Abstract: A method for operating a cryostorage device (100), especially for biological samples, is described which comprises a sample carrier (10) to receive at least one sample (11) and a data storage (20), wherein data are inductively transmitted from the data storage device (20) into a wireless transmission channel (40) and/or conversely using a resonant circuit (30) connected to the data storage device (20).

Abstract: A manipulation tool is disclosed for producing cell material having multiple biological cells, which have a predefined geometrical arrangement. The tool includes a tool body, whose surface at least partially contacts the cell material, and a setting device for adjusting the tool body by a continuous expansion, so that geometrical properties of the surface change and an interior of the tool body is enlarged. The setting device is adapted to expand the tool body at an advance velocity in a range from 0.1 ?m/h to 1 mm/h.

Abstract: The invention relates to a method for conserving at least one biological deep-sea organism (1) comprising the steps of collecting the biological organism (1) in a deep-sea trapping device (110); cooling the biological organism (1) with a cooling device (120), wherein the biological organism (1) is put in a frozen condition; and moving the frozen biological organism (1), preferably with the trapping device (110), to a normal-pressure environment. The invention further relates to a conservation apparatus (100) for conserving at least one biological deep-sea organism (1).

Abstract: An adapter device includes a receptacle including at least one receiving element that detachably secures a sample chamber for cryoconservation of a biological sample, and a coupling device that connects the receptacle to a base section which can be secured in a cooling device, wherein the receiving element is 1) immobile in a holding state at a cryoconservation temperature and secures the sample chamber and 2) at least one of deformable and movable in a release state at a temperature above the cryoconservation temperature so that the sample chamber is detachable from the adapter device or can be inserted into the adapter device.

Abstract: A method for operating a cryostorage device (100), especially for biological samples, is described which comprises a sample carrier (10) to receive at least one sample (11) and a data storage (20), wherein data are inductively transmitted from the data storage device (20) into a wireless transmission channel (40) and/or conversely using a resonant circuit (30) connected to the data storage device (20).

Abstract: The invention relates to a cryogenic storage device and to a method for operating a cryogenic storage device, particularly for cryogenic storage of biological samples, comprising a sample carrying device that is set up to accommodate samples, a cryogenic container that is set up to accommodate the sample carrying device, a container cooling device with which the cryogenic container can be cooled, an intermediate storage container that is set up for intermediate storage of the sample carrying device, a transport device with which the sample carrying device can be moved between the cryogenic container and the intermediate storage container and a sensor device with which at least one operating parameter of the cryogenic storage device can be registered.

Abstract: The invention relates to an aquarium with a pressure-tight aquarium tank (7-12), which during operation is filled with a liquid, and with a pressure-resistant rising pipe (1), which opens out into the aquarium tank (7-12) and is intended for producing an increased hydrostatic pressure in the aquarium tank (7-12) by a liquid column located in the rising pipe (1).

Abstract: A method for operating a cryostorage device (100), especially for biological samples, is described which comprises a sample carrier (10) to receive at least one sample (11) and a data storage (20), wherein data are inductively transmitted from the data storage device (20) into a wireless transmission channel (40) and/or conversely using a resonant circuit (30) connected to the data storage device (20).

Abstract: A method for receiving biological cells (1, 2) from a cell culture (3) includes the steps: cultivation of the cell culture on a main substrate (10), cell transfer from the main substrate (10) onto at least one receiving substrate (20, 20.1, 20.2, 20.3, 20.4 . . . ), wherein the cells (1, 2) move onto the at least one receiving substrate (20, 20.1, 20.2, 20.3, 20.4 . . . ) by natural cell locomotion, and a cultivation of the cells (1, 2) is provided on the at least one receiving substrate (20, 20.1, 20.2, 20.3, . . . ), and separation of the main substrate (10) and of the at least one receiving substrate (20, 20.1, 20.2, 20.3, 20.4 . . . ) from one another. Also described is a substrate arrangement (100) for providing biological cells (1, 2) of a cell culture (3).

Abstract: A manipulation tool is disclosed for producing cell material having multiple biological cells, which have a predefined geometrical arrangement. The tool includes a tool body, whose surface at least partially contacts the cell material, and a setting device for adjusting the tool body by a continuous expansion, so that geometrical properties of the surface change and an interior of the tool body is enlarged. The setting device is adapted to expand the tool body at an advance velocity in a range from 0.1 ?m/h to 1 mm/h.

Abstract: Disclosed is a deposition apparatus (100) which is designed to deposit frozen biological material (1) in a target substrate (2) and includes a charging device (10) and a driving device (20). The charging device (10) is designed to supply the biological material (1) to the driving device (20) while the driving device (20) is designed to apply a driving force to the biological material (1). In order to apply the driving force, the driving device (20) is formed such that the biological material (1) can penetrate into the target substrate (2) under the effect of the driving force. Also disclosed are an injector cartridge which is designed to provide frozen biological material in a deposition apparatus as well as a method for depositing biological material (1) in a target substrate (2).

Abstract: Substrates (100) are described for receiving a plurality of samples, especially for the preservation of biological samples at cryotemperatures comprising a plurality of substrate plates (11, 12, 13) arranged on top of one another as a stack (10) and comprising an anchoring axis (20) to which the substrate plates (11, 12, 13) are connected. Processes for the preservation of biological samples at cryotemperatures are also described.

Abstract: A sample support (100, 101, 102, . . . ), in particular for cryopreservation of biological samples, is described and includes: a holder part (10) with a sample receiving chamber (11), a retaining device (12, 13) on which a sample can be disposed, and support connecting elements (14, 15) which are directed at opposite holder part ends (16, 17) and are formed to fit together so that a plurality of holder parts (16) can be put together. A sample store (200), which includes an assemblage of a large number of such sample supports, and a method for the cryopreservation of biological samples, are also described.

Abstract: A targeted cultivation phase adjustment is provided in a process for the cultivation of cells in which biological cells are cultivated on at least one boundary surface between different, non-solid cultivation phases so that pre-determined cultivation conditions are given. A cultivation apparatus (100) for biological cells is also provided that includes a culture container (10) with different, non-solid cultivation phases (20) between which at least one boundary surface is formed.

Abstract: A cryopreservation storage device (100), in particular for cryopreservation of biological samples, comprises a plurality of multi sample modules (20) being adapted for accommodating the biological samples and sample memories, a module control device (30) controlling an access to sample memories accommodated by the multi sample modules (20), and a data interface (41) for accessing to the module control device (30), wherein the module control device (30) includes a data management processor (31), which can be controlled via the data interface (41). Furthermore, a cryopreservation apparatus including at least one cryopreservation storage device (100) and a method for cryopreservation of biological samples are described.

Abstract: A cell transfer method is described, in which transfer of at least one biological cell (21) describing a natural cell locomotion between a carrier (80) and a probe (10) is provided, and whereby positioning the probe (10) and the carrier (80) relative to one another in a transfer arrangement is provided, in which transfer of the cell (21) takes place due to the natural cell locomotion. Probes and cell manipulators for transferring biological cells are also described.