Patent classifications
G01N35/1097
Automated inline preparation and degassing of volatile samples for inline analysis
An analysis system includes a degassing cell, at least one first valve, and at least one second valve. The at least one first valve is fluidly coupled with a top of the degassing cell, the at least one first valve configured selectably connect the degassing cell to a displacement gas flow and to a vacuum source. The at least one second valve is fluidly connected with a lateral side of the degassing cell and separately fluidly connected with a bottom of the degassing cell. The at least one second valve is selectably coupled with any of a source of a sample-carrying fluid, a transfer line configured to deliver a sample to an analysis device, or a waste output.
AN APPARATUS COMPRISING MICROFLUIDIC PROTEIN-BASED SENSORS AND METHODS OF USING SAME
An automatic and continuous glucose monitoring apparatus and method of using same based on binding proteins. The apparatus integrates an aseptic sampling technique, a specially modified chromatography column to hold immobilized binding protein, and a microfluorometer into a compact portable device. The apparatus permits the measurement of a very wide range of concentrations—from a few micromolar to several hundreds of millimolar of glucose.
Arrangement for preparing a plurality of samples for an analytical method
The invention relates to an arrangement for preparing a plurality of samples for an analytical method, comprising a carousel with a solid housing and moveable receiving parts for the sample containers; a control for controlling the receiving parts in the carousel; and a sample receiving device for providing the sample for the analytical method. Said arrangement is characterized in that one or more stations for preparing samples are provided on the carousel, the receiving parts for the sample containers of the carousel can be positioned on said stations. Said arrangement also comprises a centrifuge with pairs of opposite lying receiving parts provided for the sample containers, and said receiving parts are arranged such that they can move on the centrifuge for the sample holder such that a transfer of a sample holder between a receiving part in the carousel and a receiving part in the centrifuge can be carried out. The control takes place by the same control which is also provided for controlling the carousel.
Device with Blockable/Un-Blockable Fluid Channels and Built-In Self-Test Equipment
A device includes a plurality of first fluid channels connected to one or more first fluid inlets, a plurality of first valves, each of the first valves having a first control port which allows for blocking or un-blocking a flow through one of the first fluid channels based on a pressure applied to the first valve via the first control port, a plurality of first control channels, each of the first control channels being connected to at least one of the first control ports, and self-test equipment.
Control device and automatic water sampler including same
An automatic water sampler is disclosed. The automatic water sampler of the present invention comprises: a driving unit operated according to the pressure measured by a pressure sensor; a driving magnet approaching a driven magnet according to the operation of the driving unit; and a first wire unlocked by a control rod according to the movement of the driven magnet. The present invention can provide an automatic water sampler, which improves inaccuracy due to conventional interference of an ocean current, flow velocity, and the like, and manual water sampling by depth by automatically sampling water at the correct depth recognized through a pressure sensor, thereby enabling reliability and accuracy of a sample to be ensured and sampling expenses to be remarkably reduced.
SAMPLING DEVICE AND SYSTEMS
Provided herein are devices, systems, and methods of using the same, that enable manual and automated sampling and preparation of biological samples for assessment. The samples may be obtained in any quantity, including nano/micro/millifluidic amounts. The samples comprise cells and/or other biological particles that are in suspension or grown on substrates such as microcarriers, and may be obtained from one or more containers, such as single well plates, vials, flasks or bioreactors. The instrument to which the sample is transferred may comprise any analytical instrument, such as an optical force or laser force cytology instrument.
Apparatus and method for automated analysis
There is provided an automated analyzer which has plural liquid tanks connected with a dispensing probe and which can efficiently switch the operative liquid tank according to measurement item. The automated analyzer includes a liquid dispenser having a dispensing probe and a pump capable of aspirating and dispensing a liquid from and into an open end of the probe, the liquid dispenser being operative to cause the liquid aspirated in the probe and a probe internal liquid to be dispensed into aliquot receptacles. The automated analyzer also includes; an internal liquid supply device having plural liquid tanks in which probe internal liquids corresponding to measurement items are stored, the supply device being operative to supply a probe internal liquid into the dispensing probe from one of the tanks. The automated analyzer further includes an input section and an operation controller.
NUCLEIC ACID CAPTURE, CONCENTRATION, AND PURIFICATION
An example of a kit includes a flow cell assembly. The flow cell assembly includes a reaction chamber, a temperature controlled flow channel in selective fluid communication with an inlet of the reaction chamber, and a filter positioned in the temperature controlled flow channel. The reaction chamber includes depressions separated by interstitial regions and capture primers attached within each of the depressions. The filter is i) to block concentrated biological sample-polymer complexes generated in the temperature controlled flow channel at a first temperature, and ii) to allow passage of concentrated biological sample and polymer released from the complexes in the temperature controlled flow channel at a second temperature.
Blood analysis method, control device and blood cell analyzer
The present disclosure provided a blood cell analyzer, a control device and a blood analysis method thereof. In the method, a first reagent is mixed with a sample to obtain a first testing sample, and then a second reagent is mixed with the first testing sample for a further reaction to get a second testing sample for basophil classification and/or HGB measurement. A blood sample may be tested in one reaction cell through time-division multiplexing technology to obtain four groups leukocytes classification result and HGB result by single detection channel. Thus, the structure of the analyzer may be greatly simplified on the premise of guaranteeing the performance of the analyzer, the size and cost of the analyzer may reduce and a performance-price ratio of the analyzer may increase.
Purifying an element from a sample matrix for isotopic analysis
A method includes supplying a reagent to a column, where the column is configured to purify an element from a sample matrix for isotopic analysis. The method also includes loading the column with the sample matrix, and supplying a second reagent to collect the element retained by the column. The method further includes loading the column with a second sample mixture, and collecting an element from the second sample mixture retained by the column. A column configured to separate an element from a sample matrix for isotopic analysis includes a resin configured to retain the element. The column also includes a first frit disposed of a first end of the column and a second frit disposed of a second end of the column. The column is configured to receive a first reagent in a first flow direction and a second reagent in a second flow direction different from the first flow direction.