Sysmex Corporation

Toa Medical Electronics Co., Ltd.

Arkray, Inc.

Dade Behring Marburg Gmbh

Takayoshi Izumi

Toru Mizumoto

Keisuke Tsutsumida

Shinya Nakajima

Koji Fujimoto

Toshihiro Ootani

Norbert F Zander

Yousuke Tanaka

Susumu Hoshiko

Yoshihiro Mishima

Masayuki Katayama

Noriaki Koeda

Yoshiteru Mizuno

Yousuke Matsui

Satoru Okada

Takeo Kowari

Wilfried Meyers

Toshihiro Otani

Kunio Tanaka

A urine sample testing apparatus may include a urine qualitative measuring section configured to acquire a measurement result for each of a plurality of urine qualitative measurement items and a urine sediment measuring section configured to acquire a measurement result for each of a plurality of urine sediment measurement items. The apparatus may also include an operation part that can specify a combination of one of the plurality of urine qualitative measurement items and one of the plurality of urine sediment measurement items. An information processing unit may also be included.

Urine sample testing apparatus and apparatus for processing measurement results of urine sample

Urine sample testing apparatus and apparatus for processing measurement result of urine sample

A urine sample testing apparatus may include a urine qualitative measuring section configured to acquire a measurement result for each of a plurality of urine qualitative measurement items and a urine sediment measuring section configured to acquire a measurement result for each of a plurality of urine sediment measurement items. The apparatus may also include an operation part that can specify a combination of one of the plurality of urine qualitative measurement items and one of the plurality of urine sediment measurement items. An information processing unit may be included and configured to determine whether a first measurement result of the urine sample obtained by the urine qualitative measuring section and a second measurement result of the urine sample obtained by the urine sediment measuring section have a predetermined relationship with respect to the urine qualitative measurement item and the urine sediment measurement item included in the specified combination.

A urine sample testing apparatus comprises: a urine qualitative measuring section configured to acquire a measurement result for each of a plurality of urine qualitative measurement items; a urine sediment measuring section configured to acquire a measurement result for each of a plurality of urine sediment measurement items; an operation part that is operable by a user to specify a combination of one of the plurality of urine qualitative measurement items and one of the plurality of urine sediment measurement items; an information processing unit configured to determine whether or not a first measurement result of the urine sample obtained by the urine qualitative measuring section and a second measurement result of the urine sample obtained by the urine sediment measuring section have a predetermined relationship with respect to the urine qualitative measurement item and the urine sediment measurement item included in the specified combination.

A sample analyzer includes a first measurement unit, a second measurement unit, a detection section which detects information about an amount of a sample in a sample container before the first measurement unit aspirates the sample in the sample container, and a control section. Based on a detection result by the detection section and based on information about a predetermined sample amount necessary for performing both in the first measurement unit and the second measurement unit, when the control section has determined that the amount of the sample in the sample container is insufficient for the predetermined sample amount, the control section controls the first measurement unit and the second measurement unit so as not to aspirate the sample in the sample container.

Sample analyzer and method of analyzing a sample

A urine analyzer includes a controller configured to perform, when a qualitative measurement result of a sample is obtained and a sediment measurement result of the sample has been stored in a storage section, a cross-check of the obtained qualitative measurement result and the stored sediment measurement result, and to perform, when a sediment measurement result of a sample is obtained and a qualitative measurement result of the sample has been stored in the storage section, a cross-check of the obtained sediment measurement result and the stored qualitative measurement result.

Urine analyzer and urine sample information processing method

A sample analyzer which transports and analyzes samples, includes: a first measurement apparatus which measures samples; a second measurement apparatus which is arranged downstream, in a transport direction, from the first measurement apparatus, and which measures samples; a transporting apparatus which transports samples to a first supply position for supplying a sample to the first measurement apparatus, and to a second supply position for supplying a sample to the second measurement apparatus; and a controller which controls transportation of a sample present at the first supply position, in accordance with a processing status of a sample present at the second supply position.

Sample analyzer and method for controlling a sample analyzer

A sample analyzer which transports a rack holding a plurality of sample containers and analyzes samples includes: a first measurement apparatus which measures samples; a second measurement apparatus which is arranged downstream, in a transport direction, from the first measurement apparatus, and which measures samples; and a transporting apparatus which transports samples to a first supply position for supplying a sample to the first measurement apparatus, and to a second supply position for supplying a sample to the second measurement apparatus. The transporting apparatus linearly transports a rack from the first supply position to the second supply position, and the distance between the first supply position and the second supply position is a multiple of the distance between adjacent sample containers held in the rack.

Sample analyzer and sample analysis system

The present invention is to present a pipette tip supplier which is capable of convey the pipette tip smoothly. The pipette tip suppliercomprises: containerfor containing pipette tips; separatorfor separating pipette tips one by one; transporting sectionfor transporting pipette tips separated by the separator, one by one, to a first position via a second position and for dropping the transported pipette tips from the first position, the pipette tips transported by the transporting sectioncomprising a preceding pipette tip and a following pipette tip transported after the preceding pipette tip; detectorfor detecting the following pipette tip at the second position before the following pipette tip arrives at the first position; and controllerfor controlling the transporting sectionso as to suspend transporting operation when the detectordetects the following pipette tip at the second position.

Pipette tip supplier, sample analyzer and pipette tip supplying method

An analyzing method of a blood coagulation reaction by detecting an optical change of a blood sample with an elapse of time, the method includes: setting at least one checkpoint or check region between a starting point of the blood coagulation reaction and the endpoint thereof; and monitoring a reaction state of the blood coagulation reaction at the checkpoint or in the check region to detect an abnormality of the blood coagulation reaction.

Analyzing method of a blood coagulation reaction

A small, inexpensive, and easy-to-use automated immunochemical anlayzer is provided. The automated immunochemical analyzer comprises at least one reaction plate of disposable type forming a plurality of containers in one body, a table that can be drawn out for mounting the reaction plates, a table can be drawn out for mounting specimen racks, a reagent thermostatic unit, a reaction thermostatic unit, a reaction plate holding part, an apparatus for aspirating and discharging sample liquid, and an XY moving part mounting the reaction plate holding part and the apparatus for aspirating and discharging sample liquid. First, by the XY moving part, the holding part holds the reaction plate before use from the table for mounting the reaction plates and moves up to the reaction thermostats unit. Consequently, by the XY moving part, the apparatus for aspirating and discharging sample liquid is moved reciprocally among the specimen rack, reagent thermostatic unit, and reaction thermostatic unit, thereby distributing specimens and reagents to the reaction plate. THe distributed liquid is kept in a thermostatic state, and shaken and agitated, thereby promoting the antigen-antibody reaction. The reaction liquid is sample by the apparatus for aspirating and discharging sample liquid, and is measured.

Automated immunochemical analyzer

An apparatus for aspirating and discharging a specific volume of liquid sample, such as specimen and reagent, has a reaction plate serving a holding function and having a plurality of reaction containers, is provided which is low in cost and compact in design. On one side of a belt applied on two pulleys driven by one driving source an arm for holding a pipet is provided, while a reaction plate holding part is mounted on the other side of the belt (112), thereby constructing an apparatus for aspirating and discharging a liquid sample. When the arm ascends, the holding part descends, and when the arm descends, the holding part ascends. Thus, the arm and holding part are moved mutually in opposite directions by one driving source.

Apparatus for aspirating and discharging a liquid sample

In an automatic analyzer of samples, the liquid specimen and the reagent are mixed in a reaction container to react. If, however, there is a bubble in the reagent container, a accurate amount of a reagent may not be dispensed. Accordingly, a liquid surface detecting circuit for detecting the liquid surface on the basis of the impedance change between a pipet and a ground is disposed, and the height of the liquid surface before and after suction of the reagent is compared on the basis of the liquid surface detecting information, and the bubble is detected when the difference is more than a specified value, and accordingly the driving circuit of the driving source is controlled by the control circuit. Thus, when dispensing the reagent in the reagent container by a pipet, the bubble can be detected securely and accurately, and this apparatus may be used in a slender reagent container.

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Kobe, Japan

Takayoshi Izumi