Abstract:
PROBLEM TO BE SOLVED: To provide a fluid manipulation cartridge that permits the rapid processing of a fluid sample that is larger in volume than any interactive region within the cartridge, allowing increased sensitivity in the detection of low copy concentrations of analytes. SOLUTION: A cartridge 101 includes a sample port 103 and a sample flow path. The sample flow path includes a component, e.g., filter paper or a microfabricated chip, for capturing the desired analyte from the sample. The cartridge 101 also includes an elution flow path to release captured analyte from the component into the elution fluid. COPYRIGHT: (C)2010,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a reaction apparatus capable of promptly performing optically interrogating of a sample and capable of controlling heat-exchange.SOLUTION: An assembly for performing controlled heat-exchanging reaction is provided. The assembly includes: a chemical reaction chamber 10 adapted to receive a sample and allow the sample to chemically react; a thermal sleeve having heating elements for making efficient thermal contact with the reaction chamber; and an instrument with a housing comprising an electrical connection, a cooling source, a reaction area adapted to receive the thermal sleeve, an optics assembly in optical communication with the chemical reaction chamber, and a circuit for monitoring and controlling the optics assembly and for collecting the output signal of the optics assembly. Preferably there are a plurality of housings and associated modules, each of which may be independently controlled for heat exchanging operations.
Abstract:
PROBLEM TO BE SOLVED: To provide a reaction apparatus capable of optically detecting a sample promptly and controlling heat exchange.SOLUTION: There is provided an assembly for performing controlled heat-exchanging reactions. The assembly includes: a chemical reaction chamber adapted to receive a sample and allow the sample to chemically react; and a thermal sleeve having heating elements for making efficient thermal contact with a reaction chamber. The assembly also includes an instrument with a housing provided with: an electrical connection; a cooling source; a processing area adapted to receive the thermal sleeve; an optical assembly in optical communication with the chemical reaction chamber; and a circuit for monitoring and controlling the optical assembly and for collecting the output signal of the optical assembly. Preferably, there are a plurality of housings and associated modules, each of which may be independently controlled for heat exchanging operations.
Abstract:
PROBLEM TO BE SOLVED: To provide a fluid manipulation cartridge that permits the rapid processing of a fluid sample that is larger in volume, allowing increased sensitivity in the detection of low copy concentrations of analytes. SOLUTION: A cartridge 101 includes a sample port 103 and a sample flow path. The sample flow path includes a component such as filter paper or a microfabricated chip for capturing the desired analyte from a sample. The cartridge 101 includes an elution flow path to release the captured analyte from the component into elution fluid. COPYRIGHT: (C)2009,JPO&INPIT
Abstract:
PROBLEM TO BE SOLVED: To provide a reaction apparatus capable of promptly performing optically interrogating of a sample and capable of controlling heat-exchange. SOLUTION: An assembly for performing controlled heat-exchanging reaction is provided. The assembly is provided with: a chemical reaction chamber adapted to receive a sample and allow the sample to chemically react; a thermal sleeve having heating elements for making efficient thermal contact with a reaction chamber; and an instrument with a housing comprising an electrical connection, a cooling source, a reaction area adapted to receive a thermal sleeve, and an optics assembly in optical communication with a chemical reaction chamber, and a circuit for monitoring and controlling the optics assembly and for collecting the output signal of the optics assembly. Preferably there are a plurality of housings and associated modules, each of which may be independently controlled for heat exchanging operations. COPYRIGHT: (C)2008,JPO&INPIT
Abstract:
A multi-site reactor system (60) provides dynamic, independent, computer-implemented control of each reaction site, permitting different thermal profiles to be performed on samples at different reaction sites simultaneously. The system includes reaction vessels (2) for holding reaction mixtures and heat-exchanging modules (37) for receiving the vessels. The system also includes a controller (64) for independently controlling each heat-exchanging module (37) to heat and/or cool the reaction mixture contained therein. The controller (64) includes an adaptive control program for dynamically adjusting the duration or intensity of power pulses provided to each heating element and for dynamically adjusting the duration of fan operation to attain target temperatures quickly and accurately without overshooting or undershooting the target.
Abstract:
An assembly for performing controlled heat exchanging reactions is provided. The assembly has a chemical reaction chamber adapted to receive a sample and allow the sample to chemically react; a thermal sleeve having heating elements for making efficient thermal contact with a reaction chamber; an instrument with a housing comprising an electrical connection, a cooling source, a processing area adapted to receive a thermal sleeve, and an optics assembly in optical communication with a chemical reaction chamber; and a circuit for monitoring and controlling the optics assembly and for collecting the output signal of the optics assembly. Preferably there are a plurality of housings and associated modules, each of which may be independently controlled for heat exchanging operations.
Abstract:
A cartridge (101) for separating a desired analyte from a fluid sample includes a sample port (103) and a sample flow path extending from the port through the body of the cartridge. The sample flow path includes at least one flow-through component (122), e.g. filter paper or a microfabricated chip, for capturing the desired analyte from the sample as the sample flows through the cartridge. The cartridge also includes an elution flow path for carrying elution fluid through the component (122) to release captured analyte from the component into the elution fluid. The elution flow path diverges from the sample flow path after passing through the component (122). Flow controllers (41A and 41B) direct the remaining fluid sample into a waste chamber (139) after the sample flows through the component (122) and direct the elution fluid and eluted analyte into a reagent chamber (141) and reaction chamber (143). The continuous-flow design of the cartridge permits the rapid processing of a fluid sample that is larger in volume than any interactive region within the cartridge, allowing increased sensitivity in the detection of low copy concentrations of analytes, such as nucleic acid. A preferred embodiment relates to a device for lysing components of a fluid sample, the device comprising inter alia, an ultrasonic transducer.