Abstract:
A device for sampling, preparing and analysing a sample, for example a suspension, comprises: a sampling device adapted to sampling a fluid sample, at least one sample preparation unit adapted to prepare the sample, and at least one analysing unit. By adapting the device for sampling and analysing a sample for placement in direct vicinity to a process pipe and adapting the sampling device to sample a fluid sample directly from a gate, a compact and cost-efficient device is provides, which also provides fast feedback to a process to be controlled.
Abstract:
A detection system is provided for the measurement of in-vitro dental samples. The detection system includes an optical detection module that is configured for the detection of optical signals that are emitted in response to the absorption of an incident optical beam, and a control and processing unit that is configured for processing the detected optical signals and generating an image. The system also includes a sample holder may be removed and subsequently replaced without requiring recalibration of the system. In some embodiments, the optical detection module is configured for combined measurement of photothermal radiation and luminescence in response to the absorption of the incident optical beam.
Abstract:
Provided is a perforated-structure body that has high mechanical strength and is not likely to bend or be damaged when being handled. In a perforated-structure body 1, which is used in measurement of a characteristic of a measurement target performed by radiating electromagnetic waves, a plurality of perforations 2c are provided in a perforated plate 2, which has a first main surface 2a and a second main surface 2b that opposes the first main surface 2a, so as to penetrate from the first main surface 2a to the second main surface 2b, and support substrates 3 and 4 are stacked on at least one main surface among the first main surface 2a and the second main surface 2b of the perforated plate 2 so as to have an opening or a cut out portion through which at least one of the perforations 2c is exposed.
Abstract:
An analytical system is disclosed. The analytical system includes a storage container configured to store a plurality of capillaries. It also includes a gripper configured to receive at least one of the plurality of capillaries, and move the at least one capillary so that an end of the capillary contacts a sample in a sample container and draws the sample in the capillary. The system also includes a reader configured to detect a signal from the sample in the capillary.
Abstract:
A SERS unit 1A comprises a substrate 4; an optical function part 10 formed on the substrate 4, for generating surface-enhanced Raman scattering; and a package 20A containing the optical function part in an inert space S and configured to irreversibly expose the space S.
Abstract:
The present disclosure pertains to a system for separating plasma and/or serum from blood. The system is configured to separate plasma and/or serum from between about 20 and about 50µl of blood. Separating plasma and/or serum from that amount of blood may be useful during a bilirubin level estimation in newborn babies. The system alleviates the need to centrifuge a sample of blood to separate the blood plasma and/or serum. The system is configured such that the separated serum is held by the system during an optical analysis to estimate bilirubin levels, thus eliminating the need to transfer the serum sample to a cuvette for analysis. In some embodiments, the system comprises a cartridge body, a filter, a serum pathway, an analysis port, a negative pressure source, a suction connector port, and/or other components.
Abstract:
An inspection system is configured for use with a conveyer apparatus including carrier bars. Each carrier bar conveys pellet-shaped articles along a predetermined path. The inspection system includes at least one camera unit for sensing a predetermined characteristic of the pellet-shaped articles, a removal unit, and a controller. The removal unit, downstream from the at least one camera unit, removes selected pellet-shaped article(s) from the carrier bar(s) depending on whether the characteristic is sensed by the at least one camera unit. The controller is in communication with the at least one camera unit and the removal unit. The controller provides a signal to the removal unit in accordance with the sensed characteristic. The removal unit includes a rotatable ejection drum having extended vacuum nozzles along its length, equal to the number of articles conveyed in each carrier bar. Each vacuum nozzle selectively removes article(s) from the carrier bar(s) by suction.
Abstract:
Systems and methods for analysis of samples, and in certain embodiments, microfluidic sample analyzers configured to receive a cassette containing a sample therein to perform an analysis of the sample are described. The microfluidic sample analyzers may be used to control fluid flow, mixing, and sample analysis in a variety of microfluidic systems such as microfluidic point-of-care diagnostic platforms. Advantageously, the microfluidic sample analyzers may be, in some embodiments, inexpensive, reduced in size compared to conventional bench top systems, and simple to use. Cassettes that can operate with the sample analyzers are also described.
Abstract:
Systems and methods for analysis of samples, and in certain embodiments, microfluidic sample analyzers configured to receive a cassette containing a sample therein to perform an analysis of the sample are described. The microfluidic sample analyzers may be used to control fluid flow, mixing, and sample analysis in a variety of microfluidic systems such as microfluidic point-of-care diagnostic platforms. Advantageously, the microfluidic sample analyzers may be, in some embodiments, inexpensive, reduced in size compared to conventional bench top systems, and simple to use. Cassettes that can operate with the sample analyzers are also described.