Professor in Biological Chemistry at HMS in 1964 until he came to BU in 1968. Prof. Hartman’s research interests were in enzymology (mechanisms of enzyme action) and recombinant DNA (retroviral vectors, gene isolation and characterization, mechanisms of mutagenesis, and methods for identifying kin relationships). As an educator he taught general biochemistry, enzymology (graduate level), physical chemistry of biomolecules (graduate level), and recombinant DNA (senior-graduate level). He was Chair of the Department of Chemistry from 1993 to 1997, then served as Associate Chair from 1997 until his retirement in 2005.
The brief bio above itemizes the facts of Stan’s academic career. We are fortunate in having a record of his “voice.” Upon his retirement, we published a “special issue” of a Chemistry newsletter dedicated to his career and contributions. The issue is primarily an interview with Prof. Hartman in which he shared insights from his nearly five decades of experience. His long career had given him a perspective that few can match. In the interview, Stan generously shared his candid views and insights on academic life in a department that has grown and evolved in response to the students and science it serves. Please take a moment to read the interview and appreciate what a wonderful member of the BU community we have lost. To access the newsletter, click here.
Donations: Stan Hartman’s family have asked that any contributions in his honor respect his wishes to benefit the Department of Chemistry. Donations commemorating Prof. Hartman can be made as follows:
|By check||Make out to:||Trustees of Boston University|
|Memo line:||“Department of Chemistry in Honor of Stan Hartman”|
|Mail to:||Boston University
Department of Chemistry
c/o of Prof. Lawrence Ziegler, Chair
590 Commonwealth Ave.
Boston, MA 02215
|To give on-line||Go to:||https://www.bu.edu/alumni-forms/forms/giving/online/index/|
|In gift designation box:||“Department of Chemistry in Honor of Stan Hartman”|
Former BU Chemistry Postdoctoral Faculty Fellow (2004-2007), John Miecznikowski, has been promoted to the rank of Associate Professor at Fairfield University.Â Prof. Miecznikowski started his independent career at Fairfield University in September 2007 in the Chemistry & Biochemistry Department.Â A dedicated and enthusiastic chemistry educator, he was selected as the Undergraduate Teacher of the Year at Fairfield UniversityÂ by Alpha Sigma Nu (Jesuit Honor Society) in 2011.
Prof. Miecznikowski received his Ph.D. in Inorganic Chemistry from Yale University in 2004, where his research with Prof. Robert Crabtree focused on developing several new aspects of transition-metal N-heterocyclic carbene chemistry.
Following his Ph.D., he joined the BU Chemistry Department as a Postdoctoral Faculty Fellow (PFF).Â Â The PFF Program provides a two-to-three-year, full time appointment in the Department of Chemistry for recent Ph.D. graduates who plan to pursue academic careers at 4-year liberal arts colleges as Prof. Miecznikowski did.Â It gives Fellows first-hand experience in teaching chemistry, while enabling them to conduct research.Â As a PFF, Prof. Miecznikowski was involved in team teaching General Chemistry I (CH101), and Inorganic Chemistry (CH232). Â He did postdoctoral research under the direction of Prof. John Caradonna. His research focused on synthesizing and characterizing Fe(II) and Fe(III) model complexes for the 2-His 1-Carboxylate Motif of mononuclear nonheme iron oxygenases.
Prof. Miecznikowski joins the distinguished list of PFF alumni who have also achieved tenure: Amy Bradley, Associate Professor and Chair, Wilkes College;Â Robert Harris, MA College of Liberal Arts; Allison Moore, Belmont University; and Laurie Tyler, Union College.
Since his retirement in 2009, Prof. Emeritus Richard Laursen, a protein chemist for most of his career, has focused on using modern chemical instrumentation to analyze textiles, paint, and other art and archaeological objects. Utilizing LC-MS, he has become a world-renowned expert in the analysis of dyes from natural sources in historical textiles, including those associated with the legendary Silk Road. As such he was invited to participate in the celebration of the 20th anniversary of the China National Silk Museum (CNSM), the largest such museum in the world, in Hangzhou, China (November 29 – December 2, 2012).
The event marked the establishment of the first academic Committee of the Research Base for Textile Conservation of the CNSM. Three members of the Committee are from outside of China: Richard Laursen; Susan Whitfield, Director of the International Dunhuang Project, British Library, London; and Marie-Louise Nosch, Director of the Danish National Research Foundation’s Centre for Textile Research and Professor of Ancient History, University of Copenhagen. Named for a period of three years (2013-2015), Committee members Laursen and Whitfield entered into co
llaborative agreements with Zhao Feng, Director of the CNSM.
On the last day Richard Laursen presented a talk at the commemorative conference, “Researches on and conservation of textiles from the Silk Road.” His talk was on “Natural Dyes in Textiles from the Silk Road.”
The following day, Prof. Laursen met with Liang Songping, Professor of Biology at Hunan Normal University and a former Laursen group postdoc, and with Zhao Feng, and members of the Conservation Science Department of the CNSM to discuss using proteomics for distinguishing between different species of silk in archaeological specimens.
As part of BU’s September 2012 annual alumni weekend celebrations, the Department of Chemistry invited four distinguished alumni to describe some highlights of their varied careers in science and technology and how their BU education launched them on these career paths. The speakers ranged in fields (theoretical chemistry to organic chemistry to physical chemistry) and careers (academia, entrepreneurship, law, industry) and BU educational experiences (undergraduate to Ph.D.). The symposium proved to be both practical in terms of career advice and touching in the tribute speakers paid to their advisors, and demonstrated the substantial impact that their BU Chemistry training had in helping to shape these successful careers. The photo shows the speakers with their advisors: Dr. Victor Battista, GRS ’96, now Professor of Chemistry at Yale, with Prof. John Straub (standing in for Victor’s advisor, David Coker); Dr. Les Dakin, GRS ’03, now scientist at Constellation Pharmaceuticals with advisor, Jim Panek; Dr. Jack Driscoll, GRS ’67, founder of HNU PID with advisor Professor Emeritus, Morton Hoffman; and Dr. Matt Zisk, CAS ’85, now partner and patent counsel at Skadden, Arps, Slate, Meagher & Flom LLP & Affiliates with advisor, Professor Emeritus Gil Jones.
In this tribute, Professor Scott Mohr remembers his colleague and friend, Norman Lichtin
Norman N. Lichtin, longtime member of the faculty of Boston University’s Department of Chemistry and its fifth chairman, passed away on April 30, 2012, aged 89. Norman played a major role in building the department and had a distinguished research career spanning 51 years that resulted in more than 80 publications in top-tier journals. He mentored 27 PhD graduates, 15 master’s students, and 28 post-doctoral research associates. His teaching spanned the range from undergraduate courses in general chemistry, organic chemistry, and physical chemistry, and a seminar on “Man and Energy,” to graduate courses in advanced organic chemistry, physical organic chemistry, photo- and radiation chemistry and chemical kinetics. More
BU Chemistry has dramatically improved the undergraduate organic chemistry laboratory by giving students access to major research instrumentation and state-of-the-art technology. By enabling more modern experimentation, these resources foster critical thinking and problem solving skills that prepare undergraduates for graduate and pre-professional schools or for careers in industry. Advanced experimentation also enables more sophisticated student-designed research-type projects.
Renovations and instrumentation
Renovations in the Metcalf Center for Science and Engineering (Summer 2011) have transformed our organic chemistry instructional laboratories into an 6,350 sq. ft. suite with fume hoods and bench areas for each student, auxiliary support space, and a chemical stockroom. Space has been dedicated for an undergraduate instrumentation center for with fully automated high field nuclear magnetic resonance (NMR), ultra-performance liquid chromatography–mass spectrometry (UPLC-MS), Fourier transform infrared spectroscopy (FT-IR), and gas chromatography-mass spectrometry (GC-MS). Microwave reactors allow for rapid reaction rates, enabling multistep syntheses to be undertaken in a single day.
Advanced Technology in the Laboratory Curriculum
The entire laboratory curriculum of our sophomore-level organic chemistry sequence has been transformed with the adoption of the “paperless laboratory” through the use of electronic laboratory notebooks. Spearheaded by Professor John Snyder and Professor Scott Schaus and Postdoctoral Faculty Fellow, Seann Mulcahy, integration of these technology resources have enabled the creation of an open-access repository of laboratory protocols, design of laboratory experiments that facilitate sharing of data between students and between disciplines, exposure to automated NMR, GC-MS, and UPLC-MS, and remote download and manipulation of spectroscopic data.
- Fast Forward to the 21st Century -The new instrumentation advances undergraduate capabilities well beyond those in traditional sophomore organic textbooks that repeat traditional experiments. Instead, we have designed novel, research-oriented, exploratory experiments that have applicability to modern organic chemistry. These include cross-coupling experiments, olefin metathesis, and many others. Experiment protocols are available on BU’s Digital Common site (DCommon), an open-access online repository that is accessible not only by our students, but by outside instructors as well. Users can be granted upload privileges to deposit modified or new protocols thereby creating a rich resource to the worldwide research community. In addition, a DCommon collection of NMR and UPLC-MS spectra is being compiled as a teaching tool for organic chemistry courses.
- Major Instrumentation – BU is unique in using the latest instrumentation for routine, hands-on training at the sophomore level. The laboratory’s state-of-the-art instrumentation also allows comprehensive characterization of synthetic material prepared in each experiment. Students now routinely run 1H and 13C NMR (and 2D COSY), UPLC/MS, GC/MS, and FT-IR on their own samples and to obtain a set of data which approaches the quality needed for publication.
- Into the Cloud – Our students are now using fully electronic laboratory notebooks, which they populate on their laptops with reaction details, procedural notes, and safety protocols. Analytic data and spectra (manipulated and interpreted remotely) are uploaded into the notebook and serve as part of their final laboratory reports.
Elisa served as a Peer-Led Team Learning (PLTL) workshop leader in that course as a sophomore, and she conducted undergraduate research for two and a half years on chemical dynamics of high energy molecules with Professor Amy Mullin.
While at BU, she was named the Beckman Foundation Scholar for 2003-2005. She is currently finishing her Ph.D. in physical chemistry with Professor Carl Lineberger on anion photoelectron spectroscopy in the gas phase at the University of Colorado at Boulder.
When Professor Emeritus Richard Laursen retired in 2009, his students and colleagues wanted to recognize his 43 years of excellent research, teaching, and mentoring by establishing the Laursen Fund in his honor. The goal is to raise $100,000. We are now halfway to meeting that goal.
Led by Chemistry alumnus Luis Ruzo (CAS 1970), a former Laursen undergraduate, the fund will help provide an annual summer research stipend for a graduate or undergraduate student from candidates nominated by their advisors.
Known for his exceptional mentoring, Rich Laursen, who is still actively pursuing his research interests in Chemistry, would very much like to see the capital grow so that the interest can annually support the training and nurturing of exceptional young scientists.
Chemistry friends and alumni are invited to view our completely redesigned and renovated front office by clicking here or — better yet — by visiting. While looking radically different, the new front office fits seamlessly into the original footprint. The College of Arts and Sciences (CAS) commissioned the design from Kristine Stoller and Alan Westman (LEED Green Associate at KSID, LLC) and the construction from JK Blackstone. Led by the Chair of Chemistry, Professor John Straub, and the Director of Operations, Paul Ferrari, staff members were consulted throughout the process and their recommendations and requests informed the new design.
The design highlight of office is the wall-mounted periodic table designed by Professor Dan Dill. Suggested by Kris Stoller, the image brilliantly connects the office to “Chemistry” and immediately points to the mission of the Department. So how did Dan Dill design his periodic table? Read on!
When we needed a graphically compelling representation of the Periodic Table for the Chemistry front office, we turned to Professor Dan Dill. In addition to his theoretical and physical chemistry expertise, Professor Dill is an accomplished photographer, who received a Kodak Award in 2006. Here is his recounting of the process:
“I received an e-mail from our Chair, John Straub, in which he related designer Kristine Stoller’s idea for a periodic table in the new office. John ended his message with:
I was thinking of the very nice Periodic Table that you created years ago, and that has been much used in our Department.
The tools I used to create that original Periodic Table have been lost in the sands of digital time, and so it was necessary to begin anew, using the latest version of Adobe Illustrator.
The first step in the new design was to settle on the format of the element boxes. The box for Xenon shows what we settled on, using the typeface Adobe Myriad Pro. (The dark chevron indicates that at room temperature Xenon is a gas.)
With that done, the next step was to assemble the elements into the traditional periodic table format, adapted to the dimensions of the wall in the new chemistry office. It was then that Kristine mentioned her plan to have the table printed on six resin panels. Her innovative concept allowed us to break with convention by partitioning the table itself into six portions.
At this point we thought that the only thing left to do was to check and recheck all entries for errors. Everyone in the department enthusiastically helped with this task. Just as we were completing it, the International Union of Pure and Applied Chemistry published its technical report, “Atomic weights of the elements 2009″ (Wieser & Coplen, 12 December 2010). It recommended that atomic weights for Boron, Carbon, Chlorine, Hydrogen, Lithium, Nitrogen, Oxygen, Sulfur, Silicon and Thallium span intervals (shown, for example, for Nitrogen as 14.00643–14.00728), due to variation in isotopic composition of their stable isotopes.
We consider it good fortune to have been able to incorporate these latest recommendations into the table. After many new rounds of proof reading, the completed design was printed on the resin panels displayed in the office.