Abstract: A computer-implemented method as follows. Providing a list of target sequences associated with one or more organisms in a list of organisms. Providing a list of candidate prototype sequences suspected of hybridizing to one or more of the target sequences. Generating a collection of probes corresponding to each candidate prototype sequence, each collection of probes having a set of probes for every subsequence having a predetermined, fixed subsequence length of the corresponding candidate prototype sequence. The sets consist of the corresponding subsequence and every variation of the corresponding subsequence formed by varying a center nucleotide of the corresponding subsequence. Generating a set of fragments corresponding to each target sequence, each set of fragments having every fragment having a predetermined, fixed fragment length of the corresponding target sequence. Calculating the binding free energy of each fragment with a perfect complimentary sequence of the fragment.

Abstract: The present invention provides a specific set of gene expression markers from peripheral blood leukocytes that are indicative of a host response to exposure, response, and recovery infectious pathogen infections. The present invention further provides methods for identifying the specific set of gene expression markers, methods of monitoring disease progression and treatment of infectious pathogen infections, methods of prognosing the onset of an infectious pathogen infection, and methods of diagnosing an infectious pathogen infection and identifying the pathogen involved.

Abstract: An apparatus having within or as part of a housing; a sample port; a microarray port; a lysis module; a purification module for containing a solid phase for binding of oligonucleotides; a thermocycling module for containing a polymerase chain reaction; a fragmentation module; and a microarray module for holding a microarray and a liquid in contact with the microarray. The apparatus is configured to be coupled to a device for: pumping a liquid through, in order, the lysis, purification, thermocycling, fragmentation, and microarray modules; sonicating any contents of the lysis module; thermocycling the thermocycling module to perform the polymerase chain reaction; heating the fragmentation module to fragment any oligonucleotides contained therein; circulating a fluid over the surface of the microarray; and performing one or more washing or staining steps on the microarray.

Abstract: A computer-implemented biological sequence identifier (CIBSI) system and method for selecting a subsequence from biological sequence data according to at least one selection parameter. The at least one selection parameter corresponds to a likelihood of returning a meaningful result from a similarity search.

Abstract: A method of: submitting reference sequences to a taxonomic database to produce taxonomic results; and reporting a taxonomic identification based on the taxonomic results. The reference sequences are the output of genetic database queries that return a score for each reference sequence. A method for processing a biological sequence obtained from an assay by: converting base calls located in a predetermined list of positions within the biological sequence to N; and determining the ratio of single nucleotide polymorphisms in the biological sequence relative to a reference sequence. Each entry in the predetermined list of positions represents the capability of a substance hybridizing to a microarray used to generate the biological sequence. The substance is not the nucleic acid of a target pathogen.

Abstract: A PCR method involving: providing a biological sample suspected of containing one or more pathogen nucleic acids; adding a plurality of PCR primers corresponding to genes found in the pathogens; and performing a polymerase chain reaction on the sample to amplify a subset of the nucleic acids that correspond to the genes. The primers include at least one primer pair for each pathogen, and the primers contain a tail sequence that is not homologous any pathogen DNA or to any background DNA in the sample. The concentration of at least one primer in the polymerase chain reaction is no more than about 100 nM.

Abstract: We describe the novel use of a sugar-containing hydrogels as very highly porous, aqueous support material for the immobilization of oligonucleotides, peptides, proteins, antigens, antibodies, polysaccharides, and other biomolecules for sensor applications. The unusually large sizes of the interconnected pores allow large target molecules to pass rapidly into and through the gel and bind to immobilized biomolecules. An additional advantage of the sugar-containing hydrogels are their extremely low non-specific absorption of labeled target molecules, providing low background levels. State-of-the-art hydrogel materials do not have this type of homogeneous interconnected macroporosity, thus large target molecules cannot readily diffuse through them. In addition, they nearly always experience non-specific (background) absorption of labeled target molecules, limiting their usefulness in sensor applications.

Abstract: The present invention relates to pathogen detection and identification by use of DNA resequencing microarrays. The present invention also provides resequencing microarray chips for differential diagnosis and serotyping of pathogens present in a biological sample. The present invention further provides methods of detecting the presence and identity of pathogens present in a biological sample.

Abstract: We describe the novel use of a sugar-containing hydrogels as very highly porous, aqueous support material for the immobilization of oligonucleotides, peptides, proteins, antigens, antibodies, polysaccharides, and other biomolecules for sensor applications. The unusually large sizes of the interconnected pores allow large target molecules to pass rapidly into and through the gel and bind to immobilized biomolecules. An additional advantage of the sugar-containing hydrogels are their extremely low non-specific absorption of labeled target molecules, providing low background levels. State-of-the-art hydrogel materials do not have this type of homogeneous interconnected macroporosity, thus large target molecules cannot readily diffuse through them. In addition, they nearly always experience non-specific (background) absorption of labeled target molecules, limiting their usefulness in sensor applications.