Abstract: A device and method are provided to facilitate the handling of a volume of fluid. The device includes an elongated tube having an open first end and a second end. The tube defines a reservoir for receiving the volume of fluid. A stanchion has a first end received within the reservoir of the tube and a second end projecting from the open end of the elongated tube. In operation, the elongated tube is deposited in a first capsule having fluid therein. The first capsule is centrifuged such that the volume of fluid is received in a reservoir in the tube through the open end. The tube is removed from the first capsule and positioned in a second capsule such that the open end of the tube is spaced from a closed end of the second capsule. The second capsule is centrifuged such that the volume of fluid is expelled from the reservoir of the tube.

Abstract: A device and method are provided to facilitate the handling of a volume of fluid. The device includes an elongated tube having an open first end and a second end. The tube defines a reservoir for receiving the volume of fluid. A stanchion has a first end received within the reservoir of the tube and a second end projecting from the open end of the elongated tube. In operation, the elongated tube is deposited in a first capsule having fluid therein. The first capsule is centrifuged such that the volume of fluid is received in a reservoir in the tube through the open end. The tube is removed from the first capsule and positioned in a second capsule such that the open end of the tube is spaced from a closed end of the second capsule. The second capsule is centrifuged such that the volume of fluid is expelled from the reservoir of the tube.

Abstract: A device and method are provided to facilitate the handling of a volume or fluid. The device includes an elongated tube having an open first end and a second end. The tube defines a reservoir for receiving the volume or fluid. A stanchion has a first end received within the reservoir of the tube and a second end projecting from the open end of the elongated tube. In operation, the elongated tube is deposited in a first capsule having fluid therein. The first capsule is centrifuged such that the volume of fluid is received in a reservoir in the tube through the open end. The tube is removed from the first capsule and positioned in a second capsule such that the open end of the tube is spaced from a closed end of the second capsule. The second capsule is centrifuged such that the volume of fluid is expelled from the reservoir of the tube.

Abstract: A non-displasive pipette is provided. The non-displasive pipette is configured for connection to a tip having a fluid therein. The tip includes an orifice to allow for the discharge of the fluid therefrom. The non-displasive pipette includes a body defining a chamber therethrough and having first and second opposite ends. The second end of the body is configured for connection to the tip. A plunger is slidably received in the chamber at the first end of the body. The plunger is moveable in the chamber between an extended position and a discharge position wherein the fluid is urged from tip through the orifice. An air discharge arrangement is configured to allow air from the chamber to escape therefrom and to maintain the fluid in the tip in response to connection of the second end of the body to the tip.

Abstract: A method and a device are provided for facilitating the disaggregation of a plurality of solid phase substrate as the plurality of solid phase substrate are transferred from a first location to a second location. A plurality of solid phase substrate are deposited at the first location and a plurality of particles are added to the plurality of solid phase substrate. A force is generated to draw the plurality of solid phase substrate from the first location to a second location. The plurality of particles causes clumps of the plurality of solid phase substrate to break apart as the plurality of solid phase substrate are moved in response to the force.

Abstract: A method and a device are provided for facilitating the disaggregation of a plurality of solid phase substrate as the plurality of solid phase substrate are transferred from a first location to a second location. A plurality of solid phase substrate are deposited at the first location and a plurality of particles are added to the plurality of solid phase substrate. A force is generated to draw the plurality of solid phase substrate from the first location to a second location. The plurality of particles causes clumps of the plurality of solid phase substrate to break apart as the plurality of solid phase substrate are moved in response to the force.

Abstract: A method and microfluidic device are provided for containing a droplet having an outer surface at a predetermined location. The microfluidic device includes a plate having an upper surface and a central region communicating with the upper surface. The central region is adapted for receiving a droplet of fluid thereon. The central region includes an outer periphery that defines a first fluid constraint configured for discouraging fluid on the central region from flowing therepast. A second fluid constraint extends about the first fluid constraint. The second fluid constraint is configured for discouraging fluid flowing therepast. A third fluid constraint extends about the second fluid constraint. The third fluid constraint configured for discouraging fluid flowing therepast.

Abstract: A deformable well structure for a microtiter plate and method are provided. The deformable well structure includes a sample container defining a well for receiving a sample therein. The sample received in the well has a concave meniscus. A deformation tool is engageable with the sample container and is moveable between a first disengaged position wherein the deformation tool is spaced from the sample container and a second, engaged position wherein the deformation tool engages and deforms at least a portion of the sample container such that the meniscus of the sample in the well is converted from concave to convex.

Abstract: A non-displasive pipette is provided. The non-displasive pipette is configured for connection to a tip having a fluid therein. The tip includes an orifice to allow for the discharge of the fluid therefrom. The non-displasive pipette includes a body defining a chamber therethrough and having first and second opposite ends. The second end of the body is configured for connection to the tip. A plunger is slidably received in the chamber at the first end of the body. The plunger is moveable in the chamber between an extended position and a discharge position wherein the fluid is urged from tip through the orifice. An air discharge arrangement is configured to allow air from the chamber to escape therefrom and to maintain the fluid in the tip in response to connection of the second end of the body to the tip.

Abstract: A non-displasive pipette is provided. The non-displasive pipette is configured for connection to a tip having a fluid therein. The tip includes an orifice to allow for the discharge of the fluid therefrom. The non-displasive pipette includes a body defining a chamber therethrough and having first and second opposite ends. The second end of the body is configured for connection to the tip. A plunger is slidably received in the chamber at the first end of the body. The plunger is moveable in the chamber between an extended position and a discharge position wherein the fluid is urged from tip through the orifice. An air discharge arrangement is configured to allow air from the chamber to escape therefrom and to maintain the fluid in the tip in response to connection of the second end of the body to the tip.

Abstract: A method and a device are provided for facilitating the disaggregation of a plurality of solid phase substrate as the plurality of solid phase substrate are transferred from a first location to a second location. A plurality of solid phase substrate are deposited at the first location and a plurality of particles are added to the plurality of solid phase substrate. A force is generated to draw the plurality of solid phase substrate from the first location to a second location. The plurality of particles causes clumps of the plurality of solid phase substrate to break apart as the plurality of solid phase substrate are moved in response to the force.

Abstract: A device and method are provided to facilitate the handling of a volume or fluid. The device includes an elongated tube having an open first end and a second end. The tube defines a reservoir for receiving the volume or fluid. A stanchion has a first end received within the reservoir of the tube and a second end projecting from the open end of the elongated tube. In operation, the elongated tube is deposited in a first capsule having fluid therein. The first capsule is centrifuged such that the volume of fluid is received in a reservoir in the tube through the open end. The tube is removed from the first capsule and positioned in a second capsule such that the open end of the tube is spaced from a closed end of the second capsule. The second capsule is centrifuged such that the volume of fluid is expelled from the reservoir of the tube.

Abstract: A deformable well structure for a microtiter plate and method are provided. The deformable well structure includes a sample container defining a well for receiving a sample therein. The sample received in the well has a concave meniscus. A deformation tool is engageable with the sample container and is moveable between a first disengaged position wherein the deformation tool is spaced from the sample container and a second, engaged position wherein the deformation tool engages and deforms at least a portion of the sample container such that the meniscus of the sample in the well is converted from concave to convex.

Abstract: A method and microfluidic device are provided for containing a droplet having an outer surface at a predetermined location. The microfluidic device includes a plate having an upper surface and a central region communicating with the upper surface. The central region is adapted for receiving a droplet of fluid thereon. The central region includes an outer periphery that defines a first fluid constraint configured for discouraging fluid on the central region from flowing therepast. A second fluid constraint extends about the first fluid constraint. The second fluid constraint is configured for discouraging fluid flowing therepast. A third fluid constraint extends about the second fluid constraint. The third fluid constraint configured for discouraging fluid flowing therepast.

Abstract: A non-displasive pipette is provided. The non-displasive pipette is configured for connection to a tip having a fluid therein. The tip includes an orifice to allow for the discharge of the fluid therefrom. The non-displasive pipette includes a body defining a chamber therethrough and having first and second opposite ends. The second end of the body is configured for connection to the tip. A plunger is slidably received in the chamber at the first end of the body. The plunger is moveable in the chamber between an extended position and a discharge position wherein the fluid is urged from tip through the orifice. An air discharge arrangement is configured to allow air from the chamber to escape therefrom and to maintain the fluid in the tip in response to connection of the second end of the body to the tip.