Abstract: An analytical device is provided that can easily determine whether analysis results are affected by drug administration for the test subject when a sample such as urine or blood is analyzed. The analytical device includes reading means capable of reading test subject identification information recorded on an information recording portion of a sample container, and data output means capable of outputting data on analysis results of a sample contained in the sample container, the analytical device further having: information acquiring means capable of acquiring, from a source external to the analytical device, drug administration information on the test subject corresponding to the test subject identification information read by the reading means, wherein when the data on analysis results of a sample are outputted by the data output means, data on the drug administration information on the test subject corresponding thereto are also outputted.

Abstract: The present invention provides a code reading device capable of associating various kinds of information with obtained data with ease simply by connecting the code reading device to a data holding device. A code reading device (1) includes a code reader (15) for reading code information, a memory (31), and a data processing control portion (32). The data processing control portion (32) stores code information read by the code reader in a code information storage area (311) of the memory (31), reads data from a data holding device when the data holding device is connected to the code reading device and stores the data in a data storage area (312) of the memory (31), and sends to a personal computer the data in the data storage area (312) in a state of being associated with the code information in the code information storage area (311) when the personal computer is connected to the code reading device.

Abstract: In an analyzer for analyzing a sample that reacts with a reagent 25, an analyzing tool 10, an infrared sensor 1 and a temperature controlling part 5 are provided. Inside the analyzing tool 10, a reaction cell 24 in which the sample and the reagent 25 react with each other and a heating element 33 that is heated by electrification are provided. The infrared sensor 1 is disposed outside the analyzing tool 10 so as to photoreceive an infrared ray 9 that is emitted from the reaction cell 24, and outputs a signal that is in accordance with an amount of the photoreceived infrared ray 9 to the temperature controlling part 5. The temperature controlling part 5 adjusts a heat value of the heating element 33 based on the signal from the infrared sensor 1.

Abstract: An analyzer in which optical measurement is performed with respect to a sample placed in optically transparent cells of an analysis tool includes a light source unit, a light-receiving unit, a tray on which the tool is placed, and a drive mechanism for driving the tray. The tray includes a holding section that holds the tool in a predetermined position. The drive mechanism reciprocates the tray between a first position where the tool placed on the tray is exposed to the outside of the analyzer and a second position where the tool is accommodated inside the analyzer. The light source unit is disposed so that emitted light is incident on a cell of the tool when the tray is located in the second position. The light-receiving unit is disposed so as to receive light transmitted through the cell when the tray is located in the second position.

Abstract: A liquid chromatography apparatus is provided with a sample preparation unit, a column that separates components of a sample, an eluent supplier that includes a feeder for supplying eluents to the column, a flow path directional valve capable of introducing fixed amounts of the sample and the eluents to the column, an analyzer for analyzing a test solution composed of the sample components separated by the column and one of the eluents, and a controller, wherein the eluent supplier supplies the eluents to the flow path directional valve in an unmixed state. As a result of employing this configuration, analysis time is shortened and eluent consumption is reduced.

Abstract: An analyzing device includes a feeder connected to a container in which a sample is contained for sucking the sample from the container and feeding the sample, and a controller for performing control for feeding from the feeder to a measurer. In measuring the sample, the controller performs control so that results of a plurality of times of measurement are obtained with respect to the single container in which the sample is contained, without changing the container. This arrangement allows quick accuracy check.

Abstract: A liquid chromatography device includes a column containing a filler, an injection valve capable of introducing a sample into the column and also capable of introducing a liquid mobile phase into the column, and a mobile phase feeder for feeding the liquid mobile phase from a mobile phase container containing the liquid mobile phase to the column via the injection valve. Between the mobile phase container and the injection valve is provided a storage chamber for temporarily storing the liquid mobile phase sent from the mobile phase container. The device further includes a liquid level detection sensor for detecting the liquid level of the liquid mobile phase in the storage chamber. This structure allows the liquid for use in analysis to be used completely without being wasted.

Abstract: An analytic instrument (1) is provided with a channel (20) for moving a sample, and a reservoir (20F) for holding the sample, and has a first member (2) and a second member (3) bonded together by means of a solvent. The analytic instrument (1) is further provided with a solvent channel (21) which is formed at least on the first member (2) or the second member (3) . The first member (2) and the second member (3) are fused to each other along the solvent channel (21) or the periphery thereof. Preferably, the solvent channel (21) is formed along at least a part of the channel (20) or the reservoir (20F) .

Abstract: A sample stirring device of the present invention includes a driving roller and two follower rollers for coming into contact with a sample container including a cylindrical portion for containing a sample to be stirred. The driving roller is driven for rotation to stir the sample contained in the sample container. The two follower rollers have rotation axes inclined with respect to an axial direction of the cylindrical portion. This arrangement allows the sample container such as a blood collection tube to be rotated stably.

Abstract: The present invention relates to a method of adjusting a flow rate sensor 52 for measuring a travel time of a sample passing through a resistive body. The flow rate sensor 52 includes a straight tube 56, and plural photo sensors 52A to 52E for detecting interfaces 82A, 82B between a gas 80 and a liquid 81 traveling in the straight tube 56. Respective positions of the plural photo sensors 52A to 52E are adjusted by detecting the interfaces 82A, 82B by using such photo sensors 52A to 52E.

Abstract: A monitoring device which measures numerical value information on a subject substance in a body fluid has an electrochemical sensor including a sensor unit for detecting the subject substance which is used in the way of being embedded subcutaneously and generating an electric signal correlating to the numerical value information on the subject substance, and a temperature control unit which adjusts the detected ambient temperature as a temperature ambient to a sensor unit when detecting the subject substance so as to reach a target setting temperature when measuring the subject substance.

Abstract: A precursor of a molecular probe for imaging of pancreatic islets is provided.

Abstract: The present invention relates to a flow rate sensor 52 which causes a gas 80 included in a liquid 81 to travel in a piping 56, and which measures a flow speed of a sample by detecting the gas 80. The flow rate sensor 52 is configured to maintain a contact area of the gas with respect to the piping 56 at constant or at substantially constant.

Abstract: The present invention relates to an analysis apparatus 1 comprising a resistive body 2 for giving a travel resistance to a sample, and power sources 33, 54 for giving power to cause the sample to pass through the resistive body 2. The power sources 33, 54 include a pressurizing mechanism 33 arranged at an upstream side of the resistive body 2 and a pressure-reduction mechanism 54 arranged at a downstream side of the resistive body. The pressurizing mechanism 33 and the pressure-reduction mechanism 54 are each a tube pump, for example. The resistive body 2 is provided with a plurality of minute fluid channels, for example.

Abstract: A method for analyzing hemoglobin by electrophoresis, capable of analyzing hemoglobin A1c (HbA1c) and modified hemoglobin with improved accuracy in a shortened analysis time is provided. The method for analyzing hemoglobin by electrophoresis includes performing electrophoresis under conditions in which an acidic substance having two or more carboxyl groups is present in an electrophoresis solution. At least two of the carboxyl groups of the acidic substance each have an acid dissociation constant (pKa) lower than the pH of the electrophoresis solution at the time of analysis.

Abstract: The present invention relates to an analysis apparatus 1 including a resistive body 2 through which a sample passes, and a flow rate sensor 53 for measuring a travel time of the sample at the resistive body 2. The flow rate sensor 53 is arranged at the halfway of discharging pipings 74 to 77 for discharging a liquid supplied to the resistive body 2. Preferably, the flow rate sensor 53 includes a tubular body through which a liquid or a gas passes, and a sensor unit with plural detecting areas for detecting an interface between the liquid and the air traveling in the tubular body.

Abstract: The present invention relates to an analytical tool (1) comprising a substrate (10), a capillary (13) which is formed on the substrate (10) and into which a sample liquid is to be loaded by movement of the sample liquid in the capillary. The substrate (10) is provided with a liquid movement preventer for preventing the sample liquid loaded into the capillary (13) from moving further. Preferably, the liquid movement preventer includes a stepped portion (18B) projecting from the substrate or a recess provided at the substrate.

Abstract: A lancing member (2) is integrally provided with a cap (29) for covering a needle (21). Upon or after being attached to a holder (5) of a lancing device (A), the lancing member (2) is rotated relative to a cap (29) by a rotator (C). As a result, the boundary (28) between the cap (29) and the lancing member (2) is broken easily to expose the needle (21).

Abstract: A sample collection implement S1 includes a container 1 having an accommodation portion 10 in which a liquid 5 for suspending or diluting a sample is accommodated, a sample collection stick 2 being able to be disposed in the accommodation portion 10, a filter 3 provided inside the container 1, and a movable member 4 that can be moved in a predetermined direction inside the container 1 and has a function of pushing the liquid 5 and causing the liquid to pass through the filter 3, when moved in the predetermined direction. With such a configuration, when the liquid 5 is filtered, it is not necessary to move the filter 3 by directly pushing it and a filter with a low mechanical strength can be used as the filter 3. In addition, it is not necessary to use a centrifugal apparatus.

Abstract: A new orally administerable DHEA production promoter is provided. A composition containing an extract of at least one selected from the group consisting of plants of Rosaceae Crataegus, Saururaceae Houttuynia, Vitaceae Vitis, and Compositae Anthemis is provided as a DHEA production promoter. The extract may be of one of the plants or extracts of two or more of them may be used in combination. A specific example is preferably a mixture of extracts of all four of the aforementioned plants. This DHEA production promoter also can be used as, for example, an anti-aging agent such as a skin improver as well as a pharmaceutical agent such as an immunostimulator, an antidiabetic agent, an anti-osteoporosis agent, an antiarteriosclerotic agent, an anti-obesity agent, a sleep-promoting agent, and a central nervous system depressant.