The present invention relates to a method capable of detecting, identifying or counting microorganisms, and a system using the same, and provides a method capable of identifying, detecting or counting microorganisms in a more rapid, accurate and convenient manner than a conventional method for identifying, detecting or counting microorganisms. According to the present invention, it was found that identification, detection or counting of microorganisms can be performed in a rapid, accurate and convenient manner, when a fluorescently labeled microorganism sample is centrifuged and attached to the surface of a slide, followed by analysis of fluorescent images. Therefore, the method and system of the present invention can be useful in various fields requiring detection, identification and counting of microorganisms.

Disclosed are a cell processing method, a device, and a robot system that has a simple constitution and are reasonable. A robot system is provided for injecting liquid by rotating an injection container containing the liquid and an injection volume of the liquid is constant around an axis vertical to a long axis of the injection container. The robot system executes an injection start control to rotate the injection container around a predetermined axis, an injection control to stop rotation for a predetermined time and inject the liquid, and an injection end control to reversely rotate the injection container around the predetermined axis, and the predetermined time is calculated based on an injection flow rate measured in real time.

A means capable of simply and efficiently concentrating a cell suspension. A concentrator has a culture vessel having a first port and a second port, a server bag having a port, a case having a hollow fiber bundle in the internal space, a filtering device having an inlet port, a first outlet port, and a second outlet port, a collection vessel having a port, a liquid supply circuit connected to the first port, the inlet port, and the server bag's port so that flow passages are switchable, a liquid discharge circuit connected to the second port, the first outlet port, the second outlet port, and the collection vessel's port so that flow passages are switchable, a liquid supply mechanism having a switching mechanism, a supply pump, and a discharge pump, and a rotation mechanism rotating the filtering device.

A means capable of simply and efficiently concentrating a cell suspension. A concentrator has a culture vessel having a first port and a second port, a server bag having a port, a case having a hollow fiber bundle in the internal space, a filtering device having an inlet port, a first outlet port, and a second outlet port, a collection vessel having a port, a liquid supply circuit connected to the first port, the inlet port, and the server bag's port so that flow passages are switchable, a liquid discharge circuit connected to the second port, the first outlet port, the second outlet port, and the collection vessel's port so that flow passages are switchable, a liquid supply mechanism having a switching mechanism, a supply pump, and a discharge pump, and a rotation mechanism rotating the filtering device.

A liquid transport method is disclosed for efficiently producing cell cultures. The liquid transport method of the present disclosure, which is in processing of cells, includes: a) a step in which a container holding a liquid is gripped by a gripping tool of a robot; and b) a step in which the liquid in the container is transported to a collection container by rotating the gripped container. In steps a) and b) the robot operates such as not to pass over a vertical line of an opening of the collection container.

A liquid transport method is disclosed for efficiently producing cell cultures. The liquid transport method of the present disclosure, which is in processing of cells, includes: a) a step in which a container holding a liquid is gripped by a gripping tool of a robot; and b) a step in which the liquid in the container is transported to a collection container by rotating the gripped container. In steps a) and b) the robot operates such as not to pass over a vertical line of an opening of the collection container.

A liquid transport method is disclosed for efficiently producing cell cultures. The liquid transport method of the present disclosure, which is in processing of cells, includes: a) a step in which a container holding a liquid is gripped by a gripping tool of a robot; and b) a step in which the liquid in the container is transported to a collection container by rotating the gripped container. In steps a) and b) the robot operates such as not to pass over a vertical line of an opening of the collection container.

A liquid transport method is disclosed for efficiently producing cell cultures. The liquid transport method of the present disclosure, which is in processing of cells, includes: a) a step in which a container holding a liquid is gripped by a gripping tool of a robot; and b) a step in which the liquid in the container is transported to a collection container by rotating the gripped container. In steps a) and b) the robot operates such as not to pass over a vertical line of an opening of the collection container.

A bioreactor for culturing of microorganisms or cells comprising: a casing defining an interior space of the bioreactor, wherein said interior space is configured to receive and hold a culture medium with microbial or cellular liquid cultures; and at least one coupling element provided on the casing for coupling with a foam mitigation device for mitigation of foam built-up in the interior space of the bioreactor during use of the bioreactor for culturing of microorganisms or cells; wherein the coupling element is configured to allow ultrasonic waves generated by the foam mitigation device act upon foam built-up in the interior space of the bioreactor.

Described are embodiments for expanding cells in a bioreactor. In embodiments, methods and systems are provided that distribute cells throughout the bioreactor and attach cells to specific portions of a bioreactor to improve the expansion of the cells in the bioreactor. Embodiments may be implemented on a cell expansion system configured to load, distribute, attach and expand cells.