2005
DOI: 10.1504/ijbra.2005.006903
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BioStar models of clinical and genomic data for biomedical data warehouse design

Abstract: Biomedical research is now generating large amounts of data, ranging from clinical test results to microarray gene expression profiles. The scale and complexity of these datasets give rise to substantial challenges in data management and analysis. It is highly desirable that data warehousing and online analytical processing technologies can be applied to biomedical data integration and mining. The major difficulty probably lies in the task of capturing and modelling diverse biological objects and their complex… Show more

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Cited by 26 publications
(21 citation statements)
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“…The authors of [20] propose models for three gene expression data spaces (sample, annotation, and gene expression) based on star and snowflake schemata. A more exhaustive study of the challenges and requirements of a biomedical multidimensional model is presented in [27], along with a new schema called BioStar. The authors claim that through this schema they can address typical challenges of the genomics domain, such as fast evolving structures, imprecise and incomplete data, etc.…”
Section: Related Workmentioning
confidence: 99%
“…The authors of [20] propose models for three gene expression data spaces (sample, annotation, and gene expression) based on star and snowflake schemata. A more exhaustive study of the challenges and requirements of a biomedical multidimensional model is presented in [27], along with a new schema called BioStar. The authors claim that through this schema they can address typical challenges of the genomics domain, such as fast evolving structures, imprecise and incomplete data, etc.…”
Section: Related Workmentioning
confidence: 99%
“…This approach has sought to solve some of the limitations of classical OLAP through providing a new way to summarize biological data for non-numerical domains. Another approach is called BIOSTAR, and aims to move away from the fact schema to a quadruple schema [29]. …”
Section: Fundamental Concepts and Related Workmentioning
confidence: 99%
“…Designers must be aware of these incomplete fact-dimension relationships, because they appear in several real-world situations, e.g., the inherent uncertainty about the function of some genes in MD models for the biological domain [23] or the heterogeneous facts related to surgical processes that can be found in biomedical data warehouses [11]. Otherwise, data analysis tools will present incorrect results.…”
Section: Incomplete Fact-dimension Relationshipsmentioning
confidence: 99%