208/19/2018 - 8/23/2018  Genome Biophysics: Integrating Genomics and Biophysics to Understand Structural and Functional Aspects of Genomes Genomic tools are becoming essential in molecular and personalized medicine by virtue of their capacity to analyze diversity within the human genome. Whereas genomic variability at the sequence level is manifestly involved in health and diseases of organisms, little is known about the roles that such variability plays in the physical organization of genomes. The theme of this meeting is an exploration of the long-overdue application of biophysical methods in genomics, emphasizing structural and functional aspects of genome and transcriptome dynamics. Proposed topic areas include extremophile genomes, highly compact genomes, extrachromosomal circular DNAs, circular and micro RNAs, DNA viruses and viroids, and other nucleic-acid and chromatin structures having potential roles in genome regulation. | 218/19/2018 - 8/23/2018 Genome Biophysics: Integrating Genomics and Biophysics to Understand Structural and Functional Aspects of Genomes Genomic tools are becoming essential in molecular and personalized medicine by virtue of their capacity to analyze diversity within the human genome. Whereas genomic variability at the sequence level is manifestly involved in health and diseases of organisms, little is known about the roles that such variability plays in the physical organization of genomes. The theme of this meeting is an exploration of the long-overdue application of biophysical methods in genomics, emphasizing structural and functional aspects of genome and transcriptome dynamics. Proposed topic areas include extremophile genomes, highly compact genomes, extrachromosomal circular DNAs, circular and micro RNAs, DNA viruses and viroids, and other nucleic-acid and chromatin structures having potential roles in genome regulation. | 228/19/2018 - 8/23/2018 Genome Biophysics: Integrating Genomics and Biophysics to Understand Structural and Functional Aspects of Genomes Genomic tools are becoming essential in molecular and personalized medicine by virtue of their capacity to analyze diversity within the human genome. Whereas genomic variability at the sequence level is manifestly involved in health and diseases of organisms, little is known about the roles that such variability plays in the physical organization of genomes. The theme of this meeting is an exploration of the long-overdue application of biophysical methods in genomics, emphasizing structural and functional aspects of genome and transcriptome dynamics. Proposed topic areas include extremophile genomes, highly compact genomes, extrachromosomal circular DNAs, circular and micro RNAs, DNA viruses and viroids, and other nucleic-acid and chromatin structures having potential roles in genome regulation. | 238/19/2018 - 8/23/2018 Genome Biophysics: Integrating Genomics and Biophysics to Understand Structural and Functional Aspects of Genomes Genomic tools are becoming essential in molecular and personalized medicine by virtue of their capacity to analyze diversity within the human genome. Whereas genomic variability at the sequence level is manifestly involved in health and diseases of organisms, little is known about the roles that such variability plays in the physical organization of genomes. The theme of this meeting is an exploration of the long-overdue application of biophysical methods in genomics, emphasizing structural and functional aspects of genome and transcriptome dynamics. Proposed topic areas include extremophile genomes, highly compact genomes, extrachromosomal circular DNAs, circular and micro RNAs, DNA viruses and viroids, and other nucleic-acid and chromatin structures having potential roles in genome regulation. | 24 | 25 | 26 |
| 3 | 49/4/2018 - 9/7/2018  The Heart by Numbers: Integrating Theory, Computation and Experiment to Advance Cardiology The focus on mathematical and biophysical models coupled with experiments sets this meeting apart from cardiological and biological meetings. The meeting will be highly interdisciplinary with contributions from medicine, biology, physics, bioengineering, and mathematics. Specifically, topics will include: Cell level: modelling of excitation contraction coupling, sarcomere models, metabolic modelling, ROS signalling, spatially resolved models and subcellular structures; Hemodynamics: flow in atria and ventricles, aortic flow, valve stenosis replacement, stenting; Organ level: Electrophysiology, Mechanics, total heart function, personalization; Modelling diseases: arrhythmia, antitachypacing and defibrillation, Cardiac Resynchronization Therapy. | 59/4/2018 - 9/7/2018 The Heart by Numbers: Integrating Theory, Computation and Experiment to Advance Cardiology The focus on mathematical and biophysical models coupled with experiments sets this meeting apart from cardiological and biological meetings. The meeting will be highly interdisciplinary with contributions from medicine, biology, physics, bioengineering, and mathematics. Specifically, topics will include: Cell level: modelling of excitation contraction coupling, sarcomere models, metabolic modelling, ROS signalling, spatially resolved models and subcellular structures; Hemodynamics: flow in atria and ventricles, aortic flow, valve stenosis replacement, stenting; Organ level: Electrophysiology, Mechanics, total heart function, personalization; Modelling diseases: arrhythmia, antitachypacing and defibrillation, Cardiac Resynchronization Therapy. | 69/4/2018 - 9/7/2018 The Heart by Numbers: Integrating Theory, Computation and Experiment to Advance Cardiology The focus on mathematical and biophysical models coupled with experiments sets this meeting apart from cardiological and biological meetings. The meeting will be highly interdisciplinary with contributions from medicine, biology, physics, bioengineering, and mathematics. Specifically, topics will include: Cell level: modelling of excitation contraction coupling, sarcomere models, metabolic modelling, ROS signalling, spatially resolved models and subcellular structures; Hemodynamics: flow in atria and ventricles, aortic flow, valve stenosis replacement, stenting; Organ level: Electrophysiology, Mechanics, total heart function, personalization; Modelling diseases: arrhythmia, antitachypacing and defibrillation, Cardiac Resynchronization Therapy. | 79/4/2018 - 9/7/2018 The Heart by Numbers: Integrating Theory, Computation and Experiment to Advance Cardiology The focus on mathematical and biophysical models coupled with experiments sets this meeting apart from cardiological and biological meetings. The meeting will be highly interdisciplinary with contributions from medicine, biology, physics, bioengineering, and mathematics. Specifically, topics will include: Cell level: modelling of excitation contraction coupling, sarcomere models, metabolic modelling, ROS signalling, spatially resolved models and subcellular structures; Hemodynamics: flow in atria and ventricles, aortic flow, valve stenosis replacement, stenting; Organ level: Electrophysiology, Mechanics, total heart function, personalization; Modelling diseases: arrhythmia, antitachypacing and defibrillation, Cardiac Resynchronization Therapy. | 8 | 9 |