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Events Archive
2012
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Thursday, December 13, 2012
Senior Project Poster SessionReem-Kayden Center Students Presenting:Stephanie Dunn Adviser: Felicia Keesing Justin Gero Adviser: Felicia Keesing Liza Miller Adviser: Brooke Jude Keaton Morris-Stan Adviser: Philip Johns Megan Naidoo Adviser: Philip Johns Jonah Peterschild Adviser: Felicia Keesing Damianos Lazaridis Giannopoul Adviser: John Cullinan Sponsored by: Division of Science, Mathematics, and Computing Sven Anderson 845-752-2322 [email protected] |
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Tuesday, November 27, 2012
Turning a Single Molecule into an Electric MotorReem-Kayden Center Laszlo Z. Bito '60 Auditorium A lecture byCharlie Sykes Tufts University In stark contrast to nature, current manmade devices, with the exception of liquid crystals, make no use of nanoscale molecular motion. In order for molecules to be used as components in molecular machines, methods are required to couple individual molecules to external energy sources and to selectively excite motion in a given direction. Significant progress has been made in the construction of molecular motors powered by light and by chemical reactions, but electrically-driven motors have not been demonstrated yet, despite a number of theoretical proposals for such motors. Studying the rotation of molecules bound to surfaces offers the advantage that a single layer can be assembled, monitored and manipulated using the tools of surface science. Thioether molecules constitute a simple, robust system with which to study molecular rotation as a function of temperature, electron energy, applied fields, and proximity of neighboring molecules. A butyl methyl sulphide (BuSMe) molecule adsorbed on a copper surface can be operated as a single-molecule electric motor. Electrons from a scanning tunneling microscope are used to drive directional motion of the BuSMe molecule in a two terminal setup. Moreover, the temperature and electron flux can be adjusted to allow each rotational event to be monitored at the molecular-scale in real time. The direction and rate of the rotation are related to the chiralities of the molecule and the tip of the microscope (which serves as the electrode), which illustrates the importance of the symmetry of the metal contacts in atomic-scale electrical devices. Sponsored by: Chemistry Program Christopher LaFratta 845-752-2353 [email protected] |
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Thursday, September 27, 2012
Bard Summer Research Poster SessionReem-Kayden Center Students presenting:Michael Anzuoni, Tedros Balema, Amanda Benowitz, Cara Black, Sheneil Black, Max Brown, Celeste Cass, Matteo Chierchia, Nikesh Dahal, Francesca DiRienzo, Leila Duman, Jose Falla, David Goldberg, Sumedha Guha, Nabil Hossain, Linda Ibojie, Lena James, Seoyoung Kim, Thant Ko Ko, Lila Low-Beinart, Yuexi Ma, Keaton Morris-Stan, Mark Neznansky, Matthew Norman, Ian Pelse, Liana Perry, Min Kyung Shinn, Olja Simoska, William Smith, Nathan Steinauer, Xiaohan Sun, James Sunderland, Weiqing Wang, Michael Weinstein, Clare Wheeler, Sara YilmazAdvisers: Craig Anderson, Christian Bracher, John Cullinan, Swapan Jain, Philip Johns, Brooke Jude, Tanay Kesharwani, Christopher LaFratta, Barbara Luka, Emily McLaughlin, Keith O’Hara, Lauren RoseSponsored by: Bard Summer Research Institute Mark Halsey 845-752-2336 [email protected] |
Tuesday, September 25, 2012
Lab Safety TrainingRKC 114 REQUIRED OF ALL STUDENTS WORKING OR DOING RESEARCH IN THE LABIf you previously attended a lab training session, you do not need to attend again. If you are unsure, please contact Dwane Decker with questions at [email protected]. Tuesday, September 25 12:30-1:30 RKC 114 Wednesday, September 26 12:00-1:00 RKC 114 Thursday, September 27 5:00-6:00 RKC 114 Sponsored by: Biology Program; Chemistry Program Dwane Decker 845-752-2342 [email protected] |
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Thursday, May 17, 2012
Senior Project Poster SessionReem-Kayden Center Graduating Seniors:Daniela Anderson, Lilah Anderson, Nadya Artiomenco, Conor Beath, Rachel Becker, Jeannette Benham, Matthew Boisvert, Samantha Brechlin, Ke Cai, Nicole Camasso, Curtis Carmony, Deven Connelly, Shellie Ann Dick, Sara Doble, Siyao Du, Madison Fletcher, Briana Franks, Abigail Fuchsman, Kira Gilman, Erin Hannigan, Lucas Henry, Andrew Hoffman-Patalona, Maxwell Howard, Yunxia Jia, Adriana Johnson, Axel Kammerer, Nicole Kfoury, Sankalpa Khadka, Youseung Kim, Sining Leng, Emily Mayer, Stergios Mentesidis, Mariya Mitkova, Samantha Monier, Jessica Philpott, Jega Jananie Ravi, Laura Schubert, Lindsey Scoppetta, Evan Seitchik, Hannah Shapero, Abhimanyu Sheshashayee, Eli Sidman, Gabriella Spitz, Veronica Steckler, Joshua Tanner, Emma Taylor-Salmon, Isabelle Taylor, Giang Tran, Will Wisseman, Kimberly Wood, Zhiwei Wu, Dimin Xu, Jing Yang, Yongqing Yuan, Changwei Zhou Sponsored by: Division of Science, Mathematics, and Computing Emily McLaughlin 845-752-2355 [email protected] |
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Friday, April 27, 2012
Exploring Alternative Routes to the Origin and Evolution of RNA-like PolymersCampus Center, Multipurpose Room 13th Annual Mid-Hudson ACS Undergraduate Chemistry Research SymposiumPlenary Lecture Nicholas V. Hud Professor of Chemistry School of Chemistry and Biochemistry Georgia Institute of Technology NSF-NASA Center for Chemical Evolution NASA Astrobiology Institute Center for Ribosome Evolution A leading hypothesis for the nature of early life on Earth is that RNA once stored genetic information and catalyzed chemical reactions, before the appearance of DNA and protein enzymes. Despite considerable enthusiasm for this “RNA world” hypothesis, it is difficult to imagine how RNA was formed without the aid of protein enzymes. Persistent challenges to an acceptable prebiotic route to RNA polymers include the lack of a robust process for nucleobase selection (How were Watson-Crick base pairs chosen?), nucleoside formation (What reaction joined the nucleobases to ribose?), and nucleotide polymerization (How did the backbone of RNA form without a highly evolved polymerase?). As a possible solution to these challenges, we are investigating the possibility that RNA was preceded by a polymer that would have assembled more easily than RNA, being comprised of a different backbone and different nucleobases, and with its synthesis aided by other molecules present on the prebiotic Earth. Our experimental studies have demonstrated that small molecules that intercalate nucleic acids, similar to dye molecules commonly used to visualize DNA, can greatly facilitate the polymerization of short oligonucleotides. Results from other studies are showing how reversible backbone linkages would have facilitated polymer growth and early sequence evolution of the earliest RNA-like polymers. Sponsored by: Chemistry Program Swapan Jain 845-752-2354 [email protected] |
Wednesday, February 15, 2012
Lab Safety TrainingRKC 114 The last lab safety training workshop has been rescheduled forWednesday, February 15th at 12 p.m. in RKC 114. Sponsored by: Biology Program; Chemistry Program Dwane Decker 845-752-2342 [email protected] |