Abstract: Apparatus, systems and methods are disclosed for treating a biological fluid with light. A container of biological fluid is introduced into a fluid treatment chamber where it is contacted with light provided by one or more light sources in proximity to the fluid treatment chamber. A drawer for holding containers of biological fluid introduces the containers into the chamber. Containers for holding the biological fluid are marked by the apparatus to indicate the status of the treatment.

Abstract: A plurality of proteins of interest, or peptides of interest, or other genetically expressed materials, are screened and subsequently produced using any of a variety of expression systems. The plurality of proteins are extracted from a plurality of separate, processed green juices, each green juice containing one of the proteins of interest. A multi-channel apparatus processes the various green juices, one green juice per channel. The apparatus is computer controlled such that the various valves in each channel and pump are controlled in an automated manner to extract each protein of interest and deliver each protein of interest into its own storage vessel.

Abstract: Apparatus, systems and methods are disclosed for treating a biological fluid with light. A container of biological fluid is introduced into a fluid treatment chamber where it is contacted with light provided by one or more light sources in proximity to the fluid treatment chamber. A drawer for holding containers of biological fluid introduces the containers into the chamber. Containers for holding the biological fluid are marked by the apparatus to indicate the status of the treatment.

Abstract: Apparatus, systems and methods are disclosed for treating a biological fluid with light. A container for biological fluid is introduced into a fluid treatment chamber where it is contacted with light provided by one or more light sources in proximity to the fluid treatment chamber. A drawer for holding containers of biological fluid introduces the containers into the chamber. Containers for holding the biological fluid are marked by the apparatus to indicate the status of the treatment.

Abstract: The present invention provides methods for rapidly determining the function of nucleic acid sequences by transfecting the same into a host organism to effect expression. Phenotypic and biochemical changes produced thereby are then analyzed to ascertain the function of the nucleic acids which have been transfected into the host organism. The invention also provides methods for silencing endogenous genes by transfecting hosts with nucleic acid sequences to effect expression of the same. The present invention also provides methods for selecting desired functions of RNAs and proteins by the use of virus vectors to express libraries of nucleic acid sequence variants. Moreover, the present invention provides methods for inhibiting an endogenous protease of a plant host.

Abstract: Apparatus, systems and methods are disclosed for treating a biological fluid with light. A container of biological fluid is introduced into a fluid treatment chamber where it is contacted with light provided by one or more light sources in proximity to the fluid treatment chamber. A drawer for holding containers of biological fluid introduces the containers into the chamber. Containers for holding the biological fluid are marked by the apparatus to indicate the status of the treatment.

Abstract: Apparatus, systems and methods are disclosed for treating a biological fluid with light. A container of biological fluid is introduced into a fluid treatment chamber where it is contacted with light provided by one or more light sources in proximity to the fluid treatment chamber. A drawer for holding containers of biological fluid introduces the containers into the chamber. Containers for holding the biological fluid are marked by the apparatus to indicate the status of the treatment.

Abstract: The present invention provides methods for rapidly determining the function of nucleic acid sequences by transfecting the same into a host organism to effect expression. Phenotypic and biochemical changes produced thereby are then analyzed to ascertain the function of the nucleic acids which have been transfected into the host organism. The invention also provides methods for silencing endogenous genes by transfecting hosts with nucleic acid sequences to effect expression of the same. The present invention also provides methods for selecting desired functions of RNAs and proteins by the use of virus vectors to express libraries of nucleic acid sequence variants. Moreover, the present invention provides methods for inhibiting an endogenous protease of a plant host.

Abstract: A disposable reaction vessel for performing nucleic acid amplification assay. The disposable reaction vessel has a penetrable cap that can be penetrated by an automated pipettor to aspirate a portion of an amplified reaction product. The disposable reaction vessel contains the reagents necessary to perform a nucleic acid amplification assay. A patient specimen is added to the unit dose reagents in the disposable reaction vessel and the penetrable cap is closed. The disposable reaction vessel containing the reaction mixture and the specimen undergoes amplification, typically by placing it in a thermal cycler. After amplification the intact disposable reaction vessel is transferred to an automated analyzer where an automated pipettor penetrates the closure membrane and aspirates a portion of the amplified sample for further processing, without removal of the reaction vessel cap. This avoids the generation of potentially contaminating aerosols or droplets.

Abstract: A disposable reaction vessel for performing nucleic acid amplification assay. The disposable reaction vessel has a penetrable cap that can be penetrated by an automated pipettor to aspirate a portion of an amplified reaction product. The disposable reaction vessel contains the reagents necessary to perform a nucleic acid amplification assay. A patient specimen is added to the unit dose reagents in the disposable reaction vessel and the penetrable cap is closed. The disposable reaction vessel containing the reaction mixture and the specimen undergoes amplification, typically by placing it in a thermal cycler. After amplification the intact disposable reaction vessel is transferred to an automated analyzer where an automated pipettor penetrates the closure membrane and aspirates a portion of the amplified sample for further processing, without removal of the reaction vessel cap. This avoids the generation of potentially contaminating aerosols or droplets.

Abstract: The method for thermal cycling of nucleic acid assays includes a blended fluid stream produced from a plurality of constant velocity, constant volume, constant temperature fluid streams wherein to provide a variable temperature, constant velocity, constant volume fluid stream which is introduced into a sample chamber for heating and cooling samples contained therein. By diverting and altering the ratio of the constant temperature fluid streams relative to one another, the blended fluid stream is rapidly variable in temperature, providing for almost instantaneous temperature change within the environment defined by the sample chamber.