Tackling challenges in understanding biological processes require sophisticated dimension-reduction techniques that are biologically meaningful, computationally efficient, and allow uncertainty quantification, says a Cornell Research article. Together with other Cornell researchers, Andrew G. Clark, the Jacob Gould Schurman Professor of Population Genetics, is developing a statistical approach that incorporates prior biological information, supported by a grant from the National Institutes of Health.
"Genomics, proteomics, and metabolomics are creating new opportunities to understand complex, dynamic biological processes such as organ development, immune response, and disease progression," says the article. "Recent experimental advances generate huge biological data sets, making it possible to investigate these biological systems in a data-driven fashion at high temporal resolution."
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From left, MFA students Gerardo Iglesias, Sarah Iqbal and Aishvarya Arora listen to observations by two young poets at the Ithaca Children’s Garden.
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Semiconductors are at the core of the economy and national security. Their importance makes them a target. Sarah Kreps, director of the Tech Policy Institute in the Cornell Jeb E. Brooks School of Public Policy, discusses how Cornell is helping to keep the semiconductor supply chain safe.
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The Peace Arch, situated near the westernmost point of the Canada–United States border in the contiguous United States, between Blaine, Washington and Surrey, British Columbia.
