DE102024101358A1 - Laboratory module shelf made of stacked laboratory modules - Google Patents

Abstract

A laboratory module shelf (36) comprises at least two laboratory base modules (42) in a lower base module level (38) and at least two laboratory work modules (56) in an upper work module level (40) arranged above the base module level (38), wherein each laboratory work module (56) comprises a processing device (60) and a transport arrangement (99) with a first and a second transport device (68, 96) for transporting a laboratory object at least to the processing device (60), wherein the first transport device (68) has a first receiving device (72) and wherein the second transport device (96) has a second receiving device (102) for receiving the laboratory object for transporting the laboratory object, wherein the transport arrangement (99) has a transfer area (176) in which the transport arrangement (99) is designed to transfer a transported laboratory object between the first and second transport devices (68, 96), wherein the at least two Laboratory work modules (56) follow one another along the direction of travel of the first transport device (70), and wherein the at least two laboratory work modules (56) have a common first transport device (68) and each have their own second transport device (96) and each have a transfer area (176).

Description

The present invention relates to a laboratory module arrangement with several laboratory modules.

Of particular interest for the present invention in this context is a laboratory module which serves to carry out analytical and/or productive biological and/or chemical, in particular biochemical, and/or pharmaceutical processing operations.

Such a laboratory module preferably serves as a building block for forming the laboratory arrangement, which can be easily and quickly assembled from a plurality of laboratory modules according to the desired or required functions.

From the US 6739448 B1 A transport device for transporting sample carriers between different processing stations in an at least partially automated laboratory system is known. Examples of sample carriers are US 6739448 B1 Microtiter plates and boxes with pipette tips are mentioned. The laboratory system has several processing stations arranged at different positions, each with a station support surface to which the known transport device can deliver a transported sample carrier for processing by the processing station. The known transport device can be moved along a transport path between the processing stations.

The US 6739448 B1 A special feature of the transport device described therein is that it always engages a sample carrier only from its base. For transport through the transport device along the transport path, the sample carrier rests on a transport surface of the known transport device and, after reaching a target processing station, is transferred to the station carrier surface of this target processing station.

The transport surface has a C-shaped surface with a free or recessed inner area surrounded by the C-shaped transport surface. The surface of the station support surface is essentially complementary to the transport surface and is limited to the free inner area of the complementary C-shaped transport surface. The station support surface can only be raised and lowered along a path orthogonal to the parallel planes of extension of the transport surface and station support surface. The station support surface has no other degree of freedom of movement. By a lifting movement of the station support surface through the recessed inner area of the complementary C-shaped transport surface past the transport surface, the sample carrier initially resting on the transport surface can be lifted off the transport surface by means of the station support surface and thus picked up. By a lowering movement of the station support surface past the C-shaped transport surface, the sample carrier initially resting on the station support surface can be placed on the transport surface and thus transferred to it. If one considers the described transfer processes between the transport surface and the station support surface in a respective coordinate system that moves with the initially unloaded surface from the transport surface and the station support surface that receives the sample carrier, the sample carrier is stripped off the originally supporting surface at the receiving surface during each transfer.

The C-shaped transport surface can be arranged on a frame of the transport device so as to be rotatable about an axis of rotation orthogonal to its transport surface plane.

Projections on the C-shaped transport surface limit a surface area intended for the support of the sample carrier on the transport surface and prevent a displacement of a sample carrier held on the transport surface parallel to the transport surface.

From the EP 0 990 906 A1 An automatic laboratory analysis system with a transport device operating therein is known. EP 0 990 906 A1 The known transport device is housed in a dedicated device housing and serves to transport components from one device of the laboratory analysis system to another device of the laboratory analysis system, with each of the devices being housed in its own device housing. The device housing is connected to one of the device housings and is aligned relative to the other device housing.

The following are possible transported components: EP 0 990 906 A1 Sample tubes, liquid containers and disposable pipette tips.

The known transport device comprises a receiving plate on which a component carrier can be picked up simply by placing it on the receiving plate. The receiving plate is provided with a magnetic foil to hold the component carrier to the receiving plate in a frictional engagement with a magnetic force that exceeds its weight. The receiving plate is movable in three mutually orthogonal spatial directions and can thus approach stationary loading mouths of the devices that are open on one side toward the transport device. Each loading jaw is formed by a C-shaped frame, which features an insertion aid near its opening with a clear width that decreases toward the loading jaw. The component carriers are designed with a protruding shoulder at their upper end, which is used as intended, so that a component carrier threaded into the opening can be held in place by gravity by its protruding shoulder, resting positively on the frame of the loading jaw.

Thanks to the insertion aid at the opening of the stationary loading jaw, the component carrier, which is only standing on the receiving plate, can be moved in the plane of the receiving plate when threading it into the stationary loading jaw. Although the magnetic force generated by the magnetic foil increases the friction between the component carrier and the receiving plate, it does not prevent relative movement between the component carrier and the receiving plate. This allows the component carrier to be moved into the transfer position on the respective device, which is predetermined by the shape of the loading jaw, even if it is inaccurately positioned relative to the loading jaw on the receiving plate.

By lowering the mounting plate after threading the component carrier into a loading jaw, the component carrier can be released from the mounting plate by overcoming the magnetic force initially acting between the component carrier and the mounting plate. The component carrier then remains on the stationary loading jaw, where the device of the laboratory analysis system assigned to the loading jaw can access the components in the component carrier.

When picking up a component carrier from a loading mouth, the receiving plate moves from below against the base of the component carrier that is suspended in the frame of the loading mouth, lifts the component carrier so that its shoulder no longer touches the frame of the loading mouth, and moves the component carrier out of the loading mouth.

From the EP 3 450 985 A1 is a device for processing microtiter plates. The device draws microtiter plates horizontally into its body through a drawer. The drawer can be extended and retracted through a shaft in the front of the device in a horizontal direction orthogonal to the front of the device. The known device can be used, for example, as a patch clamp system for electrophysiology, as an absorption microplate reader, as a fluorescence microplate reader, as a luminescence microplate reader, as a cell imaging system, as a device for performing electroporation for transfection, as a device for level measurement in microtiter plates, and as a detection device (“reader”) for microarrays in microtiter plates.

In front of the drawer there is a lift which can only move vertically parallel to the front of the device. The lift is a microtiter plate storage device in which the microtiter plates to be processed by the device are stored vertically one above the other. The drawer has a C-shaped frame through whose free interior a carrier plate of the lift can be moved vertically. The C-shaped frame is dimensioned such that a microtiter plate can be placed on it. The carrier plate of the lift is smaller than the base area of a microtiter plate, so that a carrier plate loaded with a microtiter plate can move vertically downwards through the free interior of the C-shaped frame of the drawer and in doing so can wipe the microtiter plate it is carrying off the drawer.

In reverse motion, the carrier plate can lift a microtiter plate that is ready for transfer from the extended tray by moving vertically through the free interior space of the tray's C-shaped frame. The then empty tray can be retracted back into the device body, whereupon the lift can move the received microtiter plate vertically to a desired location.

The drawer can be movable within the device body in a further horizontal direction orthogonal to its horizontal extension and retraction movement as well as to the vertical direction of movement of the lift.

The one from the EP 3 450 985 A1 The known device for processing microtiter plates can be used in conjunction with a pipetting device, wherein a gripping device is then provided to move a microtiter plate from the lift into the working area of the pipetting device.

From the EP 0 856 736 A2 An automatic analysis device with one or more pipetting devices for performing clinical analyses of sample liquids is known. The automatic analysis device comprises a conveyor belt for conveying sample carriers to analysis stations. A loading and unloading device is provided at each analysis station, which transports a sample carrier from the conveyor belt to the analysis station. tion or vice versa. The analysis device also includes sample carrier storage as a transport buffer, in which sample carriers can be temporarily stored that have been selected for reanalysis despite having already been analyzed.

The known loading and unloading devices may include sliders that move a sample carrier from the conveyor belt to the analysis station or vice versa. A loading and unloading device is also provided on the sample carrier storage unit to move sample carriers from the conveyor belt to the sample carrier storage unit or from the sample carrier storage unit to the conveyor belt.

While sample carriers are moved horizontally along the conveyor belt, the sample carriers in the sample carrier storage are moved vertically to transfer a desired stored sample carrier from the sample carrier storage to the conveyor belt. The sample carriers are identified by barcode. At least one station of the analysis device is a barcode reader.

From the US 7954624 B2 or the EP 2 022 736 A1 A conveyor system for transporting and storing microtiter plates is known. The conveyor system is used to transport microtiter plates into and out of the work area of a dispensing device for dispensing liquids. The dispensing device has a dispensing head that can move in three orthogonal spatial directions, which can approach microtiter plates arranged in a work plane and dispense liquid into them.

The system comprises grid-like storage stations, each of which can accommodate a microtiter plate. Above the storage stations is an opening device that can be moved in three pairs of orthogonal spatial directions to approach a storage station, grasp a cover of a microtiter plate arranged thereon, and lift it off the microtiter plate.

A storage station is equipped with a material-free interior area through which a transport device can move vertically to lift a microtiter plate arranged on the storage station from it or place it on it. The storage station provides a support surface for depositing microtiter plates as a support surface divided into separate sub-support surfaces only in the corner areas of a microtiter plate, allowing the transport device to move between support surfaces arranged one behind the other in a row direction.

The US 7954624 B2 or the EP 2 022 736 A1 also disclose a column storage system comprising a plurality of storage columns arranged on a turntable, which are rotatable about a central lifting device. Microtiter plates are stacked vertically one above the other in a storage column and can be raised and lowered by the central lifting device. A pick-up device can take over the topmost microtiter plate of a storage column when the microtiter plate is at a predetermined transfer height. The storage column and pick-up device form a last-in, first-out storage system with respect to the respective storage column.

By rotating the turntable, a specific storage column from the plurality of storage columns arranged consecutively on the turntable in the circumferential direction around its rotation axis can be brought into cooperative engagement with the lifting device as the active storage column. The lifting device can then gradually raise the microtiter plates arranged one above the other in the active storage column so that the topmost microtiter plate is at the transfer height level and can be picked up by the pick-up device.

It is an object of the present invention to provide a laboratory module arrangement which enables the execution of a sequence of machining operations on a laboratory processing object in a simple and safe manner while efficiently utilising the installation space.

This object is achieved according to the present invention by a laboratory modular shelf with all the features of claim 1.

The laboratory module shelf comprises at least two laboratory base modules and at least two laboratory work modules, wherein the at least two laboratory base modules form a lower base module level of the laboratory module shelf, and wherein the at least two laboratory work modules form an upper work module level of the laboratory module shelf arranged above the base module level. A laboratory base module is located below at least one laboratory work module. This arrangement of laboratory modules above or below one another ensures efficient use of space, since laboratory modules are arranged not only next to one another in a surface, but also one above the other in a room. For the purpose of spatial functional separation within the laboratory module shelf, the work module level preferably contains only laboratory work modules. dule and the basic module level contains only laboratory basic modules.

Each laboratory work module comprises a processing device and a transport arrangement for transporting a laboratory object at least to the processing device. The transport arrangement has a first and a second transport device. The transport arrangement can supply the processing device with laboratory objects and with an object to be processed.

The first transport device has a first receiving device for receiving the laboratory object for transport of the laboratory object by the first transport device and the second transport device has a second receiving device for receiving the laboratory object for transport of the laboratory object by the second transport device.

The first receiving device is movable along a first transport path, and the second receiving device is movable along a second transport path that is different from the first transport path and runs transversely to the latter. The transport arrangement has a transfer area in which the transport arrangement is designed to transfer a transported laboratory object from a releasing transport device consisting of the first and second transport devices to the other, receiving transport device consisting of the first and second transport devices. Due to the different courses of the transport paths and the design of the transfer area, the transport arrangement can be configured so that it can reach any desired destination within a laboratory work module, despite the simple kinematics of the first and second transport devices. The destination is fixed upon construction of the transport arrangement, but the transport arrangement can be planned and constructed to achieve any predetermined destination.

The at least two laboratory work modules follow one another along the direction of travel of the first transport path, wherein the at least two laboratory work modules have a common first transport device and each have their own second transport device, as well as a transfer area. In this way, the first transport device can move laboratory objects between laboratory work modules, and the second transport device can move laboratory objects within a laboratory work module.

To perform laboratory tasks on a processing object, such as a metrological analysis of a processing object and/or a mixture of a pourable processing object of a defined composition and/or a separation of a defined quantity of a pourable processing object and the like, the laboratory work module preferably comprises a processing device different from the transport arrangement for carrying out the laboratory processing process. The processing object can be a solid or a liquid. In the present preferred use of the laboratory module shelf for analytical and/or productive biological and/or chemical, in particular biochemical, and/or pharmaceutical processing processes, the processing object is generally a liquid, with suspensions and emulsions also being considered liquids within the scope of the present application. Processing of the processing object in the processing device generally takes place in an individual laboratory object in or on which the processing object is accommodated, such as in or on an individual microtiter plate.

Another possible processing device is a reading device for identifying laboratory items based on identification codes carried by the items, such as barcodes, and/or for capturing data provided by the transported laboratory items, for example, via RFID (Radio Frequency Identification) or NFC (Near Field Communication) technology, to name just two possible examples. Furthermore, a laboratory work module can include an incubator or a cleaning device for cleaning laboratory items, particularly microtiter plates.

Laboratory items, on the other hand, are functional solids, such as containers, especially sample containers and microtiter plates, and pipette tips, that enable or support laboratory processing of the item being processed without themselves being structurally or quantitatively altered by the laboratory processing. If laboratory items are subject to metrological recording in the laboratory work module, then they are usually used as an unavoidable collateral measurement object alongside the item being processed as the actual measurement object and/or to compensate and correct the measurement result obtained on the item being processed.

Likewise, predominantly or even only the laboratory work modules have a processing The basic laboratory modules have a storage device, whereas the basic laboratory modules do not. A basic laboratory module can have at least one storage device for storing laboratory items for use in the laboratory work modules. A basic laboratory module can additionally have a preparation device that prepares a laboratory item for use in a laboratory work module. One possible preparation device is a cleaning device for cleaning laboratory items, in particular containers, especially microtiter plates, in preparation for their further use.

To facilitate the organization of the operation of the laboratory module rack, it is preferably provided that the first transport route and the second transport route run only within the work module level. Thus, the first transport route and the second transport route transport a laboratory object only within the work module level and thus preferably only between and/or within laboratory work modules.

For transporting a laboratory object between the module levels: work module level and base module level, at least one laboratory module of the laboratory module shelf can have a laboratory object lift, by means of which at least one laboratory object can be moved between a laboratory work module and a laboratory base module arranged below the laboratory work module.

The laboratory object lift can have a stack storage device that can be moved between the work module level and the base module level, in which stack storage devices, successive receiving structures for each receiving a laboratory object, are arranged along the direction of displacement of the stack storage device. In general, the laboratory object lift can be a storage device for storing laboratory objects. Since the laboratory object lift also transports the laboratory objects received therein, the laboratory object lift is also a conveying device. The laboratory object lift as a conveying device can be part of a laboratory work module or part of a laboratory base module, or both part of a laboratory work module and part of a laboratory base module, between which it transports a laboratory object.

As already mentioned above, the second transport device is preferably designed as a delivery transport device for transporting a laboratory object to the processing device of the respective laboratory work module. The first transport device is then preferably a feed transport device that cooperates with the delivery transport device for feeding laboratory objects to the second transport device.

To supply the processing device with more than just one laboratory object, the delivery and transport device, according to a preferred development of the present invention, can have a first and a second delivery and receiving device designed to receive laboratory objects for transport by the delivery and transport device. The two delivery and receiving devices are preferably movable together, particularly preferably only together, along the transport path of the delivery and transport device. To achieve a delivery and transport device that is as simply constructed as possible and yet rigid, the first and second delivery and receiving devices are preferably not movable relative to one another. So that both delivery and receiving devices can be moved as directly as possible into a work area of a processing device, they are preferably arranged one behind the other along the second transport path as a delivery and transport path, particularly preferably without any lateral offset from one another. A vertical offset between the two delivery and receiving devices is, however, possible, although not preferred. Thus, the second receiving device preferably comprises the first and second delivery and receiving devices.

In addition to the transfer area, a staging area can be provided in the laboratory work module, in which the transport arrangement is designed to transfer a transported laboratory object between a transport device comprising the first and second transport devices and the laboratory object lift. Although in principle the first transport device can also pick up a laboratory object from the laboratory object lift and bring it to the second transport device, for reasons of faster transport processes the second transport device is preferably designed to transfer a laboratory object with the laboratory object lift, in particular if it has the first and second delivery and receiving devices. Preferably, only the first delivery and receiving device cooperates with the first receiving device for a laboratory object transfer, and only the second delivery and receiving device cooperates with the laboratory object lift for a laboratory object transfer.

The transfer area and the staging area are preferably arranged at a distance from one another along the second transport route.

The at least one receiving structure provided in the laboratory article lift is designed as a provision receiving device, which Preferably, the second receiving device interacts with the second receiving device for transferring a laboratory object between the receiving devices in the same or similar manner as the first receiving device interacts with the second receiving device. In particular, a transfer of a laboratory object between the first receiving device and the first delivery receiving device preferably takes place in the same or similar manner as a transfer of a laboratory object between the provision receiving device and the second delivery receiving device.

In the preferred case of using the laboratory object lift as a stack storage, preferably a plurality, particularly preferably all successively arranged receiving structures of the stack storage are identical provision receiving devices.

In order to ensure, according to a further development of the present invention, an advantageously stripping transfer of a transported laboratory object between at least two receiving devices cooperating for a transfer of a laboratory object between them without the involvement of an additional transfer device, such as a gripper, pusher, and the like, a receiving engagement of a transported laboratory object with at least each of two cooperating receiving devices consisting of the first receiving device, the second receiving device, and the provision receiving device, in particular consisting of the first receiving device, the first delivery receiving device, the second delivery receiving device, and the provision receiving device, each comprises a support engagement. Particularly preferably, the receiving engagement of a transported laboratory object with all receiving devices cooperating for a transfer of a laboratory object each comprises a support engagement.

More specifically, the support engagement is preferably achieved by placing or setting down the laboratory object on the receiving device of the respective transport device or laboratory object lift. Likewise, the support engagement is preferably released by lifting the laboratory object from the receiving device of the respective transport device or laboratory object lift.

However, this does not necessarily mean that the laboratory object is transported loosely and only frictionally resting on a receiving device. This is possible in principle, but the frictional engagement between the laboratory object and the respective receiving device limits the maximum possible transport acceleration and deceleration of the receiving device. A transport arrangement with higher dynamics can be achieved if a receiving device, preferably at least the first receiving device, and the second receiving device, in particular the first receiving device, the first delivery receiving device and the second delivery receiving device, have or have at least one form-locking element, preferably several form-locking elements, such as projections and/or recesses, which limit the movement of a laboratory object, which is held on the receiving device as intended for transport, parallel to a contact surface of its support engagement in at least one direction, preferably in mutually opposite directions, particularly preferably in each direction along two displacement axes that are orthogonal to one another and parallel to the contact surface. The laboratory object can then be accelerated from a standstill with high acceleration parallel to the contact surface of the support engagement with the holding device supporting it, and decelerated from the movement with equally high deceleration, without fear of displacement of the laboratory object relative to the holding device supporting it. The contact surface of the support engagement is the area where the laboratory object touches the holding device when in contact with a holding device.

In principle, the provisioning and receiving device can also comprise at least one form-locking element, preferably a plurality of form-locking elements, as described above. However, in the preferred embodiment, the provisioning and receiving device is accelerated in a vertical direction and thus orthogonal to the contact surface of the support engagement of the laboratory article with the provisioning and receiving device supporting it. Due to a simplification of production technology through the use of identical parts, the provisioning and receiving device preferably also comprises at least one form-locking element.

The first receiving device and the second receiving device are preferably designed differently in terms of shape and/or size. The second receiving device and the provision receiving device are preferably designed differently in terms of shape and/or size. According to a preferred embodiment, the first receiving device and the first delivery receiving device are designed differently in terms of shape and/or size, and the second delivery receiving device and the provision receiving device are designed differently in terms of shape and/or size. In order to use identical parts and thus to maximize the variety of In order to reduce the number of receiving devices, the first receiving device and the provision receiving device can be designed identically. According to the preferred embodiment, two receiving devices each consisting of the first receiving device, the first delivery receiving device, the second delivery receiving device, and the provision receiving device can be designed identically.

The first receiving device, which can be designed as a flat frame or a flat plate, can be connected to a first transport base movable along the first transport path to facilitate movement guidance along the first transport path and to facilitate the introduction of accelerating and decelerating forces. To achieve the highest possible positioning accuracy, the first transport base preferably has no further translational degree of freedom of movement in addition to the mobility along the first transport path. It also preferably has no rotational degree of freedom of movement. The first transport base is preferably guided for movement by a first movement guidance device, particularly preferably directly by the first movement guidance device. Additionally or alternatively, the same applies mutatis mutandis to the second receiving device. It can be connected to a second transport base movable along the second transport path, wherein the second transport base preferably has no further translational degree of freedom of movement in addition to the mobility along the second transport path. The second transport base is preferably guided for movement by a second movement guide device, particularly preferably directly by the second movement guide device.

Preferably, neither the first receiving device nor the second receiving device has a rotational degree of freedom of movement.

Preferably, at least one receiving device comprising the first and second receiving devices can be driven to perform a transfer movement at least in the transfer area. The relative transfer mobility caused by the transfer movement of the at least one receiving device is preferably configured such that, in the transfer area, the relative transfer movement path between the first and second receiving devices extends transversely to both the course of the first and the second transport path in the transfer area.

The receiving device drivable for the transfer movement, which is preferably the second receiving device, is preferably rigidly connected to a transfer base, which itself is movably guided on the transport base of the receiving device relative to the latter. The transport base of the receiving device can then have a transfer movement drive and, if appropriate, a transfer movement guide device on which the transfer base is drivably guided. The transport movement of the transport base is then advantageously independent of a transfer movement of the associated receiving device.

The transfer movement includes a translational movement. Preferably, the transfer movement is only a translational movement.

The receiving device which cannot be driven for transfer movement is preferably rigidly connected to its transport base.

A transport base and/or the transfer base may comprise at least one device consisting of a spindle nut, a slotted nut, a rolling element guided guide carriage or a sliding surface guided guide carriage or may be such a device, to name just a few examples.

A possible transfer motion drive may include a spindle drive, a piston-cylinder arrangement, a belt drive, and the like.

In order to be able to establish the preferred support engagement described above between the laboratory article and the respective receiving device during transport of the laboratory article, it is sufficient if the first receiving device has a first support surface arrangement for receiving the laboratory article by placing it on the first support surface arrangement and if the second receiving device has a second support surface arrangement for receiving the laboratory article by placing it on the second support surface arrangement. Clamping devices or other fixing devices for securing the laboratory article to a delivery receiving device against lifting are not necessary and are therefore preferably not present. To secure the position of the laboratory article on the respective receiving device, the support surface arrangement can be delimited by the above-mentioned at least one form-fitting element, such as by one or more projections, which protrudes in a direction away from the support surface arrangement. This preferably applies to both the first and the second support surface arrangement.

A transported laboratory object lies on the first and second transport devices during its transport by the first and second transport devices. second receiving device can always be lifted off from the respective receiving device.

One or both support surface arrangements of the first and/or second support surface arrangement can be formed by a plurality of separate support surfaces arranged at a distance from one another. The support surfaces are rigidly connected to one another by at least one component or at least one component section of the respective receiving device, but do not have to form a continuous support surface. One or both support surface arrangements of the first and/or second support surface arrangement can be formed by a single continuous support surface.

In principle, the first and/or second support surface arrangement can be designed as a three-dimensional surface arrangement. For reasons of increased practicality, the laboratory object will generally have a storage area with a flat storage surface which is designed for storage on a base, because the laboratory object should usually be able to be placed on numerous different objects, including laboratory tables, shelves, compartments and the like, whereby the objects themselves are in turn designed to accommodate a wide variety of objects. Therefore, in order to adapt the laboratory object to be as universally accessible as possible, the support surface arrangements are preferably designed to be flat. Furthermore, in an advantageous development, several or all of the receiving devices can be designed to accommodate more than one type of laboratory object by designing their support surface arrangement with a flat design.

During a support engagement, the support surface of a laboratory object is in contact with the support surface arrangement of a holding device. During the support engagement of the laboratory object and the holding device, the support surface and the support surface arrangement touch each other at the contact surface of the support engagement mentioned above.

In order to ensure a safe transfer of the laboratory object between the first and second receiving devices with the least possible effort, for example by ensuring the shortest possible transfer movement path of a receiving device designed to perform a transfer movement, the transfer relative movement path preferably runs transversely to the first support surface arrangement and/or transversely to the second support surface arrangement. In a further optimization of the transfer movement path, the transfer relative movement path runs orthogonally to the first support surface arrangement and/or orthogonally to the second support surface arrangement. Most preferably, the first and second support surface arrangements are parallel to one another, and the transfer relative movement path runs orthogonally to both support surface arrangements.

The most secure possible support of the laboratory object on both the first and second support surface arrangements can be achieved by one of the first and second receiving devices having, as the outer receiving device, a receiving frame that extends around an inner region of the outer receiving device that is free of material from the outer receiving device. Then, the other of the first and second receiving devices can have, as the inner receiving device, a receiving carrier such that a relative movement of the inner receiving device along the transfer relative movement path past the outer receiving device is a relative movement of the receiving carrier through the inner region of the receiving frame.

The receiving frame preferably has a C-shaped configuration with a frame base, from which a frame leg projects at a distance from each other to the same side. To enlarge the support surface arrangement and the contact surface achievable thereon, according to a further development of the invention, the longitudinal end regions of the frame legs remote from the frame base can be angled toward the respective other frame leg.

By using a support frame which is located locally with its support surface arrangement under a laboratory object in support engagement with the laboratory object, while at least another section of the storage surface of the laboratory object is not contacted by the support surface arrangement of the support frame, the section of the storage surface of the laboratory object which is not contacted by the support surface arrangement of the support frame can be brought into contact with the support surface arrangement of the support carrier.

Preferably, sections of the receiving frame which are not in contact with the laboratory object resting thereon project laterally beyond the storage surface of the laboratory object, for example in order to arrange there the at least one form-locking element for securing the position of the laboratory support which is in contact with the receiving frame.

For a transfer of the laboratory item from the donating recording device to the receiving The receiving frame can be used by using a receiving carrier which is located locally with its support surface arrangement under a laboratory object in support engagement with the laboratory object, while non-contacting sections of the storage surface of the laboratory object project laterally beyond the receiving carrier, for a transfer of the laboratory object from the transferring receiving carrier to the receiving receiving frame, at least one section of the storage surface of the laboratory object projecting laterally beyond the support surface arrangement of the receiving carrier can be brought into contact with the support surface arrangement of the receiving frame.

Preferably, sections of the support carrier which are not contacted by the laboratory article resting thereon project laterally beyond the storage surface of the laboratory article, preferably in order to arrange there the at least one form-locking element for securing the position of the laboratory carrier which is in contact with the support carrier.

The support carrier can also have a generally C-shaped or O-shaped configuration as described above, which, due to the interior space free of support carrier material, leads to an advantageously low moving mass of the support carrier. To ensure that the support carrier fits through the free interior space of the support frame, it is designed to be smaller than the support frame. According to a preferred development of the laboratory work module, the support frame and/or the support carrier can have a functional device that acts on the transported laboratory object or interacts with a processing device of the laboratory work module, such as a heater, a magnetic field source, or an electrode. The support frame and/or the support carrier can have a solid plate that forms the support surface arrangement of the support frame and/or the support carrier or contributes to its formation, in particular to support the functional device. The plate can be formed from an electrically conductive material as an electrode. The plate can carry at least one heating element and serve as a distribution device for the surface distribution of the heat emanating from the at least one heating element. Thus, a laboratory object picked up by the support frame and/or support carrier can be heated as evenly as possible over its installation surface or over the contact surface of the support engagement and/or placed in an electric field and/or rest on a surface with a defined uniform electric potential and/or be picked up in a magnetic field.

The switchable magnetic field source can comprise at least one electromagnet which can be selectively energized and/or permanent magnets which can be moved relative to one another while changing the field strength of the magnetic field emanating from them.

To supply the functional device with energy, preferably electrical energy, the transport device comprising the functional device can carry a power supply or be supplied with energy via a power supply line. The power supply line can terminate at the receiving frame and/or receiving carrier supporting the functional device and be guided in a cable guide, such as a link chain or energy guide chain, to a cable movement that accompanies the movement of the receiving frame and/or receiving carrier. Alternatively, the energy can be supplied via a stationary conductor rail running along the transport path associated with the receiving frame and/or receiving carrier with the functional device, and a current collector that moves with the transport device.

The laboratory module can have at least one storage and storage device for temporarily storing a laboratory object, said storage device cooperating with the delivery and transport device for transferring a laboratory object, preferably by stripping it off. To keep the number of different components low, a receiving device of the storage and storage device can be designed like the feed receiving device and/or like a provision receiving device mentioned below. The storage and storage device can have an above-mentioned functional device, such as a heater and/or a magnetic field source and/or an electrode, optionally in conjunction with a solid plate described above, in order to be able to heat a laboratory object received thereon and to expose it to a magnetic field and/or an electric field and/or to be able to stir the contents of the laboratory object with a magnetic stirrer.

In principle, the at least one receiving device movable along the transfer relative movement path can be freely movable along the transfer relative movement path, which is a spatial direction that is linearly independent of the directions of travel of the first and second transport paths. In this case, the transfer movement is preferably a lifting and/or lowering movement, while the first and second transport paths each preferably extend horizontally.

Preferably, the transfer movement serves exclusively to hand over or take over a laboratory item transported from a donating receiving facility to or by the each other receiving device. Likewise, the transfer movement can be used by the receiving device or transport device configured to carry it out to transfer the transported laboratory object to a processing device of the laboratory work module. An advantageously small, lightweight transfer movement drive and thus the lowest possible moving mass of the respective transport device can be achieved by ensuring that, for a receiving device drivable for movement along the transfer relative movement path, its maximum movement path along the transfer relative movement path is shorter than its maximum movement path along its transport path. Preferably, its maximum movement path along its transport path is at least twice, more preferably at least three times, even more preferably at least four times longer than its maximum movement path along the transfer relative movement path.

In order to manage with as few different designs of receiving devices as possible and thus to be able to provide the transport arrangement and the provision station with the largest possible number of identical parts that can cooperate with one another, the first and the second delivery receiving device are preferably each designed as an outer receiving device and each have a receiving frame which runs around a free inner region of the outer receiving device, or the first and the second delivery receiving device are preferably each designed as an inner receiving device and have a receiving carrier.

Preferably, the provision receiving device and the feed receiving device are each designed as an inner receiving device if the first and second delivery receiving devices are each designed as an outer receiving device. Likewise, the provision receiving device and the feed receiving device are each designed as an outer receiving device if the first and second delivery receiving devices are each designed as an inner receiving device. A relative movement of the inner receiving device along the transfer relative movement path past the outer receiving device is then preferably a relative movement of the receiving carrier through the inner region of the receiving frame.

In this case, the feed transport device, the delivery transport device, and the laboratory article lift can operate with just two different receiving devices. Furthermore, the first and second delivery receiving devices can have a different design, for example, because only one of them carries an aforementioned functional device. Preferably, the feed receiving device and the provision receiving device are of identical design. Transferring a laboratory article from the provision receiving device to the delivery receiving device, and preferably also in the opposite direction, also takes place without the involvement of an additional transfer device, such as a gripper, pusher, or the like.

Furthermore, due to the preferred sequential arrangement of the first and second delivery receiving devices along the delivery transport route, preferably only one of the two delivery receiving devices, for example the first delivery receiving device, can cooperate with the first receiving device for transferring a laboratory object, and only the other of the two delivery receiving devices, for example the second delivery receiving device, can cooperate with the provision receiving device for transferring a laboratory object.

In order to enable simple and uncomplicated grouping of laboratory work modules in the laboratory module rack, in particular in the work module level, the laboratory work modules, in particular the base plates supporting their components, preferably have base dimensions in each of two orthogonal base spatial directions which differ by no more than 7.5%, preferably by no more than 5%, relative to the larger dimension along one and the same base spatial direction. Particularly preferably, the laboratory work modules, in particular the base plates supporting their components, of the laboratory module rack have a uniform base with the same dimensions along one and the same base spatial direction. It is also conceivable for laboratory work modules to have a uniform base dimension or an integer multiple thereof along the direction of travel of the first transport path. Preferably, the laboratory module rack has a plurality of laboratory work modules only along the direction of travel of the first transport path, but not along the direction of travel of the second transport path. Likewise, the laboratory module rack preferably has only one work module level.

For the same reason, the laboratory base modules preferably have base dimensions in each of two mutually orthogonal base spatial directions which, in relation to the larger dimension along one and the same base spatial direction, do not differ by more than 7.5%, preferably by no more than 5 %, differ. Particularly preferably, the laboratory base modules of the laboratory module shelf have a uniform base area with the same dimensions along one and the same base area spatial direction. It is also conceivable for laboratory base modules parallel to the direction of travel of the first transport route to have a uniform base area dimension or an integer multiple thereof. Preferably, the laboratory module shelf only has a plurality of laboratory base modules parallel to the direction of travel of the first transport route, but not parallel to the direction of travel of the second transport route. Likewise, the laboratory module shelf preferably has only exactly one base module level.

When the laboratory module shelves are in operational condition, floor area spatial directions are horizontal spatial directions.

To clarify: for both the laboratory work module and the laboratory base module, the base area can have different dimensions in the base area spatial directions "width" and "depth," for example, it can be at least twice as deep as it is wide. However, the width dimensions of the laboratory work modules are preferably uniform in accordance with the above explanations. Likewise, the depth dimensions of the laboratory work modules are preferably uniform in accordance with the above explanations. Mutatis mutandis, the same applies to the base area spatial directions "width" and "depth" of the laboratory base modules.

The laboratory work modules preferably have a work module frame and are mounted on or in it. The work module frame is preferably designed as a framework, for example as a cuboid frame with particularly good connection capabilities on all sides, so that passages exist between adjacent laboratory work modules, enabling the feed transport device to move across all laboratory work modules. A common enclosure as a covering outer skin is therefore preferably provided not for each laboratory work module, but only for the modularly configured laboratory arrangement as a whole.

A work module frame preferably accommodates more than one laboratory work module, particularly preferably three laboratory work modules, which are arranged successively on or in the module frame along the feed transport path.

The laboratory base modules can have a base module frame. The base module frame is preferably designed as a framework, for example, as a cuboid frame with particularly good connection capabilities on all sides. Passages can then exist between adjacent laboratory base modules and to laboratory work modules arranged above them. A laboratory base module and a laboratory work module arranged above it, in particular a laboratory work module supported by the laboratory base module, can use at least one common frame component, which is part of both the work module frame and the base module frame.

The base module frame preferably accommodates more than one laboratory base module, particularly preferably three laboratory base modules, which are arranged consecutively in the base module frame parallel to the feed transport path.

For reasons of easier production and assembly, the working module frame and the base module frame are preferably constructed with at least the same base area dimensions, preferably also with the same height dimensions, and particularly preferably even with the same structure.

The base module frame can also be the work module frame. Preferably, laboratory base modules are then arranged in the combined base and work module frame, and laboratory work modules are arranged on top of it. Even with such an arrangement, the laboratory base modules arranged in the base and work module frame support the laboratory work modules arranged on top of it.

To protect against external influences such as forces, gas flows, and dirt, the laboratory module rack preferably has a common enclosure as a cladding outer skin, which shields a majority of its laboratory modules from the external environment of the laboratory module rack. The common enclosure is preferably attached to the work module frame and/or the base module frame.

For maintenance and repair and/or for loading, unloading, and equipping the laboratory module rack, an interior of the laboratory module rack can be accessible from the outside via at least one access side of the common housing. To also enable complete maintenance of the transport arrangement, the access side is preferably the side of the common housing along which the first transport path runs. For this purpose, the access side of the common housing in the upper work module level can have at least one maintenance opening as an access opening through which the first transport device can be reached.

Accessibility can only be at the base module level in order not to disturb or impair the often very sensitive processing equipment. In order to ensure this, preferably only the working module level has a transport arrangement as described above, but not the base module level. Individual base modules can have a transport device that is movable in the depth direction and/or in the height direction of a body of the laboratory arrangement, for example in order to load and unload a cleaning device with laboratory items, in particular with microtiter plates. Preferably, the base modules do not have a transport device whose transport path runs along a sequential direction in which laboratory base modules are arranged one after the other, in order not to hinder the preferred pull-out ability of individual laboratory base modules from a body of the laboratory arrangement.

To avoid unduly disrupting the shielding of the laboratory modules provided by the enclosure, the access side of the shared enclosure can have at least one access opening that can be opened and closed by a door and/or a flap and/or a roller blind. The access opening can then be opened only when necessary and remain closed otherwise.

Preferably, the access side of the common housing in the lower base module level has at least one loading opening as an access opening, through which a laboratory base module can be loaded with at least one laboratory object. For this purpose, at least one laboratory base module can have a pull-out drawer or a pull-out insert, which can be pulled out of and pushed back into the body of the laboratory module shelf defined by the housing. For example, a laboratory object lift of a laboratory base module, which also functions as a storage device, in particular a stacking storage device, can be easily and quickly loaded with laboratory objects. The stacking storage device can advantageously have a magazine that can be loaded with laboratory objects outside the laboratory module shelf. During loading, the magazine can be loaded into a lifting and lowering device of the laboratory object lift and thus moved from the laboratory object lift to the laboratory work module located above it.

A laboratory work module and/or a laboratory base module and/or the laboratory arrangement as a whole can have at least one control device that controls the operation of the laboratory work module and/or the laboratory base module and/or the laboratory arrangement. The at least one control device can, for example, control the transport of laboratory objects and the operation of at least one processing device. The control device can have at least one integrated circuit and at least one data memory. An operating program for execution by the at least one integrated circuit can be stored in the data memory. Operating data can be stored in the data memory, which is detected during the operation of the laboratory work module and/or the laboratory base module and/or the laboratory arrangement by sensors in the laboratory work module and/or the laboratory base module and/or the laboratory arrangement, for example by position sensors for detecting the position of a receiving device and/or a transport base along its transport path and/or by temperature sensors and/or by proximity sensors for detecting the presence of a component at a predetermined location.

The laboratory setup discussed above can be used to conduct so-called ELISA tests (enzyme-linked immunosorbent assays). Preferably, the complete ELISA test runs fully automatically in the laboratory setup. The test fluids and laboratory equipment required for the ELISA test must be loaded into the laboratory setup, specifically into at least one basic laboratory module, as well as a supply of microtiter plates and target vessels.

• 1 eine schematische perspektivische Ansicht einer erfindungsgemäßen Labormoduletagere,
• 2 eine schematische perspektivische Ansicht der erfindungsgemäßen Labormoduletagere von 1 ohne Einhausung,
• 3 eine schematische perspektivische Ansicht eines Basis- und Arbeitsmodulrahmens der Labormoduletagere von 1,
• 4 eine schematische perspektivische Ansicht einer ersten Transportvorrichtung der Labormoduletagere von 1,
• 5 eine schematische perspektivische Ansicht eines Labor-Arbeitsmoduls der Labormoduletagere von 1,
• 6 eine schematische perspektivische Ansicht einer zweiten Aufnahmeeinrichtung der zweiten Transportvorrichtung des Labor-Arbeitsmoduls von 5,
• 7 eine schematische perspektivische Ansicht der zweiten Transportvorrichtung des Labor-Arbeitsmoduls von 5,
• 8 eine schematische perspektivische Ansicht eines Labor-Basismoduls der Labormoduletagere von 1,
• 9 eine schematische perspektivische Ansicht eines leeren Stapelspeichers des Labor-Basismoduls von 8,
• 10 eine schematische perspektivische Ansicht eines beladenen Stapelspeichers des Labor-Basismoduls von 8,
• 11 eine schematische perspektivische Ansicht einer Basismodulebene einer erfindungsgemäßen Laboranordnung mit aus dem Basis- und Arbeits-modulrahmen herausgezogenen Basismodulen,
• 12 eine schematische perspektivische Ansicht eines Übergabebereichs der Labormoduletagere von 1 vor einem Transfer eines Laborgegenstands von der ersten zur zweiten Transportvorrichtung,
• 13 eine schematische perspektivische Ansicht des Übergabebereichs der Labormoduletagere von 1 nach einem Transfer eines Laborgegenstands von der ersten zur zweiten Transportvorrichtung,
• 14 eine schematische perspektivische Ansicht eines Labor-Arbeitsmoduls mit Pipettiervorrichtung der Labormoduletagere von 1, und
• 15 eine schematische perspektivische Ansicht eines Arbeitsbereichs der Pipettiervorrichtung eines Labor-Arbeitsmoduls der Labormoduletagere von 1.

The present invention will be explained in more detail below with reference to the accompanying drawings. It shows:

• 1 a schematic perspective view of a laboratory module shelf according to the invention,
• 2 a schematic perspective view of the laboratory module shelf according to the invention from 1 without enclosure,
• 3 a schematic perspective view of a base and work module frame of the laboratory module shelf from 1 ,
• 4 a schematic perspective view of a first transport device of the laboratory module shelf of 1 ,
• 5 a schematic perspective view of a laboratory work module of the laboratory module shelf from 1 ,
• 6 a schematic perspective view of a second receiving device of the second transport device of the laboratory work module of 5 ,
• 7 a schematic perspective view of the second transport device of the laboratory work module of 5 ,
• 8 a schematic perspective view of a laboratory base module of the laboratory module shelf from 1 ,
• 9 a schematic perspective view of an empty stack memory of the laboratory base module of 8 ,
• 10 a schematic perspective view of a loaded stack storage of the laboratory base module of 8 ,
• 11 a schematic perspective view of a base module level of a laboratory arrangement according to the invention with base modules pulled out of the base and work module frame,
• 12 a schematic perspective view of a transfer area of the laboratory module racks of 1 before transferring a laboratory item from the first to the second transport device,
• 13 a schematic perspective view of the transfer area of the laboratory module shelves of 1 after a transfer of a laboratory object from the first to the second transport device,
• 14 a schematic perspective view of a laboratory work module with pipetting device of the laboratory module shelf from 1 , and
• 15 a schematic perspective view of a working area of the pipetting device of a laboratory work module of the laboratory module shelf of 1 .

The figures are not to scale, but they accurately represent the proportions.

In 1 A laboratory arrangement is generally designated 10. The laboratory arrangement 10 has an outer skin 12, which surrounds the devices and components arranged in the interior 14 of the laboratory arrangement 10 and shields them from the external environment U. Processes in the interior 14 of the laboratory arrangement 10 can be observed through a front window 16 and a side window 18.

The side window 18 has a passage 20 to allow a laboratory object to be moved manually or by a robot from the external environment U into the interior 14 of the laboratory arrangement 10. The passage can be formed in the front window 16 or in any wall of the outer skin 12 instead of in the side window 18. The passage 20 can be formed by a 1 A flap (not shown) can be closed or it can be open all the time.

A status light 22 on the top side of the outer skin 12 indicates one or more operating states of the laboratory arrangement 10 by means of light signals.

In 1 A Cartesian coordinate system is shown to facilitate the explanation of Laboratory Arrangement 10 and its components, as well as to facilitate orientation with the spatial directions x, y, and z. The Cartesian coordinate system is maintained throughout all figures.

The x-direction runs horizontally along the front side 12a of the outer skin 12 in the width direction of the laboratory arrangement 10. The y-direction also runs horizontally along the side surfaces 12b of the outer skin 12 in the depth direction of the laboratory arrangement 10. The z-direction runs vertically both along the front side 12a and along the side surfaces 12b of the outer skin 12 in the height direction of the laboratory arrangement 10. The x-direction and the y-direction are base area spatial directions in the sense of the description introduction.

On the front side 12a of the outer skin 12, there are slide-in fronts 26, 28, and 30 in the lower extension area of the outer skin 12 or the laboratory arrangement 10, which can be unlocked by switches 24. The slide-in fronts 26, 28, and 30, which are locked during operation, can be individually unlocked by actuating the switches 24. Base modules connected to the slide-in fronts 26, 28, and 30, which are explained further below, can then be pulled out of the body 32 of the laboratory arrangement 10 defined by the outer skin 12 in the opposite direction to the y-direction and pushed back into the body 32 in the y-direction. Manual inlets 34 facilitate the extraction of the base modules from the body 32.

2 shows the laboratory arrangement 10 without the outer skin 12. It can be seen that the laboratory arrangement 10 is a laboratory module tier 36 with a lower base module level 38 and a work module level 40 arranged above it. In the base module level 38 there are, for example, three laboratory base modules 42a, 42b and 42c, of which the middle and the right laboratory base module 42b and 42c respectively each have stack storage and of which the left laboratory base module 42a has a cleaning device 44.

The laboratory base modules 42a, 42b, and 42c are mounted side by side along the x-direction in a base and work module frame 46, which is constructed in a truss-like manner from vertical struts 48, horizontal cross struts 50 connecting the vertical struts 48, and horizontal longitudinal struts 52 connecting the cross struts 50. Parallel plates 54 are arranged laterally on the outermost compartments in the x-direction. The base module frame 46 is in 3 presented in a unique position.

The base and work module frame 46 not only supports the three laboratory base modules 42a, 42b and 42c shown as examples, but also laboratory work modules 56a, 56b and 56c arranged in the work module level 40, which, like the laboratory base modules 42a, 42b and 42c below, are arranged side by side on the base and work module frame 46 along the x-direction.

The left laboratory work module 56a comprises an incubator 58 as a processing device 60, and a gripper 62. The middle laboratory work module 56b comprises a pipetting device 64 arranged on a bridge support 63 as a processing device 60. The right laboratory work module 56c comprises a barcode reader 66 as a processing device 60.

On the front side of the base or working module frame 46, a first transport device 68 is arranged above the upper cross member 50, which in connection with 4 will be explained in more detail. The first transport device 68 is a feed transport device 68 whose first transport path 70, which runs parallel to the x-direction and is also a feed transport path 70, leads past all three laboratory work modules 56a, 56b, and 56c, so that the first transport device 68 can transport a laboratory object to each individual laboratory work module 56a, 56b, and 56c of the work module level 40.

The incubator 58 is loaded and unloaded with laboratory items, in the present case with microtiter plates, by the gripper 62, wherein the gripper 62 removes laboratory items from the first receiving device 72 of the first transport device 68 and places them on a loading frame 74 that can be extended from and retracted into the incubator 58, or removes laboratory items from the loading frame 74 and places them on the first receiving device 70.

The middle and left laboratory work modules 56b and 56c each have a second transport device 76, which is explained in detail below.

In 4 the first transport device 68 is shown in isolation.

A first transport device carrier 78, which carries the further components of the first transport device 68, can be fastened to a front upper cross member 50 of the base and work module frame 46.

The first transport device carrier 78 carries on its upper side a guide rail 80 running parallel to the x-direction, which guides a first transport base 82 of the first transport device 68 along the first transport path 70. The guide rail 80 defines the first transport path 70.

The transport base 82 is guided on the guide rail 80 by means of rolling element bearings.

The first transport base 82 is further clamped to a revolving belt 84 of a first transport drive 86 of the first transport device 68 in the form of a belt drive. An electric motor 88 of the first transport drive 86 drives the belt 84 in one of two opposite directions of rotation, depending on the drive direction of the electric motor 88, and thus moves the first transport base 82 and, with it, the first receiving device 72 rigidly connected to the first transport base 82 along the first transport path 70.

The first receiving device 72 comprises, as an outer receiving device, a receiving frame with a base 72a, with legs 72b projecting therefrom at each longitudinal end of the base 72a, and with leg ends 72c angled toward one another at each longitudinal end of a leg 72b remote from the base 72a. An inner region 73 of the outer first receiving device 72, configured as a receiving frame, is free of material of the first receiving device 72.

On the sections of the base 72a, the legs 72b and the leg ends 72c facing the interior, a support surface 75a, 75b and 75c is formed (the support surfaces 75b and 75c are present twice, but in 4 (only visible once due to the selected perspective). The individual support surfaces 75a, 75b and 75c form a first support surface arrangement 77 lying in a common plane, on which a storage surface of a laboratory object can rest in contact.

The more solid and in particular thicker sections 79a, 79b and 79c of the base 72a, the legs 72b and the leg ends 72c, which are located radially outside the support surfaces 75a, 75b and 75c with respect to the material-free inner region 73, form form-locking elements which prevent a relative displacement of a laboratory object placed on the first support surface arrangement 77 in two spatial directions which are orthogonal to one another and parallel to the first support surface arrangement 77 and thus ensure a force applied to the first support surface arrangement 77 Hold the placed laboratory object in the plane of the support surface arrangement 77 on it.

In 5 a perspective view of the laboratory work module 56b with the pipetting device 64 as the processing device 60 is shown in isolation.

The laboratory work module 56b in 5 has a base plate 90, which can be connected to the struts 50 and 52 on the top side of the base and work module frame 46 and can thus be fixed to the frame. The base plate 90 can be designed differently for different laboratory work modules, such as the laboratory work modules 56a, 56b, and 56c, depending on the requirements of the processing device 60 to be arranged thereon or therewith and, if necessary, other functional devices. However, the base plates 90 of the laboratory work modules 56a, 56b, and 56c have essentially the same dimensions in the x-direction and also essentially the same dimensions in the y-direction.

The bridge support 63 is fixed to the base plate 90, spanning the base plate 90 in the width direction, i.e., in the x-direction. A cross member 63a of the bridge support 63 carries the pipetting device 64 with a plurality of pipetting channels 92, eight in the illustrated example, arranged next to one another in the x-direction. The pipetting channels 92 extend along respective channel axes K, which run parallel to the z-direction. For reasons of clarity, 5 only one of the eight parallel channel axes K is shown.

In the preferred embodiment shown, the pipetting channels 92 are only movable together and only along the channel axis K, so that the pipetting channels 92 can only be moved closer to and away from the base plate 90 at the location of their arrangement. This simple kinematics of the pipetting device 64 enables a very simple design of the pipetting device 64 with only one motion guide for all pipetting channels 92, which can be implemented very precisely with little effort due to the single degree of freedom of movement along the channel axis K.

In the illustrated embodiment, the pipetting device 64 has its own control device 94, which controls the operation of the pipetting device 64. The control device 94 can operate as a slave control device 94 in cooperation with a higher-level master control device of the laboratory arrangement 10.

On the 5 A second transport device 96 is attached to the longitudinal side of the base plate 90 facing away from the viewer. This second transport device is a delivery transport device 96 that delivers laboratory items to the pipetting device 64 for carrying out pipetting operations. The second transport device 96 is movable along a second transport path 98 or delivery transport path 98. The second or delivery transport path 98 is defined by the course of a guide rail 100 of the second transport device 96. The first and second transport devices 68 and 96 together form a transport arrangement 99 (see 12 and 13 ).

The second transport device 96 has a second receiving device 102, which is a receiving arrangement 104 with a first delivery receiving device 104a and a second delivery receiving device 104b. Analogous to the first transport device 68, the second receiving device 102 is movably guided on the guide rail 100 along the second transport path 98 via a second transport base 106, which in the illustrated example is based on rolling elements, and is coupled to a belt 108 of a belt drive 110, which can be driven by an electric motor 112 in two opposite directions of rotation for movement while driving the second transport base 106 and the second receiving device 102.

The electric motor 112 and the belt drive 110 form a second transport drive 114.

The second receiving device 102 is arranged in the z-direction to carry out a transfer movement, which will be explained in more detail below, starting from the 5 shown position and lowered again. For this purpose, the second transport base 106 has a transfer drive 116, comprising an electric motor drive 118, a vertically extending guide rail 120 which can be displaced together with the second transport base 106 along the second transport path 98, and a belt 122 of a transfer belt drive 124 which can be driven in opposite directions of rotation by the electric motor drive 118. A transfer base 123 (see 6 , 7 , 12 and 13 ) is preferably guided by roller bearings and coupled to the belt 122 for joint movement. The second receiving device 102 is directly coupled to the transfer base 123 for joint movement.

On the viewer of 5 On the longitudinal side of the base plate 90 facing the electric motor 112, two essentially identical vertical guides 126 of a respective vertical laboratory object lift 128 are fixed to the base plate 90. The vertical guides 126 pass through an opening 130 through which the respective laboratory object lift 128 as a conveyor device can vertically transport laboratory items from the base module level 38 to the work module level 40.

In 6 the second receiving device 102 or receiving arrangement 104 with the second transport base 106 and the transfer drive 116 is shown in isolation.

The first delivery receiving device 104a has a support surface arrangement 132, which in the illustrated embodiment is formed by four separate support surfaces 134a, 134b, 134c, and 134d. The four support surfaces 134a, 134b, 134c, and 134d are located in the corner regions of the overall surface of the first delivery receiving device 104a.

The support surface arrangement 132 of the first delivery-receiving device 104a is dimensioned such that it can be moved through the interior region 73 of the first receiving device 72 in a direction of movement orthogonal to both the support surface arrangement 77 and the support surface arrangement 132 in opposite directions. Such an orthogonal movement path corresponds to the transfer path or transfer relative movement path TRB running along the z-axis.

The first delivery receiving device 104a also has a solid plate 135 located radially inward of the four separate support surfaces 134a, 134b, 134c, and 134d. This plate may be rectangular and, as shown in the preferred embodiment, may have rounded corners.

In the corner regions outside the support surface arrangement 132, projections 136 are arranged orthogonally to the support surface arrangement 132, which secure a laboratory object resting on the support surface arrangement 132 against displacement orthogonal to the transfer relative movement path TRW or parallel to the support surface arrangement 132. For this purpose, two projections 136 are arranged in each corner region so that the two projections 136 can rest against a common component edge of a laboratory object with, in this case, a rectangular base area, such as a microtiter plate.

The solid receiving plate 135 of the first delivery receiving device 104a can have a functional device 138, such as a heating device, a device for generating a magnetic field, or the receiving plate can be configured as an electrode for generating an electric field. In this way, a laboratory object resting on the first delivery receiving device 104a can be heated or tempered, can be exposed to a magnetic field, for example, to accelerate magnetic or soft-magnetic particles in the laboratory object toward the solid receiving plate 135, or to operate a magnetic stirrer in the laboratory object, or to perform detection in an electric field, such as capacitive detection of a liquid surface (CLLD = Capacitive Liquid Level Detection).

In contrast to the first delivery receiving device 104a, the second delivery receiving device 104b is not provided with a solid receiving plate 135, but, like the first receiving device 72, is designed as a receiving frame with a free interior. As with the first receiving device 72, which is also designed as a C-shaped receiving frame, the support surface arrangement 140 of the second delivery receiving device 104b is also formed by separate and spaced-apart support surfaces 142a, 142b, 142c, and 142d. However, unlike the first receiving device 72, these support surfaces are not located along the edges of a rectangular base area of the laboratory object to be received, but rather in its corner regions.

In principle, however, the first delivery receiving device 104a can also have a C-shaped receiving frame under the solid receiving plate 135 with a similar or identical base area to that of the C-shaped receiving frame of the second delivery receiving device 104b.

The receiving frame of the second delivery receiving device 104b also has a base 144a, at whose longitudinal end regions parallel legs 144b protrude in the same direction. In contrast to the receiving frame of the first delivery receiving device 72, the longitudinal end regions of the legs 144b are not angled towards one another. The second delivery receiving device 104b, like the first delivery receiving device 104a, is an inner receiving device. Due to its outer dimensions, the second delivery receiving device 104b is also generally movable through the inner region 73 of the receiving device 72, assuming that the receiving device 72 is accessible by the second delivery receiving device 104b. In fact, the second delivery receiving device 104b is movable through the inner region 173 of the provision receiving device 172 explained further below (see 9 ) can be moved through.

Also in each corner area of the support surface arrangement 140 of the second delivery receiving device 104b, in the same way as on the first delivery receiving device 104a, two projections 136 projecting orthogonally to the support surface arrangement 140 are provided in order to secure a laboratory object resting on the support surface arrangement 140 against displacement parallel to the support surface arrangement 140.

In the illustrated embodiment, the first delivery/receiving device 104a is connected via an extension arm 146 to the transfer base 123, which is guided along the guide rail 120 and driven by the belt 122, and is thus offset in the depth direction along the y-axis with respect to the guide rail 120. The second delivery/receiving device 104b, on the other hand, is located directly at the depth coordinate (y-coordinate) of the guide rail 120.

In 7 The second transport device 96 is shown in perspective with its second transport device carrier 148, which can be fastened to a longitudinal strut 52 and, if desired, also to a transverse strut 50 of the base and work module frame 46 or to the base plate 90 of the laboratory work module 56b. However, in 6 the second transport drive 114 is not shown.

The movement guide of the second transport base 106 can be in the 5 and 7 differ slightly in details that are not relevant here.

In 8 The middle laboratory base module 42b is shown in perspective, which is 2 is inserted in the base and work module frame 46 under the laboratory work module 56b with the pipetting device 64.

The laboratory base module 42b has its own module frame 150, which is installed and secured in the base and work module frame 46. The module frame 150, as the base module frame 150 in the narrower sense for a single laboratory base module 42b or 42c, is also constructed in a truss-like manner using struts.

The insert front 28 is the front of a insert 152, which can be pulled out of the module frame 150 along the y-axis.

Also installed in the module frame 150 are two laboratory object lifts 128, whose push plates 154 can be seen on the top of the laboratory base module 42b. The push plates 154 are movable parallel to the z-direction by a corresponding conveyor drive and can move stack storage devices arranged in the drawer 152, along with their contents, in and against the z-direction.

In the 9 and 10 In each case, a stack memory 156 is shown in perspective, wherein the stack memory in 9 is empty and the stack 156 is in 10 is equipped with a subselection 158 of laboratory items. In this case, the subselection 158 is a second subselection 158 comprising a source container 158a and a pipette tip assembly 158b as laboratory items.

11 shows how the stacks 156 of the 9 and 10 can be suspended in side walls 153 of the inserts 152 so that they can then be moved by a laboratory object lift 128 through the opening 130 in the base plate 90 into the work space of an overlying laboratory work module 56b or another laboratory work module 56. If the specific design of a laboratory work module as a laboratory work module 56a, 56b, or 56c is not important below, the laboratory work module is designated by "56" without any lowercase letters.

The stack storage 156 extends predominantly in the z-direction, parallel to which it is displaced along a displacement path V by the laboratory object lift 128 during operation of the laboratory arrangement 10.

The stacking storage unit 156 has a base 159, which is provided with a central opening to save weight. At the opposite upper longitudinal end, the stacking storage unit 156 has a closed, circumferential stabilizing structure 160 with a carrying handle 162 extending through the stabilizing structure 160. An operator can grasp the carrying handle 162 to carry, manipulate, and set down the stacking storage unit 156.

A stack storage enclosure 164 incompletely encloses the stack storage 156 in the circumferential direction around the displacement path V. This enables the second delivery receiving device to engage in the stack storage 156. On the viewer of the 9 and 10 On the side facing away from the stack storage 156, a vertical guide rail 166 is arranged, which extends over at least 70% of the height dimension of the stack storage 156. The vertical guide rail 166 cooperates in operation with the vertical guides 126 on the laboratory work module 56b to guide the vertical lifting and lowering movement by the laboratory object lift 128. With a pin projecting orthogonally, i.e. in the illustrated embodiment opposite to the x-direction, from the vertical guide rail 166, which is not shown in the figures, the stack storage 156 can be suspended in a vertical groove 168 of a suspension device 170, which is on the inside the side wall 153 of the insert 152 (see 11 ). Thus, the stack memory 156 can be provided in a laboratory base module 42b or 42c or in any other laboratory base module 42 until it is finally used by a laboratory work module 56 arranged above it, such as the laboratory work module 56b. If the specific configuration of a laboratory base module as a laboratory base module 56a, 56b, or 56c is not important below, the laboratory base module is designated by "42" without any lowercase letters.

Along a stacking axis S, which corresponds to the displacement path V, in the 9 and 10 In the illustrated embodiment, four receiving structures 171 are arranged consecutively. The receiving structures 171 serve to receive the second subselection 158 for reception by the second delivery receiving device 104b of the second transport device 96 in the laboratory work module 56b.

The identically designed receiving structures 171 have a receiving frame, the shape of which corresponds to the first receiving device 72. This receiving frame is a provision receiving device 172 designed as a receiving frame. The provision receiving device 172, like the first receiving device 72, is an external receiving device. It can cooperate with the supply receiving devices 104a and 104b, preferably with the second supply receiving device 104b, for transferring the provided subselection 158 between the stack memory 156 and the supply receiving device, just like the first receiving device 72. What is stated in the present description regarding the interaction between one of the first supply receiving devices 104a and the first receiving device 72 also applies, mutatis mutandis, to a description of the interaction between the second supply receiving device 104b and a provision receiving device 172. Likewise, the description of the first receiving device 72 also applies to the description of the provision receiving device 172.

In contrast to the first receiving device 72, the provision receiving device 172 has, in its interior region 173, a solid plate 174 projecting from the base 172a of the receiving frame of the provision receiving device 172. Legs corresponding to the legs 72b of the first receiving device 72 are designated 172b on the provision receiving device 172. The same applies to the leg ends 172c angled toward one another in relation to the previously explained leg ends 72c.

For the sake of clarity, not all of the receiving structures 171 are provided with further reference symbols in detail.

In 11 Inserts 152 are shown pulled out from a base and work module frame 46 in the opposite direction to the y-direction. The base and work module frame 46 of 11 comprises, for example, more than three laboratory base modules 42, which is easily possible within the scope of the present invention. 11 The basic laboratory modules shown correspond in design to the basic laboratory module 42b.

Operating personnel can therefore pull out inserts 152 from the body 32 from the front side 12a of a laboratory arrangement 10, for example to load the inserts 152 by hanging stack stores 156 in suspension devices 170 on side walls 153 of the inserts 152, and to remove used sub-selections 158 from the inserts 152 if necessary.

In 11 is indicated on the frontmost outermost stack 156, as this along the z-direction, ie along a 11 not shown displacement path V, via the push plates 154 which can be displaced in the height direction, i.e. in the z-direction (see 8 ) can be moved from its hanging position into the laboratory work module 56 above it.

In the 12 and 13 is the transfer of a microtiter plate 158c as a laboratory item of a first subselection 157 from a set of laboratory items comprising the microtiter plate 158c as a target vessel, the source vessel 158a and the pipetting tip assembly 158b, which is required for performing a pipetting task by the pipetting device 64.

In the earlier state of 12 The microtiter plate 158c is in contact with the first receiving device 72, which has moved the microtiter plate 158c into a transfer area 176 along the first transport path 70. In the transfer area 176, a transfer of the microtiter plate 158c from the first receiving device 72 to the first delivery receiving device 104a or vice versa is possible. When the first receiving device 72 is in the position associated with the transfer area 176 along the first transport path 70, the first receiving device 72 forms a transfer station 178 for a transfer of the microtiter plate 158c from the first receiving device 72 to the first delivery receiving device 104a.

The second transport device 96 was moved along its second transport path 98 into a position tion in which the first delivery receiving device 104a, which cooperates with the first receiving device 72 for transferring the microtiter plate 158c, is located below the inner region 73 of the first receiving device 72 covered by the microtiter plate 158c in such a way that a movement of the first delivery receiving device 104a allows it to be moved through the inner region 73 along the transfer relative movement path TRB in the vertical direction, taking the microtiter plate 158c with it. During this taking, the microtiter plate 158c, which only rests on the first support surface arrangement 77, is lifted off the latter. The support engagement of the microtiter plate 158c with the first receiving device 72 is thus canceled. At the same time, a support engagement of the microtiter plate 158c with the support surface arrangement 132 of the first delivery receiving device 104a is established.

In the 12 a situation is shown before a transfer of the microtiter plate 158c from the first receiving device 72 to the first delivery receiving device 104a, in which the second receiving device 102 with the receiving arrangement 104 comprising the first and second delivery receiving devices 104a and 104b is in the fully lowered position along the transfer relative movement path TRB.

13 shows the transfer area 176 with a receiving arrangement 104 completely raised along the transfer relative movement path TRB, wherein the first delivery receiving device 104a completely traverses the inner area 73 of the first receiving device 72 in the vertical direction along the transfer relative movement path TRB and in the process has lifted the microtiter plate 158c from the first receiving device 72 by establishing a support engagement with the first delivery receiving device 104a as described above.

The vertical position of the first receiving device 72 is in the 12 and 13 unchanged, since a movement along the first transport path 70 is the only degree of freedom of movement of the first receiving device 72 or the first transport device 68.

A transfer of the microtiter plate 158c from the first delivery receiving device 104a to the first receiving device 72 takes place in the reverse movement sequence, i.e. the first delivery receiving device 104a, with the microtiter plate 158c resting thereon, is moved over the first receiving device 72 provided in the transfer region 176 and then lowered along the transfer relative movement path TRB through the inner region 73, wherein the microtiter plate 158c remains in contact with the first support surface arrangement 77, establishing a support engagement.

This type of transfer of a microtiter plate 158c between the first delivery receiving device 104a and the first receiving device 72 is referred to in the present application as a stripping transfer, regardless of the transfer direction.

After the receiving arrangement 104 has been moved out of the extension area of the first receiving device 72 along the second transport path 98, it is lowered along the transfer relative movement path TRB.

In principle, a transfer of the second sub-selection 158 with the source container 158a and the pipette tip assembly 158b as the laboratory items of the second sub-selection 158 mutatis mutandis between the second delivery receiving device 104b and the provision receiving device 172 proceeds in the same way as the transfer of the first sub-selection 157 or the microtiter plate 158c between the first delivery receiving device 104a and the first receiving device 72.

The receiving arrangement 104 or the first delivery receiving device 104a can be lowered along the transfer relative movement path TRB relative to the first receiving device 72 to such an extent that the first delivery receiving device 104a, with the microtiter plate 158c resting thereon, can be moved along the second transport path 98 below the first receiving device 72 provided in the transfer area 176. This ensures that the first receiving device 72 can be moved along the first transport path 70 regardless of whether the first delivery receiving device 104a is loaded and regardless of its position along its second transport path 98. Furthermore, a microtiter plate 158c in contact with the first delivery receiving device 104a can be moved as desired along the second transport path 98.

Like the 14 and 15 As indicated, the pipetting device 64 pipettes from its pipetting channels 92 into the microtiter plate 158c as the source container, while the latter rests on the first delivery receiving device 104a. As a result, mobility of the pipetting channels 92 only along their pipetting channels K, which in the illustrated embodiment run parallel to the z-direction, is sufficient as the only degree of freedom of movement of the pipetting channels 92. As a result, the pipetting device 64 can be constructed much more simply and cost-effectively while maintaining the same positioning accuracy of its pipetting channels 92.

In 14 A second sub-selection 158 with a plurality of source containers 158a and a plurality of pipetting tip assemblies 158b is received on the second delivery receiving device 104b and is in supporting engagement therewith. The second sub-selection 158 received on the second delivery receiving device 104b was previously picked up by the now empty supply receiving device 172 of the stack storage 156 raised along its displacement path V parallel to the z-direction, i.e., transferred from the supply receiving device 172 to the second delivery receiving device 104b by a transfer movement of the second delivery receiving device 104b.

In the example shown, the empty provisioning receptacle 172 is the third provisioning receptacle 172 from the top in the stack memory 156. This is located in 14 in a staging area 180, in which a transfer of the second subselection 158 from the delivering staging receptacle 172 to the receiving second delivery receptacle 104b is possible. The stack storage 156, together with the laboratory article lift 128, forms a staging station 182, in which a desired second subselection 158 can be staging in the stack storage 156 for transfer from the stack storage 156 to the receiving arrangement 104.

Due to the uniform design of the first receiving device 72 and the provision receiving device 172 and due to the uniform design of the installation surfaces of the sub-selections 157 and 158, the first transport device 68 can also transport second sub-selections 158 in a transferable manner and the stack storage 156 can convey first sub-selections 157 in a transferable manner.

By using the second receiving device 102 with the receiving arrangement 104 comprising the two delivery receiving devices 104a and 104b, a set of laboratory items required to carry out a pipetting task can be configured from the source container 158a with the dosing liquid to be pipetted held therein, the pipetting tip arrangement 158b with eight disposable pipetting tips 184 each, and the microtiter plate 158c as the source container only in the working area 186 of the pipetting device 64.

A pipetting process in the working area 186 of the pipetting device 64 of the laboratory work module 56b is in 15 shown.

The pipetting tip arrangement 158b is provided with eight disposable pipetting tips 184 arranged side by side parallel to the x-direction such that the disposable pipetting tips 184 can be coupled to the eight pipetting channels 92, which are also arranged side by side parallel to the x-direction. For this purpose, a coupling longitudinal end 184a is provided pointing toward the longitudinal end of the pipetting channel 92.

Therefore, the second sub-selection 158 is first moved into the working area 186 of the pipetting device 64 so that the pipetting device 64 can couple the disposable pipetting tips 184 of a pipetting tip arrangement 158b to the pipetting channels 92. Subsequently, a source container 158a is moved below the dispensing openings of the coupled disposable pipetting tips 184 so that the pipetting device 64 can aspirate dispensing liquid from the source container 158a.

Subsequently, the microtiter plate 158c is moved beneath the disposable pipetting tips 184 received on the pipetting channels 92, so that the pipetting device 64 can dispense dosing liquid aspirated into the disposable pipetting tips 184 into individual wells 188 of the microtiter plate 158c. The wells 188 are arranged in a matrix-like manner in the microtiter plate 158c in a known manner, in the example shown in an 8 x 12 matrix. Therefore, dosing liquid can be dispensed simultaneously, row by row, into one of the twelve well rows of eight wells 188 each.

After use, the disposable pipetting tips 184 can be returned to their delivery receptacle and disconnected from the pipetting channels 92. Alternatively, after use, disposable pipetting tips 184 can be ejected from the pipetting channels into a waste container through the opening 130 or through another opening in the base plate 90. The waste container can be provided in a laboratory base module 42b arranged below the laboratory work module 56b.

The second transport device 96 can be moved one row spacing between two dispensations so that a subsequent dispensation can be made into a new row with eight wells 188.

After the pipetting task has been performed, the microtiter plate 158c, now filled with dosing liquid, can be transported by the second transport device 96 by means of the first delivery-receiving device 104a and by the first transport device 68 into a further laboratory work module 56b, for example into a laboratory work module 56a with an incubator 58.

QUOTES CONTAINED IN THE DESCRIPTION

This list of documents submitted by the applicant was generated automatically and is included solely for the convenience of the reader. This list is not part of the German patent or utility model application. The DPMA assumes no liability for any errors or omissions.

Cited patent literature

• US 6739448 B1 [0004, 0005]
• EP 0 990 906 A1 [0009, 0010]
• EP 3 450 985 A1 [0015, 0019]
• EP 0 856 736 A2 [0020]
• US 7954624 B2 [0023, 0026]
• EP 2 022 736 A1 [0023, 0026]

Claims (15)

Laboratory module rack (36) comprising at least two laboratory base modules (42) and at least two laboratory work modules (56), wherein the at least two laboratory base modules (42) form a lower base module level (38) of the laboratory module rack (36), and wherein the at least two laboratory work modules (56) form an upper work module level (40) of the laboratory module rack (36) arranged above the base module level (38), wherein a laboratory base module (42) is located below at least one laboratory work module (56), wherein each laboratory work module (56) comprises a processing device (60) and a transport arrangement (99) for transporting a laboratory object (158a, 158b, 158c) at least to the processing device (60), wherein the transport arrangement (99) has a first and a second transport device (68, 96), wherein the first transport device (68) has a first receiving device (72) for receiving the laboratory object (158a, 158b, 158c) for transporting the laboratory object (158a, 158b, 158c) by the first transport device (68), and wherein the second transport device (96) has a second receiving device (102) for receiving the laboratory object (158a, 158b, 158c) for transporting the laboratory object (158a, 158b, 158c) by the second transport device (96), wherein the first receiving device (72) is movable along a first transport path (70), and wherein the second receiving device (102) is movable along a second transport path (98) which is different from the first transport path (70) and runs transversely thereto, wherein the transport arrangement (99) has a transfer region (176) in which the transport arrangement (99) is designed to transfer a transported laboratory object (158a, 158b, 158c) from a delivering transport device (68, 96) of the first and second transport devices (68, 96) to the respective other receiving transport device (68, 96) of the first and second transport devices (68, 96), wherein the at least two laboratory work modules (56) follow one another along the direction of travel of the first transport path (70), and wherein the at least two laboratory work modules (56) have a common first transport device (68) and each have their own second transport device (96), as well as each have a transfer area (176). Laboratory module shelf (36) according to Claim 1 , characterized in that the first transport path (70) and the second transport path (98) run only within the working module level (40). Laboratory module shelf (36) according to Claim 1 or 2 , characterized in that at least one laboratory module (42, 56) of the laboratory module shelf (36) has a laboratory object lift (128) by means of which at least one laboratory object (158a, 158b, 158c) can be displaced between a laboratory work module (56) and a laboratory base module (42) arranged below the laboratory work module (56). Laboratory module shelf (36) according to Claim 3 , characterized in that the laboratory object lift (128) has a stack storage (156) which can be displaced between the working module level (40) and the base module level (38), in which stack storage (156) successive receiving structures (171) for receiving a respective laboratory object (158a, 158b, 158c) are arranged along the direction of displacement (V) of the stack storage (156). Laboratory module shelf (36) according to one of the preceding claims, characterized in that the laboratory work modules (56) have base area dimensions in each of two mutually orthogonal base area spatial directions which differ by no more than 7.5% with respect to the larger dimension along one and the same spatial direction. Laboratory module shelf (36) according to one of the preceding claims, characterized in that the laboratory base modules (42) have base area dimensions in each of two mutually orthogonal base area spatial directions which differ by no more than 7.5% with respect to the larger dimension along one and the same spatial direction. Laboratory module shelf (36) according to one of the preceding claims, characterized in that at least the laboratory work modules (56) have a work module frame (46) which is designed as a framework. Laboratory module shelf (36) according to one of the preceding claims, characterized in that the laboratory base modules (42) have a base module frame (46) which is designed as a framework. Laboratory module shelf (36) according to one of the preceding claims, characterized in that the laboratory module shelf (36) has a common housing (12) as a cladding outer skin (12), which shields a plurality of its laboratory modules (42, 56) from the external environment (U) of the laboratory module shelf (36). Laboratory module shelf (36) according to Claim 9 , characterized in that an interior space (14) of the laboratory module shelf (36) is accessible from the outside via that side (12a) as the access side (12a) of the common housing (12) along which the first transport path (70) runs. Laboratory module shelf (36) according to Claim 10 , characterized in that the access side (12a) of the common housing (12) has at least one access opening which can be opened and closed by a door and/or a flap and/or a roller blind. Laboratory module shelf (36) according to Claim 11 , characterized in that the access side (12a) of the common housing (12) in the upper working module level (40) has at least one maintenance opening as an access opening through which the first transport device (68) can be reached. Laboratory module shelf (36) according to one of the Claims 10 until 12 , characterized in that the access side (12a) of the common housing (12) in the lower base module level (38) has at least one loading opening as an access opening, through which a laboratory base module (42) can be loaded with at least one laboratory object (158a, 158b, 158c). Laboratory module shelf (36) according to Claim 13 , characterized in that at least one laboratory base module (42) has a pull-out drawer (152). Laboratory module shelf (36) according to one of the preceding claims, characterized in that at least one laboratory base module (42) has at least one storage device (156) for storing laboratory objects (158a, 158b, 158c) and/or a preparation device (44) for preparing laboratory objects (158a, 158b, 158c) for their use in a laboratory work module (56).