Abstract: A genomic update system can generate a user interface from network pages based on user variant data and network services associated with the network pages. A trait data structure tracks network services for different trait categories. A given network page of a given category can be used to identify a different category and different network services and content for display to a user. Content in the trait data structure can be included in a user interface with additional contextual visualizations that allow the user to interact with the links and content via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on user variant data and network services associated with the network pages. A trait data structure tracks network services for different trait categories. A given network page of a given category can be used to identify a different category and different network services and content for display to a user. Content in the trait data structure can be included in a user interface with additional contextual visualizations that allow the user to interact with the links and content via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on user variant data and network services associated with the network pages. A trait data structure tracks network services for different trait categories. A given network page of a given category can be used to identify a different category and different network services and content for display to a user. Content in the trait data structure can be included in a user interface with additional contextual visualizations that allow the user to interact with the links and content via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on variant data in one or more of the network pages matching user variant data. Some of the network pages may be in an elevated or trusted class and linking pages may link to those network pages. Content from the linking pages can be included with one or more visualizations in the user interface for interaction by a user via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on variant data in one or more of the network pages matching user variant data. Some of the network pages may be in an elevated or trusted class and linking pages may link to those network pages. Content from the linking pages can be included with one or more visualizations in the user interface for interaction by a user via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on user variant data and network services associated with the network pages. A trait data structure tracks network services for different trait categories. A given network page of a given category can be used to identify a different category and different network services and content for display to a user. Content in the trait data structure can be included in a user interface with additional contextual visualizations that allow the user to interact with the links and content via a user device, such as a handheld mobile device.

Abstract: A genomic update system can generate a user interface from network pages based on user variant data and network services associated with the network pages. A trait data structure tracks network services for different trait categories. A given network page of a given category can be used to identify a different category and different network services and content for display to a user. Content in the trait data structure can be included in a user interface with additional contextual visualizations that allow the user to interact with the links and content via a user device, such as a handheld mobile device.

Abstract: The present invention is directed to a platform (e.g., Web-based) that enables basic and clinical research activities by integrating patient characteristics and clinical outcome data with a variety of high-throughput research data in a unified environment. While several rich data repositories for high dimensional research data exist in the public domain, most focus on a single data type and do not support integration across multiple technologies. The present invention in at least one embodiment includes a broad collection of bioinformatics and systems biology tools for analysis and visualization of four major “omics” types: DNA, mRNA, microRNA, and metabolites, as well as next-generation sequencing. The present invention helps facilitate systems medicine by providing easy identification of trends and patterns in integrated datasets and hence facilitate the use of better targeted therapies for cancer.

Abstract: The present invention is directed to a platform (e.g., Web-based) that enables basic and clinical research activities by integrating patient characteristics and clinical outcome data with a variety of high-throughput research data in a unified environment. While several rich data repositories for high dimensional research data exist in the public domain, most focus on a single data type and do not support integration across multiple technologies. The present invention in at least one embodiment includes a broad collection of bioinformatics and systems biology tools for analysis and visualization of four major “omics” types: DNA, mRNA, microRNA, and metabolites, as well as next-generation sequencing. The present invention helps facilitate systems medicine by providing easy identification of trends and patterns in integrated datasets and hence facilitate the use of better targeted therapies for cancer.