In this talk, Joe Incandela will present an overview of the LHC physics program, including highlights from the discovery of a Higgs boson and a summary of more recent studies that incorporate more data. He will briefly discuss expectations for future results in years to come.
In this talk, Joe Incandela will present an overview of the LHC physics program, including highlights from the discovery of a Higgs boson and a summary of more recent studies that incorporate more data. He will briefly discuss expectations for future results in years to come.
This Biotech Symposium will focus on computational methods for detecting structural variants, which include large chromosomal insertions, deletions, inversions and translocations.
This Biotech Symposium will focus on computational methods for detecting structural variants, which include large chromosomal insertions, deletions, inversions and translocations.
This Biotech Symposium will focus on computational methods for detecting structural variants, which include large chromosomal insertions, deletions, inversions and translocations.
Thought experiments have played an important role in figuring out the laws of physics. For the unification of quantum mechanics and gravity, where the phenomena take place in extreme regimes, they are even more crucial. Hawking’s 1976 paper “Breakdown of Predictability in Gravitational Collapse” presented one of the great thought experiments in the history of physics, arguing that black holes destroy information in a way that requires a modification of the laws of quantum mechanics. Skeptics for years failed to poke holes in Hawking’s argument, but concluded that if quantum mechanics is to be saved then our understanding of spacetime must break down in a radical way.
L. Mahadevan will explain how a combination of biological and physical experiments, together with mathematical models and computations, begin to unravel the physical basis for morphogenesis. He will go on to explore how these pan-disciplinary problems enrich the origins of this topic, creating new questions in mathematics, physics and biology.
L. Mahadevan will explain how a combination of biological and physical experiments, together with mathematical models and computations, begin to unravel the physical basis for morphogenesis. He will go on to explore how these pan-disciplinary problems enrich the origins of this topic, creating new questions in mathematics, physics and biology.
L. Mahadevan will explain how a combination of biological and physical experiments, together with mathematical models and computations, begin to unravel the physical basis for morphogenesis. He will go on to explore how these pan-disciplinary problems enrich the origins of this topic, creating new questions in mathematics, physics and biology.
In biological systems, there are striking examples where complicated structures (i.e., the bacterial ribosome) can spontaneously assemble, driven by specific interactions between the components. But how can systems be designed to have this property? Recent technological advances have created the opportunity for making technologically relevant systems that self assemble, using strands of DNA or objects coated with DNA. We will use these systems as inspiration to formulate theoretical models to understand how self assembly works in these systems, through theory, numerical simulation and experiment — and start to speculate as to whether resulting principles might be useful for unravelling the rules of biological self-assembly.
