Abstract: A code scanner is provided for capturing visual codes at the bottom of a plurality of test tubes in a tube rack. The scanner comprises a base and a tube rack support mounted to the base for supporting a tube rack. At least one camera is focused on an object plane at the bottom of the tubes. A transparent cover glass is arranged between the camera and the object plane. The tube rack support has a viewing opening and, at several locations around the viewing opening, support members for laterally supporting the tube rack. The cover glass is located at a distance from and below the support members. Thus, it is less likely to acquire dirt and any dirt thereon will be out of the object plane of the imaging optics.

Abstract: The storage device is adapted to store a plurality of objects, such as sample tube holders, at several low temperatures, e.g., at ?80° C. and at ?110° C. The storage device includes a storage chamber with a plurality of storage cassettes arranged in its bottom section. A cassette lift in its top section can be used to lift individual storage cassettes up and to move them to an access opening, where the contents of the storage cassette can be accessed. The bottom section is divided into several, concentric storage zones, with the innermost, first storage zone being colder than the outer, second storage zone. A first insulating wall separates the two storage zones. This design reduces the thermal losses of the storage device. A refrigerant circuit with a non-inflammable cryo-liquid is provided for carrying off heat from the first storage zone.

Abstract: A storage device includes a plurality of storage locations on a carousel, as well as a tube picker adapted to access tubes in a tube rack located in a one of several nests by a tube gripper. The tube picker is arranged at the top of the carousel. The nests are rotatable with the carousel while the tube gripper is stationary. The same tube rack handler is provided for moving tube racks between the storage locations, the nests, and an external system.

Abstract: An incubator for sample containers comprises a climate-controlled chamber with several storage racks located therein. Shaker units are provided for shaking the storage racks, each of them carrying several storage racks. A robot unit accesses the storage locations in the storage racks as well as an automated access door at the back of the chamber. A user door is located at the front of chamber. The shaker units and the storage racks are arranged on opposite sides of a vertical plane extending perpendicularly to the doors.

Abstract: A code scanner is provided for capturing visual codes at the bottom of a plurality of test tubes in a tube rack. The scanner comprises a base and a tube rack support mounted to the base for supporting a tube rack. At least one camera is focused on an object plane at the bottom of the tubes. A transparent cover glass is arranged between the camera and the object plane. The tube rack support has a viewing opening and, at several locations around the viewing opening, support members for laterally supporting the tube rack. The cover glass is located at a distance from and below the support members. Thus, it is less likely to acquire dirt and any dirt thereon will be out of the object plane of the imaging optics.

Abstract: A device for the handling and the low-temperature storage of probe tubes in tube racks includes a low-temperature compartment having insulated side and bottom walls and at least one opening at a top side. The compartment is used for storing at least one tube rack at a low temperature. The device has a holder apparatus comprising a rack holder for holding a tube rack and a picker apparatus comprising a gripper adapted to remove and insert individual tubes from or into a tube rack held by the holder. The holder apparatus is adapted to displace the rack holder between an upper rack position outside low-temperature compartment above the opening and a lower rack position inside the compartment. The picker apparatus is adapted to displace the gripper between an upper gripper position outside the compartment above the opening and a lower gripper position inside the compartment below the opening.

Abstract: A storage plant for storing objects at the temperature of liquid nitrogen comprises a plurality of storage tanks arranged in a cooled chamber. A nitrogen withdrawal apparatus is provided to carry off evaporated nitrogen directly from the storage tanks before it can enter the chamber. The pressure in the storage tanks is kept below the pressure in the chamber.

Abstract: The storage device is adapted to store a plurality of objects, such as sample tube holders, at several low temperatures, e.g., at ?80° C. and at ?110° C. The storage device includes a storage chamber with a plurality of storage cassettes arranged in its bottom section. A cassette lift in its top section can be used to lift individual storage cassettes up and to move them to an access opening, where the contents of the storage cassette can be accessed. The bottom section is divided into several, concentric storage zones, with the innermost, first storage zone being colder than the outer, second storage zone. A first insulating wall separates the two storage zones. This design reduces the thermal losses of the storage device. A refrigerant circuit with a non-inflammable cryo-liquid is provided for carrying off heat from the first storage zone.

Abstract: An automated low-temperature storage for storing laboratory samples includes a storage zone for storing the samples that is maintainable at a first temperature below ?20° C.; a handling zone located above the storage zone that is maintainable at a second temperature above the first temperature and below 0° C.; a chamber laterally adjacent to the storage zone and the handling zone for storing the samples at a third temperature that is higher than the first temperature and below 0° C.; and a vertical wall separating the chamber from the handling zone and storage zone. A first opening arranged in said vertical wall connects the handling zone and the chamber; and an automated transport device is arranged at least partially in the handling zone and is configured to move the samples between the storage zone, the handling zone, and the chamber.

Abstract: The blood bank comprises a cooled storage area with a plurality of stationary storage racks. Further, it comprises a buffer storage, which holds a number of movable storage racks. A robot is provided for moving blood products between the stationary storage racks and the movable storage racks. A product access door is arranged close to the buffer storage for manual access to the blood products within the movable storage racks.

Abstract: A storage plant for storing objects at the temperature of liquid nitrogen comprises a plurality of storage tanks arranged in a cooled chamber. A nitrogen withdrawal apparatus is provided to carry off evaporated nitrogen directly from the storage tanks before it can enter the chamber. The pressure in the storage tanks is kept below the pressure in the chamber.

Abstract: The blood bank comprises a cooled storage area with a plurality of stationary storage racks. Further, it comprises a buffer storage, which holds a number of movable storage racks. A robot is provided for moving blood products between the stationary storage racks and the movable storage racks. A product access door is arranged close to the buffer storage for manual access to the blood products within the movable storage racks.

Abstract: The storage device is adapted to store a plurality of objects, such as sample tube holders, at low temperatures, e.g. at ?80° C. It comprises a storage chamber with a plurality of storage cassettes arranged in its bottom section. A cassette lift in its top section can be used to lift individual storage cassettes up and to move them to an access opening, where the contents of the storage cassette can be accessed.

Abstract: A device for the handling and the low-temperature storage of probe tubes in tube racks comprises a low-temperature compartment (1) having insulated side and bottom walls (2, 3) and at least one opening (6) at a top side. The compartment (1) is used for storing at least one tube rack at a low temperature. The device has a holder apparatus (8) comprising a rack holder (9) for holding a tube rack and a picker apparatus (25) comprising a gripper (26) adapted to remove and insert individual tubes from or into a tube rack held by said holder. The holder apparatus (8) is adapted to displace the rack holder (9) between an upper rack position outside low-temperature compartment (1) above the opening (6) and a lower rack position inside the compartment (1). Similarly, the picker apparatus (25) is adapted to displace the gripper (26) between an upper gripper position outside the compartment (1) above the opening (6) and a lower gripper position inside the compartment (1) below the opening (6).

Abstract: An automated low-temperature storage for storing laboratory samples includes a storage zone for storing the samples that is maintainable at a first temperature below ?20° C.; a handling zone located above the storage zone that is maintainable at a second temperature above the first temperature and below 0° C.; a chamber laterally adjacent to the storage zone and the handling zone for storing the samples at a third temperature that is higher than the first temperature and below 0° C.; and a vertical wall separating the chamber from the handling zone and storage zone. A first opening arranged in said vertical wall connects the handling zone and the chamber; and an automated transport device is arranged at least partially in the handling zone and is configured to move the samples between the storage zone, the handling zone, and the chamber.

Abstract: The storage comprises, from the bottom to the top, a low temperature storage zone, for storing the samples, a handling zone, housing at least part of an automatic transport device, and an access zone, where the user can enter for maintenance. A separating wall consisting of removable panels insulates the access zone, for the rooms below it. A peripheral housing, contains a peripheral chamber for temporarily storing the samples at slightly higher temperatures. A liquid nitrogen container, is used to feed dry gas to the storage zone and to maintain it under slight overpressure for preventing the entry of moisture.

Abstract: A storage arrangement (1) has a chamber (3). Several Dewar flasks (5) are arranged in the chamber (3) and above them a picking device (8). The picking device has at least one cassette lift (60), with which storage cassettes (20) can be removed from above from the Dewar flasks (5). This arrangement is suitable for storing laboratory objects even at very low temperatures. Each storage cassette (20) is preferably made from a single piece of sheet metal. The piece of sheet metal is bent such that it forms the side walls (30), the back wall (32), the top part (34) and the base part (38) of the storage cassette (20), as well as angles (40, 42) to accommodate the laboratory objects.

Abstract: The storage device comprises a storage chamber for storing objects at e.g. ?80° C., a transfer chamber for intermediate object storage at e.g. ?20° C. and a transport device arranged between them. The transport device comprises a pivotal and vertically displaceable carriage and is arranged in a rotatable lock chamber.

Abstract: A rotating holder to invert Petri dishes by 180° and to loosen the bottom from the cover, which has two positions to accommodate Petri dishes. By inverting the rotating holder around a rotation axis, the Petri dishes are reversed and inverted in the two positions. Thus the bottom of the upper Petri dish will be lowered and be engaged by a gripper.

Abstract: The storage device comprises a storage chamber for storing objects at e.g. ?80° C., a transfer chamber for intermediate object storage at e.g. ?20° C. and a transport device arranged between them. The transport device comprises a pivotal and vertically displaceable carriage and is arranged in a rotatable lock chamber.