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37 -- Origin of Life

 

TUESDAY, April 15, 2008: Morning

Pascale Ehrenfreund
Leiden Institute of Chemistry, the Netherlands, EU and2NASA Goddard Space Flight Center, USA

Oliver Botta
International Space Science Institute, CH

Description

Today we are still far from having a compelling understanding of how life started on Earth or of the probability of the existence of life elsewhere in the universe. Life as we know it on Earth is based on carbon chemistry of three types of compound classes:  DNA and RNA that are involved in transcript and translation of the genetic code, proteins that act as functional units such as enzymes and amphiphilic compounds that are the major components of membranes. One of the central questions in the study of the origin of life is what kind of prebiotic chemistry has led to the evolution of self-organizing systems and eventually to life. This session invites papers that discuss the role of organic chemistry in the emergence of life as well as theoretical models and experiments that investigate the transition from nonliving to living matter.

ORAL SESSION

9:45           37-03-O. Mineral Surface Interactions of Prebiotic Organic Compounds:

                  Potential for Surface Selective Separations [invited]  

                  H. Cleaves, R.M. Hazen, C.M. Jonsson, C.L. Jonsson, D.A. Sverjensky

10:00         37-11-O. Complex Iron-Sulfur Enzyme Structure Function, and Biosynthesis:

                  Insights Into Ligand Assisted Catalysis   J. Peters, J.B. Broderick

10:15         37-06-O. Abiotic Formation of RNA-Like Hetero Oligomers by Mineral Catalysis:

                  A Model Study [invited]   R. Hazen, A. Snellinger-O’Brien, C. Ertem, M. Johnston,

                  D. Rogoff, J. Dworkin, G. Ertem

10:35         BREAK

11:00         37-01-O. Conway's Game of Life as a Tool to Increase High School Students'

                  Exposure to Computer Modeling and Contribute to Student Understanding of the

                  Properties of Life   L.A. de la Rubia, T. Gary, D. Hardin

11:15         37-14-O. Structure and Functionality of Proteins in the Origin of Life:

                  Phylogenetic and Modeling Studies of the ASIC1 Protein Channel  

                  M. Wilson, K. Schweighofer, A. Pohorille

11;30         37-04-O. The Concept of the RNA World   C. Cleland

11:45         37-07-O. Tholins under Appropriate Conditions Can Contribute Towards the

                  Ingredients for the Origin of Life   B. Khare, C. McKay, Y. Sekine, P. Wilhite,

                  D. Cruikshank, L. Tracy, K. Lanier, D. Nna-Mvondo, T. Ishihara

POSTERS

37-02-P.     Hot Science! Linking Research, Natural Resources and Education  

                   M. Bahr, S. Kelly, M. Brelsford, B. Bebout

37-05-P.     Quantum Mechanical Probabilistic Determinism and the Origin of Life  

                   N. Haydon, S.E. McGlynn, O. Robus, G. Brittan

37-08-P.     Three Successive Kinds of Transformation on the Way from a Prebiotic

                   Microsystem into a Living Unit   V. Kompanichenko, A. Voronina

37-09-P.     Self-organized Submonolayers of S-cysteine on Gold Surfaces  

                   E. Mateo-Marti, C. Rogero, P. De Andrés, J.-A. Martín-Gago

37-10-P.     An FeS cluster in HydA is Required for In-vitro Activation and Maturation of

                   [FeFe]-hydrogenases   D Mulder, A Naumov, J.B. Broderick, J.W. Peters

37-12-P.     The [FeFe] Hydrogenase H-cluster: Origins of Substrates for Biosynthesis  

                    S. Ruebush, J. Broderick, J. Peters

37-13-P.     Understanding the Role of HydF, a GTPase, in the Activation Process of [FeFe]

                   Hydrogenase Maturation   E. Shepard, Mark Winslow, S. McGlynn, A. Naumov, J. Peters,

                    J. Broderick 

 

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