Abstract: A laboratory instrument for fixing an object carrier, the instrument including a main component for receiving an object carrier, a positioning fixture for application to a first edge region of the object carrier, a second positioning fixture for application to a second edge region of the object carrier, a fixing mechanism for fixing the object carrier on the main component between the first positioning fixture and the second positioning fixture by moving at least the first positioning fixture, and an actuating device for actuating the fixing mechanism for transposing at least the first positioning fixture between an operational state and an operational state which releases the object carrier, wherein the fixing mechanism includes at least one guide body which can be guided in at least one guide recess.

Abstract: A laboratory instrument for mixing a medium in an object carrier, wherein the laboratory instrument includes a support body, a main component for receiving the object carrier which is disposed on the support body and is movable with respect to the support body for mixing, and a mixing drive mechanism disposed on the support body, with a drive device, a first eccentric and a second eccentric, which can be driven by means of the drive device and which are configured in order to transmit a driving force produced by the drive device to the main component in order to mix the medium in the object carrier, wherein the first eccentric and the second eccentric are disposed on a peripheral edge of the support body and outside a central region of the support body.

Abstract: The invention provides a method for continuous virus inactivation. The product stream is segmented by introducing a separating medium which is immiscible with the product stream and the segmented product stream is transported into a reactor 1 as detention segment under virus-inactivating conditions for the required detention time.

Abstract: The invention provides a method for continuous virus inactivation. The product stream is segmented by introducing a separating medium which is immiscible with the product stream and the segmented product stream is transported into a reactor 1 as detention segment under virus-inactivating conditions for the required detention time.

Abstract: A sample processing arrangement for processing a fluidic sample, the sample processing arrangement including a sample holder for accommodating the fluidic sample, an apparatus having a rotor mechanism and being configured for selectively operating the sample holder in an orbital motion mode for sample mixing, particularly for shaking, or in a rotary motion mode for sample separation, particularly for centrifuging, a mounting platform having a central portion on which the apparatus and the sample holder are mounted and having a surrounding portion circumferentially surrounding the central portion, and a plurality of module accommodation positions circumferentially distributed in the surrounding portion to surround the rotor mechanism and the sample holder, wherein each of the module accommodation positions is configured for detachably accommodating a selectable one of a plurality of sample processing modules, each being configured for fulfilling an assigned sample processing task, by accommodating the respecti

Abstract: A mechanism for generating an orbital motion for mixing a fluidic sample. The mechanism may comprise a first and second cogwheel each having a through hole and a plurality of cogs. A drive shaft having a concentric first section and an eccentric second section is guided through a respective through hole of the first and second cogwheel. A coupling body engages part of the cogs to thereby generate the orbital motion of the second cogwheel and a sample holder to be mounted so as to follow a motion of the second cogwheel upon rotating the first section of the drive shaft.

Abstract: A sample processing arrangement for processing a fluidic sample, the sample processing arrangement including a sample holder for accommodating the fluidic sample, an apparatus having a rotor mechanism and being configured for selectively operating the sample holder in an orbital motion mode for sample mixing, particularly for shaking, or in a rotary motion mode for sample separation, particularly for centrifuging, a mounting platform having a central portion on which the apparatus and the sample holder are mounted and having a surrounding portion circumferentially surrounding the central portion, and a plurality of module accommodation positions circumferentially distributed in the surrounding portion to surround the rotor mechanism and the sample holder, wherein each of the module accommodation positions is configured for detachably accommodating a selectable one of a plurality of sample processing modules, each being configured for fulfilling an assigned sample processing task, by accommodating the respecti

Abstract: A mechanism for switching a sample holder (14, 40) accommodating a fluidic sample (38) between an orbital motion mode for sample mixing, particularly for shaking, and a rotary motion mode for sample separation, particularly for centrifuging, wherein the mechanism comprises a gear element (11) being drivable by a drive unit (42) to move selectively in a first direction (A) or in a second direction (B) being inverse to the first direction (A), an orbital motion generator (2 to 5) configured for generating an orbital motion of the sample holder (14, 40) when being operated in the orbital motion mode, a rotary motion generator (2, 4, 5) configured for generating a rotary motion of the sample holder (14, 40) when being operated in the rotary motion mode, and a one-way clutch arrangement (12, 13) configured for selectively coupling the gear element (11) with the orbital motion generator (2 to 5) to transfer a driving force from the gear element (11) to the orbital motion generator (2 to 5) for generating the orbita

Abstract: The invention relates to an apparatus (100) for positioning a sample carrier plate, wherein the apparatus (100) comprises a main body (102) for receiving the sample carrier plate, positioning stops (106, 108) which are disposed in opposing first corner regions of the main body and are prestressed for clamping the sample carrier plate and mounted displaceably, an actuating device (114) which is disposed in a second corner region of the main body and is equipped such that by actuating the actuating device (114) the positioning stops (106, 108) can be transferred between an operating state engaging the sample carrier plate and an operating state releasing the sample carrier plate, and comprises a force transmitting element (118) which is equipped to transmit an actuating force from the actuating device to the positioning stops.

Abstract: The invention relates to an apparatus for positioning a sample carrier plate, wherein the apparatus comprises a main body for receiving the sample carrier plate, positioning stops which are disposed in opposing first corner regions of the main body and are prestressed for clamping the sample carrier plate and mounted displaceably, an actuating device which is disposed at the main body and is equipped such that by actuating the actuating device the positioning stops can be transferred between an operating state engaging the sample carrier plate and an operating state releasing the sample carrier plate, and comprises a force transmitting element which is equipped to transmit an actuating force from the actuating device to the positioning stops.

Abstract: An apparatus for positioning a functional device, wherein the apparatus has a main body, a carrier element that can be disposed on the main body to receive the functional device, positioning stops, which are mounted displaceably to clamp the functional device, an actuating device which is adapted such that, by actuating the actuating device, the positioning stops can be transferred between an operating state engaging the functional device and an operating state releasing the functional device, and a force transmitting element which is adapted to transmit an actuating force from the actuating device to the positioning stops, wherein the actuating device and the force transmitting element are coupled in such a manner that, in the operating state engaging the functional device, the force transmitting element transmits a functional device force of the functional device to the actuating device in such a manner that the actuating device remains in a rest position with respect to the carrier element, in spite of the

Abstract: A mechanism for generating an orbital motion for mixing, particularly for shaking, a fluidic sample (38) accommodated by a sample holder (14, 40), wherein the mechanism comprises a stationary mounted or lockable first cogwheel (2) having a first through hole (30) and a plurality of first cogs (80) arranged along an outer circumference of the first cogwheel (2), a movably mounted second cogwheel (4) having a second through hole (32) and a plurality of second cogs (82) arranged along an outer circumference of the second cogwheel (4), a drive shaft (3) having a concentric first section (34) and an eccentric second section (36), wherein the first section (34) is guided through the first through hole (30) and the second section (36) is guided through the second through hole (32), and a coupling body (5) having a plurality of third cogs (84) arranged along an inner circumference of the coupling body (5), wherein the coupling body (5) is mounted with the first cogwheel (2) and with the second cogwheel (4) to engage

Abstract: A mechanism for switching a sample holder (14, 40) accommodating a fluidic sample (38) between an orbital motion mode for sample mixing, particularly for shaking, and a rotary motion mode for sample separation, particularly for centrifuging, wherein the mechanism comprises a gear element (11) being drivable by a drive unit (42) to move selectively in a first direction (A) or in a second direction (B) being inverse to the first direction (A), an orbital motion generator (2 to 5) configured for generating an orbital motion of the sample holder (14, 40) when being operated in the orbital motion mode, a rotary motion generator (2, 4, 5) configured for generating a rotary motion of the sample holder (14, 40) when being operated in the rotary motion mode, and a one-way clutch arrangement (12, 13) configured for selectively coupling the gear element (11) with the orbital motion generator (2 to 5) to transfer a driving force from the gear element (11) to the orbital motion generator (2 to 5) for generating the orbita

Abstract: The invention relates to an apparatus for positioning a sample carrier plate, wherein the apparatus comprises a main body for receiving the sample carrier plate, positioning stops which are disposed in opposing first corner regions of the main body and are prestressed for clamping the sample carrier plate and mounted displaceably, an actuating device which is disposed at the main body and is equipped such that by actuating the actuating device the positioning stops can be transferred between an operating state engaging the sample carrier plate and an operating state releasing the sample carrier plate, and comprises a force transmitting element which is equipped to transmit an actuating force from the actuating device to the positioning stops.

Abstract: An apparatus for positioning a functional device, wherein the apparatus has a main body, a carrier element that can be disposed on the main body to receive the functional device, positioning stops, which are mounted displaceably to clamp the functional device, an actuating device which is adapted such that, by actuating the actuating device, the positioning stops can be transferred between an operating state engaging the functional device and an operating state releasing the functional device, and a force transmitting element which is adapted to transmit an actuating force from the actuating device to the positioning stops, wherein the actuating device and the force transmitting element are coupled in such a manner that, in the operating state engaging the functional device, the force transmitting element transmits a functional device force of the functional device to the actuating device in such a manner that the actuating device remains in a rest position with respect to the carrier element, in spite of the

Abstract: A sample handling device (100) for handling a sample, the sample handling device (100) comprising a drive shaft (101) being drivable by a drive unit (102), a base plate (103) mounted to follow a motion of the drive shaft (101) when being driven by the drive unit (102), wherein the base plate (103) is configured to receive a sample carrier block (104) mountable to follow a motion of the base plate (103), and a compensation weight (105, 106) mounted asymmetrically on the drive shaft (101) in a manner to at least partially compensate an unbalanced mass of the sample handling device (100) during the motion.

Abstract: The invention relates to an apparatus (100) for positioning a sample carrier plate, wherein the apparatus (100) comprises a main body (102) for receiving the sample carrier plate, positioning stops (106, 108) which are disposed in opposing first corner regions of the main body and are prestressed for clamping the sample carrier plate and mounted displaceably, an actuating device (114) which is disposed in a second corner region of the main body and is equipped such that by actuating the actuating device (114) the positioning stops (106, 108) can be transferred between an operating state engaging the sample carrier plate and an operating state releasing the sample carrier plate, and comprises a force transmitting element (118) which is equipped to transmit an actuating force from the actuating device to the positioning stops.

Abstract: A sample handling device (100) for handling a sample, the sample handling device (100) comprising a drive shaft (101) being drivable by a drive unit (102), a base plate (103) mounted to follow a motion of the drive shaft (101) when being driven by the drive unit (102), wherein the base plate (103) is configured to receive a sample carrier block (104) mountable to follow a motion of the base plate (103), and a compensation weight (105, 106) mounted asymmetrically on the drive shaft (101) in a manner to at least partially compensate an unbalanced mass of the sample handling device (100) during the motion.