The invention relates to a method for closed sampling from filling plants comprising the following steps in: filling a sample quantity into a container (1) with a wall (3); applying a reinforcing element (20) to the container (1) with the wall; introducing a fracture point (22) into the wall of the container (1) in the area of the reinforcing element (20); introducing a sampling attachment (30) with hollow tube (40) into the wall of the container (1) in the area of the fracture point (22); filling a sample container (50) connected to the hollow tube (40) once or several times; removing the sample container (50) from the hollow tube (40) and closing the sample container (50); removing the sampling attachment (30) with hollow tube (40) from the container; and sealing the fracture point (22) of the container in the area of the reinforcing element (20). The subject matter of the invention is also a sampling device, in particular for carrying out the method.

The disclosure relates to a sampling system for processing a liquid sample, including a retrieving module configured to be fluidically connected to a liquid-source and configured to retrieve a liquid sample from the liquid-source, a filling module configured to fill the retrieved liquid sample into a sampling container, a storing module configured to store the sampling container filled with the liquid sample, and a disposal module configured to discard the liquid sample.

A sterile sampling apparatus includes a first to seventh flow paths, a sampling section, a first and second pumps, and a first to sixth opening/closing mechanism. The sampling section is disposed in the seventh flow path. The first pump is disposed in the sixth flow path. The second pump is disposed in the seventh flow path. The second flow path includes a first opening/closing mechanism. The third flow path includes a second opening/closing mechanism. The fourth flow path includes a third opening/closing mechanism. The first flow path includes a fourth opening/closing mechanism. The sixth flow path includes a fifth opening/closing mechanism. The seventh flow path includes a sixth opening/closing mechanism. The rate of the second pump is higher than that of the first pump.

Provided is a specimen collection kit characterized by comprising: a tube body; a coupling member detachably coupled to one side of the tube body; a cover member detachably coupled to the other side of the tube body; and a specimen guide part which is provided on the inner surface of the tube body, prevents an outlet from being clogged by a collection means, and guides the flow of the specimen to the outlet. According to the configuration, blocking of the outlet by a swab is prevented, and thus the specimen can be collected through the outlet without difficulty. Since a maximal amount of the specimen can be acquired when performing a rapid diagnosis, the effects of extraction and diagnostic testing can be enhanced. Since the specimen can be collected by applying a small amount of pressure, fatigue reduction in an inspector can be achieved and thereby make work easier.

Systems, methods, and devices for identifying molds or bacteria contained in a sample are disclosed herein. In some embodiments, a device can be used to perform analysis of a sample and identifying molds or bacteria contained within. The device may include a sample collection tool for collecting and holding a sample. The device may also include a sample receptacle, which may have an agar portion disposed within the sample receptacle and an inlet port. There may be a binary tree of medicines distributed within the agar portion. The inlet port may be configured to receive an end of a sample collection tool, wherein full insertion of the sample collection tool through the inlet port causes the sample to be placed in contact with the agar portion. Mold or bacteria from the collected sample may grow or attempt to grow throughout the agar, through the binary tree, and visual analysis of the growth paths may allow the mold or bacteria to be identified and the best combination of medicines to be determined.

A measurement apparatus for measuring a target substance in a sample adhered to a sensor includes a plurality of conductive portions that includes a first conductive portion group extending in an insertion direction of the sensor, and a second conductive portion group extending in a direction intersecting with the insertion direction. In the inserted state, the first conductive portion group is configured to contact with electrode pads corresponding to the first conductive portion group, and the second conductive portion group is configured to contact with electrode pads other than the electrode pads corresponding to the first conductive portion group.

The invention relates to a system (10) adapted to measure multiple biophysical characteristics of cells, the system (10) comprising: a microfluidic chip (12) provided with a microfluidic channel (14) which allows cells to flow through, the microfluidic channel (14) having an inlet (14a), an outlet (14b), and a lateral opening (14c) situated between the inlet (14a) and the outlet (14b); and a capacitive sensor (30) integrated in the microfluidic chip, adapted to obtain biophysical characteristics of a single cell in the microfluidic channel (14) by directly manipulating the single cell by sensor elements (31, 32) through the lateral opening (14c) of the microfluidic channel (14), the sensor (30) comprising a stationary part and an electrostatically driven movable part which is movable relative to the stationary part, the stationary part being fixed to the microfluidic chip (12), the movable part being arranged in the lateral opening (14c) of the microfluidic channel (14), wherein a portion of the sensor elements (31, 32) provides an interface between fluid and air in the system.

An electrically passive device and method for in-situ acoustic emission, and/or releasing, sampling and/or measuring of a fluid or various material(s) is provided. The device may provide a robust timing mechanism to release, sample and/or perform measurements on a predefined schedule, and, in various embodiments, emits an acoustic signal sequence(s) that may be used for triangulation of the device position within, for example, a hydrocarbon reservoir or a living body.

A blood collection assembly to facilitate the assay of a blood sample, comprising: (i) an absorptive media configured to collect and release the blood sample, (ii) a cartridge defining a cavity and a blood-sampling end configured to hold the absorptive media against a dermal membrane containing the blood sample; (iii) a lancet disposed within the cavity and having a lance at one end thereof; and (iv) a plunger configured to extend and retract the lancet through the absorptive media to lance the dermal membrane and collect the blood sample within the absorptive media. The cartridge containing the blood-filled, absorptive media is configured to be placed into a blood assay device for extraction of the blood sample from the absorptive media.

A system and method for preparing a diagnostic fluid sample for use with a fluid assay system. The method comprises the steps of: amplifying the fluid sample to increase the number of cells subject to being tested; drawing a first volume of the fluid sample into a first syringe of a dual-barrel syringe and dispensing the first volume of the fluid sample through a media filter. The method further comprises the steps of placing the bacteria-laced filter into a lysis module; dispensing a first portion of a lysis buffer into the lysis module from the second syringe of the dual-barrel syringe; and dispensing a second portion of the lysis buffer through the media filter into a disposable cartridge of a fluid assay system.