Abstract: A fluid dispenser is disclosed where a backoff distance is determined and implemented to prevent leakage while dispensing sequentially an accurate, precise amount of fluid substantially independent of the fluid remaining in a syringe-type dispenser. The fluid characteristics of the fluid, e.g. viscosity, surface tension, etc. affect the backoff distance that may be determined heuristically for fluid type, amount of fluid remaining in the syringe and amount to be dispensed. Once the fluid characteristics are known, the dispensing may be accomplished automatically with a processor loading new drive and backoff steps to a motor controller.

Abstract: A dispensing apparatus includes a probe that sucks or discharges a liquid; a pressure generating unit that generates a pressure necessary for the probe to suck or discharge the liquid; and a pressure measuring unit that measures the pressure generated by the pressure generating unit and applied to the probe. The apparatus also includes a setting unit that sets a correction coefficient used when correcting a physical amount based on characteristics of the dispensing apparatus using a result of the measuring by the pressure measuring unit; a storage unit that stores therein information including the correction coefficient set by the setting unit; and a correcting unit that corrects the physical amount using the correction coefficient stored in the storage unit.

Abstract: A biopsy pipette with a filter attached in an internal compartment of a pipette designed to prevent lodging and possible loss of the tissue specimen for analysis. A biopsy test tube may be provided with a biopsy bag attached in the internal compartment of the test tube. Further, a biopsy cassette may be provided with an opening configured to receive a pipette. An automated and non-automated system and method of using the biopsy pipette, biopsy test tube, and biopsy cassette in the processing of biopsy specimen is also disclosed.

Abstract: A diagnostic device is provided that includes a plurality of retainment regions, with the retainment regions that are separated by at least one dissolvable barrier. The retainment regions can be interconnected through at least one fluid processing passageway. A retainment region can include a container such as a retainment region, well, chamber, or other receptacle, or a retainment region such as a surface on which the material is retained. The retainment regions can include a reaction retainment region, one or more reagent retainment regions, each containing unreacted reagents, and a sample retainment region. A pressure-actuated valve can be positioned in each fluid processing passageway interconnecting the one or more reagent retainment regions with the respective intermediate retainment regions interposed between each of the one or more reagent retainment regions and the reaction retainment region. The dissolvable barrier can be a fluid flow modulator in the at least one fluid processing passageway.

Abstract: A device for automatically aspirating and/or dispensing liquids with precision, comprising a housing having an opening at a lower end with a fixed tip protruding out of the lower end; an interchangeable cartridge disposed inside the housing, the cartridge having a holding frame and a spool of tubing provided in the frame such that one end of the tubing is aligned with the tip; and an actuator enabled to automatically extrude part of the tubing so as to accommodate a preselected volume of liquid, aspirate and/or dispense the liquid through the extruded tubing, and disconnect the extruded tubing from the device.

Abstract: This invention provides a biological component-measuring device, enabling the operator to easily calibrate the entire device and capable of measuring biological components accurately, and a method for calibrating the device. The device measures a sample including a body fluid taken through a body fluid sampler by sending it with a pump through a sample channel to a sensor. The device further includes a calibrating liquid channel through which a calibrating liquid can be supplied to the sensor via the sample channel by a switching of a first flow path changeover valve placed in the sample channel at a location upstream of the pump and connected to the channel. The method includes introducing the calibrating liquid in the calibrating liquid channel, via other channels, into the sensor by switching the valve.

Abstract: The disclosure relates to a biological analysis device including: means for circulating a fluid to be analyzed, comprising a fluidic chamber, optical detection means based on a semiconductor, including a detection front face, a rear face and pads of electrical contacts located on this rear face.

Abstract: A control system includes an estimator configured to determine a present state of a device and compare the present state of the device with an expected state of the device. The control system further includes a predictor operatively coupled to the estimator, and configured to predict an event for execution by the device to reach the expected state of the device. The control system also includes a supervisory control unit operatively coupled to the predictor and the device, and configured to facilitate execution of the predicted event by the device.

Abstract: A microfluidic device is described, capable of generating multiple spatial chemical gradients simultaneously inside a microfluidic chamber. The chemical gradients are generated by diffusion, without convection, and can either be maintained constant over long time periods, or modified dynamically. A representative device is described with a circular chamber in which diffusion occurs, with three access ports for the delivery and removal of solutes. A gradient typically forms in minutes, and can be maintained constant indefinitely. Gradients overlapping with different spatial location, and a controlled rotation of a gradient formed by diffusion are demonstrated. The device can also be used to evaluate chemotactic responses of bacteria or other microorganisms in the absence of convective flow.

Abstract: A modular microfluidic system includes modules which are arranged next to each other in a row. Every module has a microfluidic part which rests on a contact surface of the module in a locally limited area and is forced against the contact surface by a fastening element. The microfluidic part includes a fluid channel system with fluid connections that are arranged on the top surface of the microfluidic part in edge areas relative to the adjoining microfluidic parts. The fluid connections of adjoining microfluidic parts are interlinked by respective connecting channels in a connecting part bridging the microfluidic parts, wherein the connecting part rests on the microfluidic parts in the edge areas. A clamping part rests against the lower surfaces of the adjoining microfluidic parts and is connected to the connecting part via an additional fastening element in the area between the microfluidic parts.

Abstract: Magnetic handling structure (1a) comprising a retractable magnet (4) and a probe (3) for the manipulation of magnetic particles in biological samples and methods of handling magnetic particles in biological samples.

Abstract: A seal structure is disclosed for forming a substantially fluid tight seal between a UEA and a plate of a fuel cell system, the seal structure including a sealing member formed in one fuel cell plate, a seal support adapted to span feed area channels in an adjacent fuel cell plate, and a seal adapted to cooperate with a UEA disposed between the fuel cell plates, the sealing member, and the seal support to form a substantially fluid tight seal between the UEA and the one fuel cell plate. The seal structure militates against a leakage of fluids from the fuel cell system, facilitates the maintenance of a velocity of a reactant flow in the fuel cell system, and a cost thereof is minimized.

Abstract: A needle (300) for handling a fluid in an analysis system (10), the needle (300) comprising a needle body (302) made of a ceramic material and having a fluid conduit (304) extending between a fitting end (306) and a seat end (308), the fitting end (306) being connectable to a fitting (402) and the seat end (308) being insertable into a seat (602), wherein the needle body (302) is tapering, particularly conically tapering, towards the fitting end (306), a fixing body (310) arranged on the needle body (302) next to the fitting end (306) for exerting an axial force when the needle body (302) is connected to the fitting (402), and a slide-on element (312) to be slid over the needle body (302) so as to push the fixing body (310) towards the fitting end (306).

Abstract: A flow cytometry nozzle and method for orienting sperm cells in a fluid flow path including an interior surface of a nozzle. The interior surface of the nozzle having a first, a second and a third axially tapered region for progressively accelerating the speed of a fluid stream in a downstream direction toward a nozzle exit. At least two of the regions having generally elliptical cross sectional shapes oriented in different directions for applying torsional forces to a fluid stream passing there through, tending to bring sperm cells in the stream into a desired orientation.

Abstract: An agitating device for agitating a blood sample in a sample container is disclosed. The agitating device includes a base comprising a horizontally-supported shaft, a container holder including a first hand and a second hand, the first hand having a first hole at one end and a first hold portion at other end, the second hand having a second hole at one end and a second hold portion at other end, the first and second holes through which the shaft is inserted, the first and second hands being rotatable relative to the shaft and the first and second hold portions faced each other, and an agitation drive unit including a contact member for contacting the container holder and a drive source for reciprocating the contact member contacting the container holder between a lower position and an upper position.

Abstract: A system and method for obtaining hydrodynamic focusing of a first fluid. The method includes pressurizing the first fluid and a second fluid at a pre-defined pressure from a pressure source. Further, the method includes controlling the first flow rate of the first fluid by passing it through a first flow circuit. Furthermore, the method includes controlling the second flow rate of the second fluid by passing it through a second flow circuit. Moreover, the method includes passing the first and the second fluid though a converging section and hydrodynamically focusing the first fluid.

Abstract: Systems and methods to reduce bioburden on at least a portion of a fluid transfer port include supplying a dose of radiation to the portion in optical communication with at least one source of radiation. In an illustrative example, a medical container, such as a vial or IV bag, receives a dose of ultraviolet (UV) energy substantially at a predetermined region of a fluid transfer site. In some examples, such a sanitization process may precede a fluid transfer operation in which a fluid is transferred into or out of the medical container by passing through the sanitized region. Such fluid transfers may be used in automated or semi-automated pharmaceutical processes, such as drug reconstitution. Various embodiments may further include one or more seal assemblies, each seal assembly having an aperture through which the radiation dose is supplied from the source to a controlled region on the fluid transfer port.

Abstract: An injection device (10) includes a carrier inlet (40), a sample inlet (46), waste outlet (44) and a chamber outlet (64) attached to separation column (66). Valves (52, 54, 56) are used to control flow such that sample flows into chamber (22) and is carried into the chamber outlet (42).

Abstract: To provide a magnetic particle parallel processing apparatus permitting repeated use of a container, and a method of magnetic particle parallel processing permitting repeated use of a container, with which the rate of repeated use of a container is enhanced to thereby achieve a saving in the working space and a saving in the working time. The apparatus comprises: at least one reaction container; a liquid disposal tank; a reagent etc.

Abstract: A system for dispensing microdrops of reagent in small, precisely metered quantities maintains the fluid reagent to be dispensed in a reservoir under a controlled pressure. The reagent is dispensed through multiple nozzles connected to solenoid-actuated valves that control the flow of the reagent from the reservoir to the nozzles. Each valve is connected to one of the nozzles and electrical pulses are supplied separately to each of the valves to separately control the opening and closing of each valve to dispense predetermined quantities of the reagent through each nozzle at predetermined times.

Abstract: The invention provides a system and method for dissolution testing. The system includes multiple dissolution vessels and a dose carrier positioned above the dissolution vessels. The dose carrier holds multiple removable carousels that receive individual doses for dissolution tested. Carousels that receive tablets or sinkers typically have a first configuration, while carousels that receive baskets typically have a second configuration. The two different configurations of carousels are interchangeable on the same dose ring. The system further includes a drive head positioned above the dose carrier, the drive head having a basket arbor and a mixing paddle removably and interchangeably attached. A pipettor integral with the system transfers sample aliquots having volumes in the range of 50 ?l to 1 ml from the dissolution vessels to wells of an external receptacle.

Abstract: A liquid container having a top opening, a base, and an extraction chimney which extends into the container and which is in alignment with the top opening is presented. The extraction chimney is intended for the withdrawal of liquid by a liquid-withdrawal element that is introduced into the liquid container through the extraction chimney. The extraction chimney has a liquid-permeable zone in its bottom region, adjacent to the liquid container base. The liquid permeability of the liquid-permeable zone of the extraction chimney can be adjusted between a setting for minimal liquid permeability and a setting for greater liquid permeability. The extraction chimney can be adjusted while the extraction chimney remains in the liquid container.

Abstract: A device is disclosed, being an analysis device for the study of biological or chemical samples by means of a reagent liquid supplied via a pipette. The device has an instrument housing with a base plate, a working plate arranged on the base plate horizontally to receive the samples in a sample holder having several wells, a robot manipulator arranged above the working plate, which carries a horizontal support arm with a slide. A needle system is fastened to the slide and can move in the Z direction, carrying 3 needles and being brought into vertical positions by a first vertical drive. The needle tips can be placed in an upper position above and in a lower position below a well. The middle needle can move vertically relative to the other two needles, which can be raised and lowered by a second vertical drive. The horizontal spacing of the three needles is so small that all three needles can be positioned with their tips inside the same wells.

Abstract: Invention methods employ the use of acoustic waves to transfer small amounts of fluid in a non-contact manner. In invention methods, acoustic waves are propagated through a separated pool of a source fluid in such a manner that causes the ejection of a single micro-droplet from the surface of the pool. The droplet is ejected towards a target with sufficient force to provide for contact of the droplet with the target. Because the fluid is not contacted by any fluid transfer device such as a pipette, the opportunities for contamination are minimized. Invention methods may be employed to transfer fluids from an array of source sites to an array of target sites, thereby enabling the precision automation of a wide variety of procedures including screening, and synthesis procedures commonly used in biotechnology.

Abstract: A capture and purification apparatus is configured as a stand-alone apparatus or as part of a larger system. The capture and purification apparatus can be configured as a microfluidic cartridge that includes microfluidic circuitry and individually controlled valves. The microfluidic cartridge can be configured to function independently, or can be configured to be coupled to a separate instrument that provides the actuation to perform the capture and purification process. The capture and purification apparatus is configured as a volume-driven system that applies single-direction valves, a single fluid driving device, and fluid lines to control and discretely direct fluid flow within a full-loaded fluidic system. Such control enables various fluid sample processing techniques to be performed including, but not limited to, lysis, thermal cycling, and/or target analyte capture and purification, for example using a combination of ion-exchange chromatography and size-exclusion chromatography (SEC).

Abstract: A liquid handling system has a robot manipulator for orienting pipette or dispenser tips in relation to sample containers situated in or on the system, pipette or dispenser tips, drives for moving the robot manipulator, and processors for controlling the movements and actions of the robot manipulator and/or of the pipette or dispenser tips. The system also includes at least two blocks situated on two arms of the robot manipulator, at least two of the pipette or dispenser tips being situated on each block and at an axial distance to one another. The axial distance essentially corresponds to the grid spacing of wells of a microplate. At least one of these blocks, for the alternating interlaced orientation of the pipette or dispenser tips of at least two blocks along a shared line, are individually movable at least in the X direction. A method allows the time-saving pipetting over of liquid samples between diverse sample containers, e.g., between sample tubes and microplates having 24, 96, 384, or 1536 wells.

Abstract: A specimen analysis method, comprising: bringing a first specimen vessel to a sucking position for sucking specimens; obtaining a first measurement result of a first specimen contained in the first specimen vessel; bringing a second specimen vessel to the sucking position before the first measurement result is obtained; obtaining a second measurement result of a second specimen contained in the second specimen vessel; bringing a third specimen vessel to the sucking position after the first measurement result is obtained; obtaining a third measurement result of a third specimen contained in the third specimen vessel; and obtaining a fourth measurement result of the second specimen when the first measurement result is higher than a threshold, the second specimen being sucked at the sucking position again for obtaining the fourth measurement result before bringing the third specimen vessel to the sucking position, is disclosed. A specimen analysis is also disclosed.

Abstract: A sample treatment apparatus is designed to directly monitor a pressure signal from a pressure sensor to examine pressure fluctuations resulting from a sample's sway before a discharge of the sample, so that the discharge is performed after the confirmation of the absence of pressure changes. The apparatus has a detection function that allows a discharge to be started even before a pressure fluctuation vanishes completely, by allowing the operator to set a desired number of pressure monitorings, monitoring time, or pressure amplitude. The detection function also allows an alarm to be raised when a pressure fluctuation has not fallen within a given range. The sample treatment apparatus therefore allows discharge of more accurate amounts of samples.

Abstract: Mechanisms are provided for automatically removing tips from a pipette nozzle and/or for detecting the type of tip mounted to the nozzle. For detipping, mechanical energy is stored when the tip is mounted to the nozzle and is released when the tip is to be removed to facilitate removal thereof. A mechanism is preferably provided which limits the force with which the tip is mounted to the nozzle and an overforce mechanism may be provided to facilitate removal of a stuck tip. For detecting tip type, each tip type has a different base configuration which results in a different relative displacement between the nozzle and a surrounding component as a result of the tip contacting both during tip mounting, the difference in relative displacement being detected to identify tip type.

Abstract: There is provided a sample processing apparatus capable of detecting the push-up type sample container including a recess on the outer side of the bottom portion of the container and performing an appropriate sample processing while alleviating the load of the user with a simple configuration.

Abstract: The invention provides hand-held pipettor in accordance with an embodiment that includes a piston that is received in one end of a cylinder, a pipettor tip that is removably secured to an opposite end of said cylinder, a manually driven unit that reciprocates the piston through a selected stroke to aspirate fluid into and to expel the thus aspirated fluid from the pipettor tip, a mechanism including a stepper motor responsive to control signals for adjusting a range of the stroke, and a voice recognition system that decodes verbal commands and outputs the result to a central processing unit, which in turn generates the control signals.

Abstract: An in situ sampling device for capturing a material sample from a vessel. Embodiments of the present invention may be disposed as elongate probes having extendable sample capture elements. A sample capture element of such a device may include a concave sample capture pocket located near a distal end thereof. The sample capture pocket is adapted to capture a known volume of material when the sample capture element is extended into said material. The material sample remains trapped in the sample capture pocket upon sample capture element retraction. The sample capture pocket may be provided with a port for receiving material therein and a port for expelling material therefrom. These ports may be placed in communication with corresponding material transfer channels extending through the sample capture element. A device of the present invention provides for substantially contemporaneous sample capture and sample processing.

Abstract: A reagent dispensing apparatus for loading reagents into a microfluidic device having a digital memory for data related to the reagents loaded into the microfluidic device, the reagent dispensing apparatus having a plurality of reagent vials each of the vials having an integrated circuit with memory storing data regarding the reagent in the vial, and a droplet dispenser, a mounting surface for detachably mounting the microfluidic device for movement relative to the vials, and, a control processor for operative control of the vials and the mounting surface, wherein, the control processor is configured to activate the droplet dispenser of the vial selected, move the vial into registration with the microfluidic device and download the data from the integrated circuit to the digital memory of the microfluidic device.

Abstract: This reagent preparation apparatus prepares a reagent supplied to a measurement portion measuring a specimen with the reagent. The reagent is prepared from a first liquid and a second liquid different from the first liquid. The reagent preparation apparatus comprises a reagent preparation portion preparing the reagent and a control portion acquiring reagent information related to the reagent prepared by the reagent preparation portion, acquiring supply time information related to a time when the reagent prepared by the reagent preparation portion was supplied to the measurement portion and outputting the reagent information and the supply time information.

Abstract: A hand-held, multi-channel pipettor has an electronically controlled motor to reposition pipette tips for different center to center spacing. Each repositionable tip fitting assembly has a cam following pin that is driven by cam tracks in a motor driven roller drum. Stationary ports for the multiple aspiration cylinders are strategically placed to simplify management of flexible tubes leading to the repositionable pipette tip fitting assemblies. The pipettor has a user interface that can be operated conveniently by one hand to reposition pipette tips. It has a pipette tip ejection mechanism with a sinusoidal stripper bar.

Abstract: A reagent dispensing apparatus for loading reagents into a silicon wafer on which an array of lab-on-a-chip (LOC) devices are fabricated, each LOC device having a digital memory for data related to the reagents loaded into the LOC device, the reagent dispensing apparatus having a plurality of reagent vials each of the vials having an integrated circuit with memory storing data regarding the reagent in the vial, and a droplet dispenser, a mounting surface for detachably mounting the silicon wafer for movement relative to the vials, and, a control processor for operative control of the vials and the mounting surface, wherein, the control processor is configured to activate the droplet dispenser of the vial selected, move the vial into registration within one or more of the LOC devices on the silicon wafer and download the data from the integrated circuit to the digital memory of the one or more LOC devices.

Abstract: A reagent dispensing apparatus for loading reagents into a fixed array of microfluidic devices, each microfluidic device having a digital memory for data related to the reagents loaded into the microfluidic device, the reagent dispensing apparatus having a plurality of reagent vials each of the vials having an integrated circuit with memory storing data regarding the reagent in the vial, and a droplet dispenser, a mounting surface for detachably mounting the fixed array of microfluidic devices for movement relative to the vials, and, a control processor for operative control of the vials and the mounting surface, wherein, the control processor is configured to activate the droplet dispenser of the vial selected, move the vial into registration within one or more of the microfluidic devices within the fixed array and download the data from the integrated circuit to the digital memory of the one or more microfluidic devices.

Abstract: A reagent dispensing apparatus for loading reagents into a microfluidic device having a digital memory for data related to the reagents loaded into the microfluidic device, the reagent dispensing apparatus having a plurality of reagent vials each of the vials having an integrated circuit with memory storing data regarding the reagent in the vial, and a droplet dispenser, a mounting surface for detachably mounting the microfluidic device for movement relative to the vials, and, a control processor for operative control of the vials and the mounting surface, wherein, the control processor is configured to automatically interrogate each of the integrated circuits to collect and store the data regarding the reagents in each of the vials.

Abstract: A peristaltic microfluidic pump. The pump comprises a pumping chamber positioned between an inlet and an outlet; a plurality of moveable fingers positioned in a wall of the pumping chamber, the fingers being arranged in a row along the wall; and a plurality of thermal bend actuators. Each actuator is associated with a respective finger such that actuation of the thermal bend actuator causes movement of the respective finger into the pumping chamber. The pump is configured to provide a peristaltic pumping action in the pumping chamber via movement of the fingers.

Abstract: A MEMS integrated circuit comprising a peristaltic microfluidic pump and control circuitry for the pump. The pump comprises a pumping chamber positioned between an inlet and an outlet; a plurality of moveable fingers positioned in a wall of the pumping chamber, the fingers being arranged in a row along the wall; and a plurality of thermal bend actuators. Each actuator is associated with a respective finger such that actuation of the thermal bend actuator causes movement of the respective finger into the pumping chamber. The control circuitry controls actuation of the plurality of actuators. The control circuitry is configured to provide a peristaltic pumping action in each pumping chamber via peristaltic movement of the fingers.

Abstract: There is provided a highly reliable autoanalyzer less liable to sample and reagent carry-over and capable of preventing contamination and precisely pipetting samples and reagents. Using a sample pipetting nozzle 27 having water-repellent surfaces, a sample is pipetted from a sample cell 25 to a reaction cell 4 having a hydrophilic bottom face.

Abstract: Methods and devices for a fully automated synthesis of radioactive compounds for imaging, such as by positron emission tomography (PET), in a fast, efficient and compact manner are disclosed. In particular, the various embodiments of the present invention provide an automated, stand-alone, hands-free operation of the entire radiosynthesis cycle on a microfluidic device with unrestricted gas flow through the reactor, starting with target water and yielding purified PET radiotracer within a period of time shorter than conventional chemistry systems. Accordingly, one aspect of the present invention is related to a microfluidic chip for radiosynthesis of a radiolabeled compound, comprising a reaction chamber, one or more flow channels connected to the reaction chamber, one or more vents connected to said reaction chamber, and one or more integrated valves to effect flow control in and out of said reaction chamber.

Abstract: A dispensing apparatus includes a dispensing arm, a driving motor, and a transmitting/buffering unit. The dispensing arm is rotatable and conveys a fluid drawn at a predetermined drawing position to a predetermined discharge position. The driving motor rotates the dispensing arm. The transmitting/buffering unit includes a crank shaft that rotates through a driving force of the driving motor and a crank rod that is coupled with the crank shaft and rotates with a rotation of the crank shaft thereby rotating the dispensing arm.

Abstract: An automatic analyzer capable of performing analysis in terms of a number of analysis items with high reliability through a simple operation. The automatic analyzer comprises a probe adapted to be moved on a circular arc path and capable of sucking or discharging a sample or reagent, a plurality of sample containers disposed at different positions on the path of the probe and containing different analyte samples, and a rotor capable of carrying a plurality of reagent cartridges. Each of the reagent cartridges comprises a photometric cuvette that is empty when not in use, and a reagent cuvette in which a reagent used for a particular analysis item is hermetically sealed. A two-dimensional code with information regarding the analyte type and analysis conditions, for example, is affixed to the reagent cartridge. The two-dimensional code information is read by a reading unit.

Abstract: A method or device for integrated dosing and intermixing of small amounts of liquid, has at least one dosing reservoir (3) connected to a reaction reservoir (1) via at least one joining structure (11) and entirely filled with a first liquid. The at least one joining structure (11) is preferably dimensioned such that surface tension of the first liquid prevents the first liquid from penetrating into the reaction reservoir (1) which is entirely filled with a second liquid contacting the first liquid on the joining structure (11). A flow pattern is created in or on the reaction reservoir (1) to thoroughly mix the two liquids.

Abstract: Provided are an apparatus and a method of controlling a microfluidic system, and the microfluidic system. The apparatus of controlling the microfluidic system includes a central control block controlling an operation of the microfluidic system, a rotator control block controlling a rotator, a position control block controlling the position of a moving unit, the moving unit moving to a position of the microfluidic structure, and a radiation energy source control block controlling energy of a radiation energy source, the radiation energy source using an electromagnetic wave to scan over a position of the microfluidic structure. Such a configuration allows effective control of a miniaturized portable microfluidic system.

Abstract: A manually directed, electronic multi-channel pipettor uses servo controlled motors to drive a carriage and pipetting head in response to a user's manipulation of a control handle. The pipetting head include an array of tip fittings, e.g. 96. The system includes a check processor to avoid unintended motion in case of system faults or crashes. The system requires substantial force to attach the array of tips, and therefore includes controls that require both of the user's hands be occupied during the tip attachment process.

Abstract: A manually directed, multi-channel electronic pipetting system is designed to transfer liquids from a standard multi-well plate, deep-well plate or reservoir into another multi-well plate. The preferred pipetting head includes an array of 96-tip fittings. A deck with at least one but preferably two or more wellplate nesting receptacles holds one or more multi-well plates or reagent reservoirs for access by an array of disposable pipette tips mounted to the pipetting head. The electronic motion control system includes a control handle that is mounted to a load cell, the carriage for the pipetting head and is held in the palm of the user. In use, the user grasps the control handle and operates the system in a manner similar to one using a handheld electronic pipettor.

Abstract: An automated slide processing apparatus includes a plurality of work stations arranged in a stack, and a transport/elevator for transporting slides between the various work stations.

Abstract: A method of determining a plurality of positions associated with a plurality of reaction chambers of a microfluidic device includes a) providing a baseline image; b) providing a template image of a reaction chamber; and c) selecting a region of the baseline image. The method also includes d) performing a matching process including matching the template image to one or more portions of the region of the baseline image; e) determining a position of a first chamber; and f) predicting a position of a second chamber. The method further includes g) repeating steps c) through f) for subsequent chambers.