Abstract: An analysis device employs an analysis kit including a chip provided with a capillary through which a sample flows and a cartridge superimposed on the chip and provided with a liquid reservoir. The analysis device includes a guide-in section into which the analysis kit is guided, a placement section on which the analysis kit placed so as to be supported, a pusher member that pushes the analysis kit from one side face of the analysis kit, contact members that oppose another side face on an opposite side in the horizontal direction to the one side face of the analysis kit placed on the placement section, and contact the other side face of the analysis kit being pushed in by the pusher member so as to position the analysis kit in the horizontal direction, and a measurement member that measures a component present in the sample in the analysis kit.

Abstract: An analysis device employs an analysis kit including a chip provided with a capillary through which a sample flows and a cartridge superimposed on the chip and provided with a liquid reservoir. The analysis device includes a guide-in section into which the analysis kit is guided, a placement section on which the analysis kit placed so as to be supported, a pusher member that pushes the analysis kit from one side face of the analysis kit, contact members that oppose another side face on an opposite side in the horizontal direction to the one side face of the analysis kit placed on the placement section, and contact the other side face of the analysis kit being pushed in by the pusher member so as to position the analysis kit in the horizontal direction, and a measurement member that measures a component present in the sample in the analysis kit.

Abstract: An analysis device employs an analysis kit including a chip provided with a capillary through which a sample flows and a cartridge superimposed on the chip and provided with a liquid reservoir. The analysis device includes a guide-in section into which the analysis kit is guided, a placement section on which the analysis kit placed so as to be supported, a pusher member that pushes the analysis kit from one side face of the analysis kit, contact members that oppose another side face on an opposite side in the horizontal direction to the one side face of the analysis kit placed on the placement section, and contact the other side face of the analysis kit being pushed in by the pusher member so as to position the analysis kit in the horizontal direction, and a measurement member that measures a component present in the sample in the analysis kit.

Abstract: Sound is reduced after securing sufficient air volume. An intake side fan including a first housing, a first drive motor that functions as a drive source, a first hub that is rotated by drive force of the first drive motor, and a plurality of first impellers that is rotated along with the first hub; and an exhaust side fan including a second housing, a second drive motor that functions as a drive source, a second hub that is rotated by drive force of the second drive motor, and a plurality of second impellers that is rotated along with the second hub are provided. An axial maximum chord length of the first impellers is smaller than an axial maximum chord length of the second impellers.

Abstract: The present disclosure relates to a method for labeling particles with magnetic particles and an apparatus for labeling particles with magnetic particles.

Abstract: The present disclosure relates to a method for labeling particles with magnetic particles and an apparatus for labeling particles with magnetic particles.

Abstract: Sound is reduced after securing sufficient air volume. An intake side fan including a first housing, a first drive motor that functions as a drive source, a first hub that is rotated by drive force of the first drive motor, and a plurality of first impellers that is rotated along with the first hub; and an exhaust side fan including a second housing, a second drive motor that functions as a drive source, a second hub that is rotated by drive force of the second drive motor, and a plurality of second impellers that is rotated along with the second hub are provided. An axial maximum chord length of the first impellers is smaller than an axial maximum chord length of the second impellers.

Abstract: An analysis device employs an analysis kit including a chip provided with a capillary through which a sample flows and a cartridge superimposed on the chip and provided with a liquid reservoir. The analysis device includes a guide-in section into which the analysis kit is guided, a placement section on which the analysis kit placed so as to be supported, a pusher member that pushes the analysis kit from one side face of the analysis kit, contact members that oppose another side face on an opposite side in the horizontal direction to the one side face of the analysis kit placed on the placement section, and contact the other side face of the analysis kit being pushed in by the pusher member so as to position the analysis kit in the horizontal direction, and a measurement member that measures a component present in the sample in the analysis kit.

Abstract: The present disclosure relates to a method for labeling particles with magnetic particles and an apparatus for labeling particles with magnetic particles.

Abstract: A method for analyzing a sample includes the step of irradiating a reaction portion of a sample BL and a reagent 40 in a reaction cell 34A of an analysis unit with light to obtain data D0 indicating optical characteristics of this portion. The method further includes the steps of irradiating a reference cell 34B which is not provided with a reagent 40 with light in a state in which the sample BL is supplied to the cell to obtain reference data D1 indicating optical characteristics of this portion, irradiating a base portion 34C of the analysis unit with light to obtain reference data D2 indicating optical characteristics of this portion, and obtaining data D3 indicating optical characteristics of the sample BL before reaction with the reagent 40 based on the reference data D1 and D2.

Abstract: A temperature controlling unit (X1) includes a holder (11) for a liquid receiver (40), a heating block (12) for heating the liquid in the liquid receiver (40), and a cooling block (13) for cooling the liquid in the liquid receiver (40). The holder (11) maintains a first temperature for keeping the temperature of the liquid in the liquid receiver (40) at a lower target temperature. The heating block (12) maintains a second temperature higher than a higher target temperature above the lower target temperature. The cooling block (13) maintains a third temperature lower than the lower target temperature. A temperature controlling method of the present invention includes a heating step for bringing a heating block (12) into contact with the liquid receiver (40) held by the holder (11) and a cooling step for bringing a cooling block (13) into contact with the liquid receiver (40) held by the holder (11).

Abstract: When light beams of two different wavelengths applied from an excitation light source are made incident on a nonlinear optical crystal having a unique nonlinear coefficient, the nonlinear optical crystal generates THz waves resulting from difference frequency generation according to the nonlinear coefficient that the crystal itself has and SHG waves in which the light beams of two different wavelengths have been wavelength converted in accordance with the nonlinear coefficient. The generated THz waves pass through or are reflected from a sample and are detected by a THz detector. The SHG waves are detected by a SHG detector. A control unit acquires THz measurement values T from the THz detector, acquires SHG measurement values S from the SHG detector, and uses baseline THz measurement values TB and baseline SHG measurement values SB acquired without the sample to perform baseline correction using (T/S)/(TB/SB).

Abstract: The base plate is transmissive to terahertz waves, and a sample is disposed at the base plate. In the conductive periodic structure, plural transmission portions that transmit terahertz waves are arrayed with a predetermined period. The conductive periodic structure is disposed apart from a position at which the sample is disposed. The waveguide includes a total reflection surface provided at a boundary face with the conductive periodic structure. The total reflection surface totally reflects incident terahertz waves, and the waveguide guides incident terahertz waves toward the total reflection surface. The magnitudes of one or more of a distance between the position at which the sample is disposed and the conductive periodic structure, a property of the base plate, and the predetermined period are set such that a dip showing a characteristic absorption is formed in a predetermined frequency region of a spectrum of terahertz waves.

Abstract: The base plate is transmissive to terahertz waves, and a sample is disposed at the base plate. In the conductive periodic structure, plural transmission portions that transmit terahertz waves are arrayed with a predetermined period. The conductive periodic structure is disposed apart from a position at which the sample is disposed. The waveguide includes a total reflection surface provided at a boundary face with the conductive periodic structure. The total reflection surface totally reflects incident terahertz waves, and the waveguide guides incident terahertz waves toward the total reflection surface. The magnitudes of one or more of a distance between the position at which the sample is disposed and the conductive periodic structure, a property of the base plate, and the predetermined period are set such that a dip showing a characteristic absorption is formed in a predetermined frequency region of a spectrum of terahertz waves.

Abstract: When light beams of two different wavelengths applied from an excitation light source are made incident on a nonlinear optical crystal having a unique nonlinear coefficient, the nonlinear optical crystal generates THz waves resulting from difference frequency generation according to the nonlinear coefficient that the crystal itself has and SHG waves in which the light beams of two different wavelengths have been wavelength converted in accordance with the nonlinear coefficient. The generated THz waves pass through or are reflected from a sample and are detected by a THz detector. The SHG waves are detected by a SHG detector. A control unit acquires THz measurement values T from the THz detector, acquires SHG measurement values S from the SHG detector, and uses baseline THz measurement values TB and baseline SHG measurement values SB acquired without the sample to perform baseline correction using (T/S)/(TB/SB).

Abstract: This invention relates to a technique for adjusting the temperature of a liquid held on an analyzing instrument (1) to a target value. The invention provides a temperature control method wherein thermal energy is supplied to liquid (10) by passing a magnetic flux across an analyzing instrument (1) for raising the temperature of the liquid. The invention also provides an analyzing instrument (1) and analyzing apparatus (X) which are suited to raising the temperature of a liquid (10) using a magnetic flux.

Abstract: A microchannel 4 for transporting a specimen S using capillary phenomenon includes an analysis chamber 6 having a cross-sectional area larger than those of portions located in front of and behind the analysis chamber 6 in the direction of flow, an inflow opening 5 through which the specimen S flows into the analysis chamber 6, and a discharge portion 7 through which the specimen S is discharged from the analysis chamber 6. The discharge portion 7 includes a pair of discharge openings 71a and 71b located opposite to each other with respect to the inflow opening 5. With this structure, impairment of transport of the specimen S due to the presence of a residual air bubble is avoided.

Abstract: This invention relates to technology for analyzing a specific component in a sample liquid, and provides an analyzing tool and an analyzing apparatus. Analyzing tool (Y) includes a liquid inlet (61) at a central portion of the tool and a plurality of channels (51) which communicate with liquid inlet (61) and move the sample liquid introduced through liquid inlet (61) by capillary action from the central portion towards a peripheral portion of the tool. Each channel (51) extends linearly for example from the central portion towards the peripheral portion, and the plurality of channels (51) are arranged radially.

Abstract: A temperature controlling unit (X1) includes a holder (11) for a liquid receiver (40), a heating block (12) for heating the liquid in the liquid receiver (40), and a cooling block (13) for cooling the liquid in the liquid receiver (40). The holder (11) maintains a first temperature for keeping the temperature of the liquid in the liquid receiver (40) at a lower target temperature. The heating block (12) maintains a second temperature higher than a higher target temperature above the lower target temperature. The cooling block (13) maintains a third temperature lower than the lower target temperature. A temperature controlling method of the present invention includes a heating step for bringing a heating block (12) into contact with the liquid receiver (40) held by the holder (11) and a cooling step for bringing a cooling block (13) into contact with the liquid receiver (40) held by the holder (11).

Abstract: In order to provide a high-performance electrophoresis chip and an electrophoresis unit having the same that can restrain the diffusion of sample at an intersection between the electrophoresis groove and the sample introduction groove and prevent decrease in contrast and decrease in resolution, an electrophoresis chip is provided with a sample introduction groove, an electrophoresis groove, and a through hole. The sample introduction groove, the electrophoresis groove, and the through hole are formed on different substrates. In the electrophoresis chip, by combining the substrates, the sample introduction groove and the electrophoresis groove are located in different planes.