Cepheid Corporation

Other

Syfr, Inc.

Golden Gate Microsystems, Inc.

Amcell Corporation

Capheid

Ceoheid

Douglas Bryan Dority

Ronald G Chang

Kurt Edward Petersen

William A McMillan

Farzad Pourahmadi

Lee Allan Christel

M Allen Northrup

Michael T Taylor

Phillip Belgrader

Jesus Ching

Steven M Montgomery

Robert Allan Yuan

Steven Jay Young

Gregory T A Kovacs

Reuel Van Atta

Dustin Dickens

Stanley H Sakai

Jeffrey S Ross

Yuh-Min Chiang

Shazi S Iqbal

Gregory Edward Mote

Jennifer Glass

Gregory J Kintz

Raymond T Hebert

Tien Phan

Eli I Zeevi

Matthew Piccini

Stuart Morita

Jian Ping Zhang

David Fromm

Richard J Casler, Jr

James Jian Quan Wang

Wendy Wong

Kendra Lara Paul

Steve Montgomery

Stefan Miltenyi

Thomas P DeVito

Janette Phi-Wilson

Morton J Jensen

Jonathan Siegrist

James Jian Wang

Wendy Wingkei Wong

Frazad Pourahmadi

Improved sub-assemblies and methods of control for use in a diagnostic assay system adapted to receive an assay cartridge are provided herein. Such sub-assemblies include: a brushless DC motor, a door opening/closing mechanism and cartridge loading mechanism, a syringe and valve drive mechanism assembly, a sonication horn, a thermal control device and optical detection/excitation device. Such systems can further include a communications unit configured to wirelessly communicate with a mobile device of a user so as to receive a user input relating to functionality of the system with respect to an assay cartridge received therein and relaying a diagnostic result relating to the assay cartridge to the mobile device.

Molecular diagnostic assay system

A honeycomb tube with a planar frame defining a fluidic path between a first planar surface and a second planar surface. A fluidic interface is located at one end of the planar frame. The fluidic interface has a fluidic inlet and fluidic outlet. The fluidic path further includes a well chamber having a well-substrate with a plurality of wells. The well chamber is arranged in the planar frame between the first or second surface and the well-substrate. The well chamber is in fluidic communication between the pre-amplification chamber and the fluidic outlet.

Honeycomb tube

A fluidic bridge device for transport of a fluid sample between a first sample processing device and a second sample processing device. The fluidic bridge may include one or more fluid channels extending between fluid-tight couplings attachable to transfer ports of the first and second sample processing device. In one aspect the first device is a sample preparation device and the second device is an assay device. The fluidic bridge can include at least two fluid conduits, at least one for transport of the prepared sample, and at least one other to facilitate displacement of air to allow flow of the prepared sample through the other fluid conduit. The fluid channels can include one or more of an amplification chamber, a processing chamber, a gas-permeable vent, a bubble trap, a filter, and an external port. Methods of preparing and transporting a fluid sample between devices are provided herein.

Fluidic bridge device and sample processing methods

A honeycomb tube with a planar frame defining a fluidic path between a first planar surface and a second planar surface. A fluidic interface is located at one end of the planar frame. The fluidic interface has a fluidic inlet and fluidic outlet. The fluidic path further includes a well chamber having an well-substrate with a plurality of wells. The well chamber is arranged in the planar frame between the first or second surface and the well-substrate. The well chamber is in fluidic communication between the pre-amplification chamber and the fluidic outlet.

Systems for processing a fluid sample to facilitate analysis with a semiconductor detection chip are provided herein. Such systems can include a sample processing cartridge coupleable with a chip carrier device configured for transport of the processed fluid sample from the sample cartridge. The chip carrier device can include one or more fluid channels extending between fluid-tight couplings attachable to transfer ports of the sample processing cartridge. The chip carrier device can include multiple portions or adapters, including a fluid sample portion, a flowcell portion and a chip carrier. Also provided are methods of preparing and transporting a fluid sample from a sample cartridge into a chip carrier device for analysis with a semiconductor detection chip carried within the chip carrier device.

System, device and methods of sample processing using semiconductor detection chips

Diagnostic detection chip device designs that reduce cost of fabrication and assembly are described herein. Such chip device designs include features that facilitate use of the chip within a chip carrier device with integrated fluid flow control features and compatibility with conventional sample cartridges and sample processing systems. Associated methods of manufacture and assembly of the chip devices are also provided herein.

Diagnostic detection chip devices and methods of manufacture and assembly

A fluid control and processing system for controlling fluid flow among a plurality of chambers comprises a body including a fluid processing region continuously coupled fluidicly with a fluid displacement region. The fluid displacement region is depressurizable to draw fluid into the fluid displacement region and pressurizable to expel fluid from the fluid displacement region. The body includes at least one external port. The fluid processing region is fluidicly coupled with the at least one external port. The fluid displacement region is fluidicly coupled with at least one external port of the body. The body is adjustable with respect to the plurality of chambers to place the at least one external port selectively in fluidic communication with the plurality of chambers. One or more of the chambers may be a processing chamber which includes two ports configured to selectively engage the at least one external port of the body, and a fluid processing material such as an enrichment material or a depletion material. In some embodiments, one or more chambers may include a separation channel, and an electric field may be applied across the separation channel.

Fluid processing and control

A honeycomb tube with a planar frame defining a fluidic path between a first planar surface and a second planar surface. A fluidic interface is located at one end of the planar frame. The fluidic interface has a fluidic inlet and fluidic outlet. The fluidic path further includes a well chamber having an well-substrate with a plurality of wells. The well chamber is arranged in the planar frame between the first or second surface and the well-substrate.

A self-contained biological sample processing cartridge includes top and bottom portions that close together to form a sealed chamber therein. The chamber is configured to enable one of one or more biological sample staining procedures appropriate for a biological sample. The top portion includes a chamber top section and valve control elements. The bottom portion includes a chamber bottom section and fluidic valves. One of the fluid valves evacuates the contents of the chamber. One of the valve control elements couples to a respective fluidic valve to control fluid flow for the chamber. The cartridge includes a preloaded reagent component to supply the chamber with the reagent component appropriate for a particular biological sample staining procedure. A user desiring to conduct a particular biological sample staining procedure may select a particular cartridge that is preloaded with the preloaded reagent fluidic valves component appropriate for the particular biological sample staining procedure.

Self-contained sample processing cartridge with preloaded reagent

The present invention provides a cartridge for analyzing a fluid sample. The cartridge provides for the efficient separation of cells or viruses in the sample from the remaining sample fluid, lysis of the cells or viruses to release the analyte (e.g., nucleic acid) therefrom, and optionally chemical reaction and/or detection of the analyte. The cartridge is useful in a variety of diagnostic, life science research, environmental, or forensic applications for determining the presence or absence of one or more analytes in a sample.

Device for extracting nucleic acid from a sample

Embodiments of the invention provide an efficient and effective technique for storing and dispensing reagent beads. In some embodiments, an apparatus is provided for dispensing reagent beads contained in a bead storage device which includes a bead carrier having a plurality of wells; a plurality of reagent beads disposed in the wells; and a cover tape releasably attached to the bead carrier to cover the wells and retain the reagent beads in the wells. The apparatus comprises a channel in which to place the bead storage device with the bead carrier facing a support wall of the channel and the cover tape facing a stripping wall of the channel. The stripping wall includes a stripping gap disposed between a stripping edge and an opposite edge, and a dispense opening provided adjacent the opposite edge on a side of the stripping wall opposite from the stripping edge. The cover tape is insertable through the stripping gap to be pulled against the stripping edge to peel the cover tape from the bead carrier to move the wells of the bead carrier inside the channel toward the dispense opening and expose the wells individually to dispense the reagent beads.

Method and apparatus for storing and dispensing reagent beads

A cartridge for conducting a chemical reaction includes a body having at least one flow path formed therein. The cartridge also includes a reaction vessel extending from the body for holding a reaction mixture for chemical reaction and optical detection. The vessel comprises a rigid frame defining the side walls of a reaction chamber. The frame includes at least one channel connecting the flow path to the chamber. The vessel also includes flexible films or sheets attached to opposite sides of the rigid frame to form opposing major walls of the chamber. In addition, at least two of the side walls are optically transmissive and angularly offset from each to permit real-time optical detection of analyte in the reaction chamber.

Cartridge for conducting a chemical reaction

Growing community of inventors

Mill Valley, CA, United States of America

Douglas Bryan Dority