Abstract: A method of manufacturing a flexible container housing a drug substance is disclosed that includes forming a first compartment from a flexible sheet-like material, filling a liquid into the first compartment, sealing the first compartment, forming a second compartment from the flexible sheet-like material, filling a dry drug formulation into the second compartment, and sealing the second compartment. The method further involves lyophilizing the drug formulation inside a tubular cartridge, filling the second compartment by introducing the tubular cartridge through an opening of the second compartment such that an open end of the tubular cartridge is positioned distant from the opening of the second compartment, providing the drug formulation from the open end of the tubular cartridge into the second compartment, and withdrawing the tubular cartridge from the second compartment. The first and second compartments are separated by a frangible seal which opens when the first compartment is compressed.

Abstract: A microplate system (1) comprising a microplate (2) and a plurality of containments (3). The microplate (2) has a length in a range between about 127 mm and about 129 mm and a width in a range between about 84 mm and about 86 mm. The microplate (2) has 384 or 1536 receptacles (21). Each receptacle (21) of the microplate (2) extends through the microplate (2) such that it has a first open end and a second open end. Each receptacle (21) of the microplate (2) forms a seat to hold one of the plurality of containments (3). Each of the plurality of containments (3) comprises a cap (32) and a tube (31) shaped to be held in the seat of one of the receptacles (21) of the microplate (2).

Abstract: A lyophilisate retainer for lyophilizing a substrate is disclosed that includes a three dimensional scaffold body having pores. The pores of the scaffold body are configured to receive and hold the substrate. The scaffold body is made of a scaffold material providing heat transfer properties in lyophilisation to induce heat transfer to the substrate held in the pores of the scaffold body.

Abstract: A fluid analysis arrangement (1) comprises a particle quantifying device (4), a holder (6), a robot (3), a washing station (5) and a control unit (2). The particle quantifying device (4) has a sensor unit (42) with a sensing stick (421) to be arranged in a fluid to sense for particles in the fluid, and an evaluation unit (41). The holder (6) has a plurality of seats each configured to receive a container in which a sample fluid is arranged. The control unit (2) is connected to the particle quantifying device (4) and the robot (3). The sensor unit (42) is mounted to the robot (3).

Abstract: A cell separation apparatus a container for reception of a cell suspension and a conduit connected to the container for the conveyance of cell suspension out of the container. The conduit extends along a notional conduit path passing centrally through the conduit, the conduit path defining in the conduit an axial direction proceeding along the conduit path, a radial direction orthogonal to the conduit path, and a circumferential direction proceeding around the conduit path. A segment of the conduit constitutes a turbulent flow segment including a flow configuration. The flow configuration includes at least two axial configuration segments located axially behind one another to accelerate a cell suspension.

Abstract: A lyophilisate container (39) comprising a compartment; a wall (3119, 3129) limiting the compartment; and a lyophilisate arranged inside the compartment. At least a portion of the wall (3119, 3129) is semipermeable allowing vapour permeation in one direction out of the compartment through the wall (3119, 3129) and preventing vapour permeation in an opposite direction into the compartment through the wall (3119, 3129).

Abstract: A method of manufacturing a flexible container (1) housing a drug substance, comprises: forming a first compartment (11) of the container (1) out of a flexible sheet-like material, filling a liquid (2) into the first compartment (11) of the container (1), sealing the first compartment (11), forming a second compartment (12) of the container (1) out of the flexible sheet-like material, filling a dry drug formulation (3) into the second compartment (12), and sealing the second compartment (12).

Abstract: In a method of analyzing solid form properties of a substance, which including the step of solidifying the substance, the solidified substance is obtained in one of a plurality of wells of a multi-well plate. In the multi-well plate the at least one of the plurality of wells has a bottom made of a thermoplastic polyimide. The method further includes analyzing the solidified substance in the well of the multi-well plate by X-ray diffraction. Thereby, the analysis includes providing X-ray through the solidified substance and a bottom of the well and evaluating the X-ray which passed the solidified substance and the bottom of the well. Such method and multi-well plate provide a durable and cost efficient system allowing a high quality analysis of solid form properties of the substance and an efficient and safe processing of the substance.

Abstract: A fluid supply interface includes a line component having a first coupling formation for the temporary coupling of a first fluid channel, a second coupling formation for the temporary coupling of a second fluid channel, and a third coupling formation for the temporary or permanent coupling of a third fluid channel, each of said coupling formations being penetrated by a fluid line section, wherein in the line component, a fluid line assembly is formed, by means of which each fluid line section of the first, second and third coupling formations is or can be connected to each fluid line section of the other two coupling formations for the purpose of fluid transport.

Abstract: A sample holder (1) for containing a substance in a solid form screening process comprises a body (2) with a sidewall portion (21), a bottom portion (22) and a hollow interior limited by the sidewall portion (21) and the bottom portion (22). The bottom portion (22) is made of a thermoplastic polyimide. The sample holder (1) allows for providing a high quality analysis of solid form properties of a substance and an efficient and safe processing of the substance.

Abstract: In a method of analyzing solid form properties of a substance, which including the step of solidifying the substance, the solidified substance is obtained in one of a plurality of wells of a multi-well plate. In the multi-well plate the at least one of the plurality of wells has a bottom made of a thermoplastic polyimide. The method further includes analyzing the solidified substance in the well of the multi-well plate by X-ray diffraction. Thereby, the analysis includes providing X-ray through the solidified substance and a bottom of the well and evaluating the X-ray which passed the solidified substance and the bottom of the well. Such method and multi-well plate provide a durable and cost efficient system allowing a high quality analysis of solid form properties of the substance and an efficient and safe processing of the substance.

Abstract: A cell separation apparatus a container for reception of a cell suspension and a conduit connected to the container for the conveyance of cell suspension out of the container. The conduit extends along a notional conduit path passing centrally through the conduit, the conduit path defining in the conduit an axial direction proceeding along the conduit path, a radial direction orthogonal to the conduit path, and a circumferential direction proceeding around the conduit path. A segment of the conduit constitutes a turbulent flow segment including a flow configuration. The flow configuration includes at least two axial configuration segments located axially behind one another to accelerate a cell suspension.

Abstract: A fluid supply interface includes a line component having a first coupling formation for the temporary coupling of a first fluid channel, a second coupling formation for the temporary coupling of a second fluid channel, and a third coupling formation for the temporary or permanent coupling of a third fluid channel, each of said coupling formations being penetrated by a fluid line section, wherein in the line component, a fluid line assembly is formed, by means of which each fluid line section of the first, second and third coupling formations is or can be connected to each fluid line section of the other two coupling formations for the purpose of fluid transport.

Abstract: An apparatus (2) for the automatic testing of substances for carcinogenicity comprises: a plate support (3) on which at least one micro-well plate (1) can be placed; a movable pipetting unit (4) comprising a predetermined number of pipettes (40); a number of containers (5) containing a liquid culture medium (50), the number of containers (5) corresponding to the number of pipettes (40) of the pipetting unit (4); a dish support (6) on which a corresponding number of dishes (60) can be placed, each having a bottom and an upstanding side wall (601); a plurality of spinners (63) for spinning the dishes (60); a plurality of suction cups (62) for placing a lid (600) on each of the dishes; and a plurality of laterally arranged belts (64,65) for transporting the closed dishes (60) to an intermediate storage (8).

Abstract: Sample handling system for handling samples contained in tubes (4), each tube (4) having a hollow body, a closed bottom and an open top for accessing the sample contained in the tube (4). The system comprises a micro-plate (1) comprising at least one grid insert (2) having a plurality of compartments. Each compartment comprises one or more side walls laterally confining a through-hole for receiving a said tube (4). The through-hole has a top opening and a bottom opening and extends between the top opening and the bottom opening. A frame (3) to which the at least one separate grid insert (2) is to be attached to form the micro-plate (1). The frame (3) laterally confines a through-opening which is dimensioned to allow for accessing each compartment (21) of the attached at least one grid insert (2) from above and from below. This allows for moving such tube (4) into and out of each compartment (21) through each of the top opening (202) and the bottom opening (203) of the through-hole (201).

Abstract: A hanging droplet plate (1) comprises a predetermined number of droplet compartments (10) each being capable of receiving a droplet of a liquid. The respective droplet compartment (10) comprises a circumferential microfluidic wetting barrier (102) which is arranged to surround a respective cavity (100) and which prevents a droplet from spreading beyond the microfluidic wetting barrier (102). The respective compartment (10) comprises a closed bottom (101) and at least one additional circumferential microfluidic wetting barrier (104), each additional circumferential microfluidic wetting barrier (104) which is arranged to surround a preceding circumferential microfluidic wetting barrier (102). A wettable area (103) is arranged between two adjacently arranged microfluidic wetting barriers (102, 104).

Abstract: A robotic microplate storage system includes a freezer room having freezing units and a first robot for moving and removing microplates into and out of the freezing unit. The first robot can also transfer microplates to a processing station, where the microplates are stored in a microplate recipient within the freezing unit. The storage system may also include at least one processing room which is thermally separated from the freezer room. Each processing room may include a processing station having a tube transfer module and a second robot for moving the microplates between the microplate recipients and the tube transfer module. The first robot may be designed such that it is only capable of removing a microplate recipient from and moving it into a freezing unit as well as transferring it from a freezing unit to a processing station or vice versa.

Abstract: Sample handling system for handling samples contained in tubes (4), each tube (4) having a hollow body, a closed bottom and an open top for accessing the sample contained in the tube (4). The system comprises a micro-plate (1) comprising at least one grid insert (2) having a plurality of compartments. Each compartment comprises one or more side walls laterally confining a through-hole for receiving a said tube (4). The through-hole has a top opening and a bottom opening and extends between the top opening and the bottom opening. A frame (3) to which the at least one separate grid insert (2) is to be attached to form the micro-plate (1). The frame (3) laterally confines a through-opening which is dimensioned to allow for accessing each compartment (21) of the attached at least one grid insert (2) from above and from below. This allows for moving such tube (4) into and out of each compartment (21) through each of the top opening (202) and the bottom opening (203) of the through-hole (201).

Abstract: A hanging droplet plate (1) comprises a predetermined number of droplet compartments (10) each being capable of receiving a droplet of a liquid. The respective droplet compartment (10) comprises a circumferential microfluidic wetting barrier (102) which is arranged to surround a respective cavity (100) and which prevents a droplet from spreading beyond the microfluidic wetting barrier (102). The respective compartment (10) comprises a closed bottom (101) and at least one additional circumferential microfluidic wetting barrier (104), each additional circumferential microfluidic wetting barrier (104) which is arranged to surround a preceding circumferential microfluidic wetting barrier (102). A wettable area (103) is arranged between two adjacently arranged microfluidic wetting barriers (102, 104).

Abstract: A stacker (1) for storing a plurality of microplates each having a top surface side and a bottom surface side opposed to the top surface side, comprises a housing and a removal gate (13) for removing a microplate of the plurality of microplates out of the housing. The stacker (1) is arranged to accommodate the plurality of microplates inside the housing such that the top surface side of one microplate of the plurality of microplates abuts on the bottom surface side of an adjacent microplate of the plurality of microplates and such that the housing adjoins to the plurality of microplates. Using such a stacker 1, the plurality of microplates can be arranged and stored in a compact manner wherein the single microplates of the plurality of microplates can still selectively and efficiently be accessed.